Category Archives: Russian & Soviet Analytics

Analytic reports focusing on philosophy or doctrine related topics that influenced the design, evolution and use of small arms.

Ukraine’s Strategic Evolution in the Russo-Ukrainian War by 2025

As the Russo-Ukrainian War approaches the culmination of its fourth year in late 2025, the strategic landscape is defined by a profound divergence in the trajectories of the two belligerents. The user’s intuition that the differences between the current state of the Ukrainian and Russian war machines would be “marked” is not only correct but underscores the fundamental nature of the conflict’s evolution. While the Russian Federation has largely settled into a strategy of industrial regression—relying on the mass reactivation of Soviet legacy armor, the simplification of technological inputs to bypass sanctions, and a brute-force mobilization of manpower—Ukraine has entered a period of strategic inflection characterized by rapid technological integration, industrial localization, and the institutionalization of asymmetric warfare.1

The analysis of late 2025 reveals that Ukraine is no longer merely surviving through the absorption of foreign aid; it is actively constructing a sovereign “deterrence ecosystem.” This ecosystem is built upon three pillars: the operationalization of an indigenous long-range strike complex capable of disregarding Western political caveats; the creation of the world’s first independent branch of service dedicated to unmanned systems; and the integration of its domestic defense industrial base (DIB) with Western manufacturing giants to form a localized production capability.4

This divergence is driven by necessity. Lacking the strategic depth of Russia’s Soviet-era stockpiles—where T-62 tanks are now being refurbished with crude field modifications and “cope cages” to fill losses—Ukraine has been forced to substitute mass with precision and software-defined lethality.7 The result is a Ukrainian force structure that is paradoxically heterogeneous—struggling with a “zoo” of incompatible NATO platforms—yet simultaneously pioneering network-centric capabilities like the “Delta” system that are now being sought by NATO members themselves.9 This report provides an exhaustive examination of these dynamics, contrasting the “regression and mass” strategy of Russia with the “evolution and integration” strategy of Ukraine, and detailing the specific industrial, logistical, and operational realities of late 2025.

2. The Indigenous Long-Range Strike Complex: Breaking the Range Limit

For the first two years of the full-scale invasion, Ukraine’s ability to project power was severely constrained by the geopolitical caveats attached to Western security assistance. Systems such as the HIMARS GMLRS and the Storm Shadow/SCALP-EG cruise missiles came with strict “geofencing” restrictions, prohibiting strikes on sovereign Russian territory to manage escalation risks. By late 2025, Kyiv has successfully shattered these constraints, not through diplomatic negotiation, but through the maturation of its own industrial capabilities. The emergence of a multi-layered, indigenous strike complex has fundamentally altered the strategic calculus, allowing Ukraine to threaten Russian logistics, airfields, and industrial hubs deep behind the border without seeking external permission.3

2.1 The Resurrection of “Sapsan” (Hrim-2)

The most consequential development in Ukraine’s strategic arsenal is the operational deployment of the Sapsan (also known as Hrim-2 or Grim-2) operational-tactical missile system. Originally conceived in 2006 as a superior successor to the aging Soviet Tochka-U, the program suffered from chronic underfunding and bureaucratic inertia for over a decade. However, the existential imperatives of 2022 forced an accelerated research and development cycle, transforming prototypes into combat-ready systems by late 2025.11

In December 2025, President Volodymyr Zelenskyy publicly confirmed that the Sapsan had begun combat operations, ending months of speculation regarding unexplained high-velocity strikes on Russian military infrastructure.11 The Sapsan represents a functional analogue to the Russian Iskander-M, but with critical distinctions tailored to Ukraine’s needs. The system is a single-stage solid-propellant ballistic missile with a confirmed operational range of approximately 500 kilometers for the domestic version, significantly outranging the export-limited 280-kilometer variants previously marketed to foreign partners.11

The strategic impact of the Sapsan cannot be overstated. With a warhead payload estimated at 480 kilograms and a terminal velocity reaching Mach 5.2, the missile presents a severe challenge to Russian air defense networks.12 Standard Russian interceptors, such as the S-300 and S-400 systems, struggle against the high-angle, high-speed terminal trajectory of the Sapsan, particularly when the launch originates from unexpected vectors. Unlike the subsonic cruise missiles and drones that have characterized previous Ukrainian deep strikes, the Sapsan’s ballistic profile reduces the reaction time for Russian defenders to mere minutes. This capability forces the Russian Aerospace Forces (VKS) to displace their staging airfields further into the interior, thereby reducing sortie rates and increasing the wear on airframes that are already suffering from sanctions-related maintenance deficits.11

2.2 The “Missile-Drone” Hybrid Ecosystem

While the Sapsan provides a high-end ballistic capability, Ukraine has simultaneously pioneered a new category of “missile-drones” designed to bridge the gap between expensive cruise missiles and slow, propeller-driven loitering munitions. This approach reflects a philosophy of “asymmetric cost imposition”—forcing Russia to expend scarce and expensive air defense interceptors against relatively low-cost, high-volume threats.14

The Palyanytsia, described as a “rocket-drone,” epitomizes this design philosophy. Utilizing a jet engine, the Palyanytsia achieves speeds significantly higher than the Iranian-designed Shahed drones used by Russia, yet it remains far cheaper to produce than a standard cruise missile like the Neptune or Storm Shadow.4 This system occupies the “middle tier” of Ukraine’s strike complex, designed to saturate air defenses and strike time-sensitive targets that would otherwise escape slower drones.

Complementing the Palyanytsia is the Peklo (meaning “Hell”), another entrant in this hybrid class designed for mass production. These systems, along with the Flamingo heavy cruise missile, create a diverse threat profile that complicates the air picture for Russian radar operators.4 By presenting a mix of ballistic trajectories (Sapsan), supersonic cruise profiles (Long Neptune), and high-speed drone swarms (Palyanytsia/Peklo), Ukraine creates a “kill web” that overwhelms the integrated air defense systems (IADS) of the adversary.

2.3 The Evolution of the Neptune

The R-360 Neptune, initially famous for the sinking of the cruiser Moskva in 2022, has undergone a significant evolution. By late 2025, the system has been adapted from a coastal defense anti-ship missile into a dedicated land-attack cruise missile, referred to as the “Long Neptune”.4 This variant features extended fuel capacity and updated guidance systems, including terrain-following radar and GPS/INS navigation, allowing it to strike targets deep within the Russian interior. Official reports indicate that the range of the Neptune has been increased to approximately 1,000 kilometers, placing Moscow and other critical command centers well within its engagement envelope.4

The table below summarizes the capabilities of Ukraine’s indigenous strike complex as of late 2025, highlighting the layered nature of this new deterrence capability.

System NameTypeOperational RangeRoleStatus (Late 2025)
Sapsan (Hrim-2)Ballistic Missile~500 kmDeep Precision Strike, Bunker BustingCombat Active 11
Long NeptuneCruise Missile~1,000 kmStrategic Infrastructure StrikeSerial Production 4
PalyanytsiaJet-Powered Drone~700 km (Est.)Air Defense Saturation, Time-Sensitive TargetsCombat Active 14
Vilkha-MGuided MLRS~130-150 kmTactical/Operational Precision StrikeResumed Production 15
PekloMissile-DroneUnspecifiedHigh-Volume SaturationIn Service 4
Table 1: Technical specifications and status of Ukraine’s indigenous long-range strike systems.

3. The Industrial Base Revolution: From Donation to Localization

If the defining characteristic of 2022-2023 was the solicitation of emergency aid from Western partners, the period of 2024-2025 is defined by the “localization” of defense production. Recognizing that Western stockpiles are finite and that political will in donor nations is subject to electoral volatility, Ukraine has aggressively courted Western defense giants to establish production facilities directly on Ukrainian soil. This strategy aims to shorten logistics chains, reduce dependency on foreign aid packages, and integrate Ukraine into the European NATO industrial base even prior to formal membership.6

3.1 The Rheinmetall Case Study: Building Under Fire

The experience of Rheinmetall AG, Germany’s largest arms manufacturer, serves as a bellwether for this industrial transition. By late 2025, Rheinmetall’s commitment to Ukraine has evolved from the supply of vehicles to deep industrial integration. The company has established a joint venture, in which it holds a 51% stake, to produce 155mm artillery ammunition—the absolute lifeblood of the attrition war in the Donbas.6

However, the reality of constructing high-tech manufacturing facilities in an active war zone has proven to be fraught with friction. The construction of the ammunition plant was delayed into late 2025, a setback attributed to a decision by the Ukrainian government to change the facility’s location.18 This decision was almost certainly driven by intelligence regarding potential Russian missile strikes, necessitating a move to a more hardened or geographically shielded site to ensure the facility’s survivability. Despite these delays, Rheinmetall CEO Armin Papperger has confirmed that once the location is finalized, the modular nature of the plant will allow for construction to be completed within 12 months, mirroring the speed of their domestic German facilities.20

Beyond ammunition, Rheinmetall is moving to produce the Lynx KF41 infantry fighting vehicle (IFV) in Ukraine. The Lynx represents a generational leap over the Soviet BMP-1 and BMP-2 series currently in service, offering modular armor, advanced optics, and superior crew protection. The production of the first five vehicles began in Germany for immediate delivery, with the ultimate goal of transferring the technology for full local manufacturing.20 This shift from “repairing” to “manufacturing” marks a critical maturity point in the Ukrainian DIB.

3.2 The Baykar “Iron Bird” Factory

Turkish drone manufacturer Baykar has proceeded with the construction of its factory near Kyiv, with completion slated for August 2025.22 Unlike Western companies that have largely focused on maintenance and ammunition initially, Baykar is building a full-cycle production facility for the Bayraktar TB2 and TB3 drones.23

This facility is highly symbolic and strategic. It has been targeted by Russian missiles at least four times during its construction phase, yet work has continued—a testament to the resilience of the project and the strategic commitment of the Turkish partner.24 The factory will employ Ukrainian-made engines for the drones, creating a closed-loop production cycle that benefits both the Turkish airframe designers and the Ukrainian propulsion industry.25 This collaboration underscores a deepening strategic axis between Kyiv and Ankara, independent of broader NATO dynamics.

3.3 BAE Systems and the Artillery Coalition

BAE Systems has established a local legal entity in Ukraine to facilitate the maintenance and eventual production of the L119 105mm Light Gun.16 The L119 has proven highly effective in the muddy, contested terrain of Eastern Ukraine due to its mobility and rate of fire. By localizing the maintenance of these systems, Ukraine drastically reduces the “turnaround time”—the critical metric of how long a gun is out of the fight for repairs. Agreements signed in late 2025 aim to transition from repair to the manufacturing of spare parts and eventually gun barrels, restoring a critical manufacturing capability that is scarce even in Western Europe.16

3.4 Domestic Production Surge

Parallel to these joint ventures, Ukraine’s domestic production has surged. The production of the 2S22 Bohdana self-propelled howitzer, a NATO-standard 155mm system mounted on a truck chassis, has reached a rate of 18-20 units per month by late 2025.4 This annualizes to over 200 new artillery systems per year—a figure that exceeds the total pre-war artillery procurement of many major NATO powers. Additionally, private companies like “Ukrainian Armored Vehicles” have scaled the production of mortars to 1,200 units annually and mines to 240,000 units, indicating that the domestic DIB is successfully filling the gaps left by fluctuating foreign aid.4

4. The Unmanned Systems Forces: Institutionalizing the Drone War

In a structural innovation that predates similar initiatives in Russia and most Western armies, Ukraine established the Unmanned Systems Forces (USF) as a separate, independent branch of its Armed Forces in 2024, achieving full operational capability by late 2025.5 This move signals a doctrinal shift, elevating drone warfare from a support function—akin to signals or logistics—to a primary combat arm comparable to the infantry or artillery.

4.1 Doctrine, Standardization, and the “Drone Line”

The primary mandate of the USF is to impose order on the chaos of the “drone zoo.” For years, Ukrainian units relied on a patchwork of volunteer-supplied commercial drones, resulting in thousands of incompatible platforms. The USF has implemented the “Drone Line” project, which centralizes the procurement and standardization of drones across the force.30 This initiative aims to streamline supply chains, ensuring that batteries, controllers, and spare parts are interchangeable across different units, a critical logistical requirement for sustaining high-intensity operations.

Furthermore, the USF has centralized pilot training. Moving away from the ad-hoc, unit-level training that characterized the early war, the USF has established standardized training centers that disseminate the latest tactical lessons—such as evading new Russian electronic warfare (EW) frequencies or executing terminal guidance maneuvers against moving targets—across the entire military.31 This institutional memory is a key asymmetric advantage over Russia, where drone competencies remain largely compartmentalized within specific units or dependent on individual commanders’ initiative.32

4.2 Scaling the “Missile-Drone”

The USF is also the primary operator of the new class of “missile-drones” discussed previously. By placing these strategic assets under a dedicated command, Ukraine ensures that they are employed in coordinated operational campaigns rather than penny-packet tactical strikes. The ability to coordinate a swarm of Palyanytsia jet-drones to suppress air defenses, followed immediately by Sapsan ballistic strikes on the exposed targets, represents a level of combined-arms synchronization that is only possible through a unified command structure like the USF.30

5. Network-Centric Warfare: The “Delta” Advantage

While Russia struggles with brittle command and control (C2) structures that rely on top-down rigidity and often lack horizontal communication, Ukraine has fully embraced network-centric warfare through its indigenous Delta system. By late 2025, Delta has evolved from a simple situational awareness tool into a comprehensive digital battle command platform that is attracting international customers and redefining NATO standards.10

5.1 The “Google for Military”

Delta is a cloud-based system that integrates real-time data from a vast array of sources: commercial and military satellite imagery, drone feeds, human intelligence reports (HUMINT), and sensors from Western-supplied equipment like counter-battery radars. It fuses this data into a “common operating picture” (COP) accessible to units down to the platoon level via secure tablets and terminals.34

The system’s most revolutionary contribution is the drastic reduction of the sensor-to-shooter cycle. In late 2025, the system demonstrated the ability to detect Russian hardware as unique units with an average detection time of just 2.2 seconds using AI-powered auto-detection algorithms.35 This speed is lethal in modern artillery duels; it allows Ukrainian gunners to engage Russian batteries effectively the moment they unmask, often before they can fire a second salvo or displace. This capability acts as a force multiplier, partially offsetting Russia’s lingering quantitative advantage in artillery tubes and ammunition stocks.

5.2 NATO Interoperability and Export Potential

In a reversal of the traditional “teacher-student” dynamic, NATO forces are now learning from the Ukrainian experience. Delta was successfully tested during NATO’s CWIX (Coalition Warrior Interoperability eXercise) and REPMUS 2025 exercises, where it coordinated over 100 unmanned platforms across maritime, air, and land domains.33 The system proved fully compatible with German, Polish, and Turkish C2 systems, validating its open-architecture design.

Crucially, in April 2025, an unnamed NATO member formally requested to acquire the Delta system, marking the first major export of Ukrainian digital defense technology.10 This signals that Ukraine’s “battle-forged” software is now considered superior to some peace-time systems developed by established Western defense contractors, validating Ukraine’s status as a burgeoning defense-tech power.

6. The “Zoo” Dilemma: Logistics and The Burden of Diversity

While innovation drives Ukraine forward, the legacy of emergency aid acts as a significant drag on operational efficiency. The Ukrainian military operates what Defense Minister Rustem Umerov and soldiers alike refer to as a “zoo”—a chaotic menagerie of incompatible platforms from dozens of donor nations.9 This logistical complexity stands in stark contrast to the relative homogeneity of Russian equipment, even as the latter degrades in quality.

6.1 The Armored Logistics Nightmare

By late 2025, the Ukrainian armored fleet includes Leopard 1s and 2s (German), Challenger 2s (British), M1 Abrams (American), PT-91s (Polish), CV90s (Swedish), and a vast array of Soviet-era T-72s, T-64s, and T-80s.9 This diversity creates a nightmare for maintainers:

  • Incompatible Supply Chains: Each of these platforms requires different sets of tools (metric vs. imperial), specific hydraulic fluids, unique engine parts, and specialized diagnostic software. A mechanic trained on a Leopard 2 diesel engine cannot intuitively repair the gas turbine of an Abrams.9
  • Maintenance Bottlenecks: To address deep maintenance needs, a Leopard 2 repair center was established in Lithuania. However, the transit time to transport a damaged tank from the Donbas to the Baltic states and back keeps critical assets off the battlefield for weeks or even months.38
  • The “Universal Mechanic”: To mitigate these delays, Ukraine has deployed mobile repair workshops closer to the front, capable of handling minor to moderate repairs. These units are staffed by mechanics who have had to become “universal experts,” learning to jury-rig repairs across a dozen different systems. This adaptability is commendable but inefficient compared to a standardized fleet.39

7. The Air Power Transition: Infrastructure and Integration

The Ukrainian Air Force in late 2025 is navigating a fragile transition from a Soviet-era fleet to a mixed Western-Soviet force. The integration of F-16s (donated by Denmark, the Netherlands, and Norway) and Mirage 2000-5Fs (from France) has provided a qualitative boost but created immense infrastructure challenges.40

7.1 Infrastructure and Dispersal

The F-16 Fighting Falcon is a delicate machine compared to the rugged Soviet MiGs. Its low-slung air intake makes it susceptible to foreign object damage (FOD), requiring pristine runways. This has necessitated a massive construction effort to upgrade airfields, pouring high-quality concrete and improving hangars while under the constant threat of Russian ballistic missile attacks.42 This infrastructure requirement limits the “dispersal” tactics Ukraine used successfully in the early war, where MiGs operated from rough improvised airstrips and highways, making the new F-16 bases obvious priority targets for the VKS.

7.2 Role Specialization and Supply Chains

The introduction of the French Mirage 2000-5F adds another layer of complexity. These aircraft are being specialized for the ground-attack role, serving as “flying launch trucks” for Western precision munitions like the SCALP-EG cruise missile and AASM Hammer glide bombs.41 This allows the F-16s to focus on air defense and anti-radiation missions (SEAD). While this division of labor optimizes the strengths of each airframe, it burdens the logistics system with two completely separate Western aviation supply chains—one American/NATO standard and one French—on top of the existing supply lines for the legacy Su-27 and MiG-29 fleet.43

8. The Human Element: Mobilization and the “Booking” System

Perhaps the most critical difference between the Ukrainian and Russian war efforts in 2025 is the management of human capital. While Russia continues to rely on a “crypto-mobilization” strategy—using high financial incentives to recruit contract soldiers from impoverished regions—Ukraine faces a tighter demographic constraint and has had to implement a sophisticated legal framework to balance the needs of the trench with the needs of the factory.44

8.1 The “Booking” (Reservation) System

To protect its booming defense industry from the manpower hunger of the front lines, the Ukrainian government introduced an updated “booking” mechanism (Resolution #1608) in late 2025. This system allows critical enterprises—specifically in the Defense Industrial Complex (DIC)—to reserve key employees from mobilization.45

  • Efficiency Improvements: The new rules grant a 45-day window for employees to correct military registration discrepancies without fear of immediate conscription and remove the cumbersome 72-hour waiting period for verifying reservation lists.45
  • Strategic Intent: This policy acknowledges a fundamental reality of modern war: a skilled welder at a drone factory or a software engineer working on the Delta system contributes more to the war effort in the rear than they would as a rifleman in a trench. It represents a shift towards a “total defense” economy where the labor force is managed as a strategic asset.

However, this system is not without friction. The labor shortage remains acute across the broader economy. With the mobilization age lowered and enforcement stricter, businesses outside the critical defense sector struggle to retain staff, creating economic drag that threatens the tax base needed to fund the military’s domestic expenditures.44

9. Comparative Analysis: Why the Differences are Marked

The user’s query posits that the differences between the Russian and Ukrainian reports will be “marked.” The evidence supports this conclusion unequivocally. The divergence stems from the different constraints and opportunities facing each nation.

Russia is adapting by regression and scaling.

Confronted with high-tech sanctions, a “brain drain” of skilled tech workers, and a reliance on vast Soviet stockpiles, Russia has chosen a path of simplification. It produces more of less capability. The widespread factory-standard installation of “cope cages” on T-62 tanks and the use of “meat grinder” assault tactics are symptomatic of a system that prioritizes mass over survivability or precision.7 Russian innovation is largely reactive—adapting EW to jam Western GPS munitions, for instance—rather than structural.48

Ukraine is adapting by evolution and integration.

Lacking the strategic depth of Soviet stockpiles to play the mass game, Ukraine has been forced to innovate to survive. It has integrated Western precision technology with its own rapid software development capabilities (Delta) and cost-effective strike solutions (missile-drones).

  • The “Zoo” as a Catalyst: While the “zoo” of Western equipment is a logistical nightmare, it has ironically forced Ukraine to become the most adaptable military in the world. Ukrainian maintainers and operators have developed a unique institutional flexibility, capable of integrating disparate systems—French missiles on Soviet jets, American radars with Ukrainian software—into a single coherent kill chain.
  • Sovereignty Reclaimed: The shift from “begging for ATACMS” to “firing Sapsans” marks the psychological and strategic pivot of 2025. Ukraine is no longer asking for permission to strike the enemy; it is building the capacity to do so on its own terms.

10. Conclusion

In late 2025, the Ukrainian military is a paradoxical entity. It is simultaneously struggling with the friction of a heterogeneous, donor-dependent arsenal and leading the world in the application of digital, unmanned, and precision warfare. It is a force built not on the uniformity of the past, like its Russian adversary, but on the agile, chaotic, and lethal diversity of the future. The transition from a recipient of aid to a producer of capabilities—epitomized by the combat debut of the Sapsan missile and the export of the Delta system—suggests that while Russia is preparing for a long war of attrition, Ukraine is preparing for a war of technological decision.


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Sources Used

  1. Wartime Zapad 2025 Exercise: Russia’s Strategic Adaptation and …, accessed December 20, 2025, https://my.rusi.org/resource/wartime-zapad-2025-exercise-russias-strategic-adaptation-and-nato.html
  2. Russian Defense Industry Sees Sharp Production Decline After …, accessed December 20, 2025, https://militarnyi.com/en/news/russian-defense-industry-sees-sharp-production-decline-after-three-years-of-growth/
  3. Ukraine’s Missile Program 2025: Arsenal, Scaling & Export Potential | The Gaze, accessed December 20, 2025, https://thegaze.media/news/ukraines-missile-program-2025-what-already-exists-what-is-maturing-to-series-production-and-where-the-export-potential-lies-after-the-war
  4. Recent Trends in the Development of Ukraine’s Military-Industrial Complex in an International Context – Konrad-Adenauer-Stiftung, accessed December 20, 2025, https://www.kas.de/documents/d/ukraine/cacds_ukraine_mic_eng
  5. Russia Launches New Drone Warfare Branch to Boost Unmanned Forces – Kyiv Post, accessed December 20, 2025, https://www.kyivpost.com/post/64093
  6. A powerful partner at Ukraine’s side – Rheinmetall, accessed December 20, 2025, https://www.rheinmetall.com/en/media/stories/2023/rheinmetall-a-powerful-partner-at-ukraine-side
  7. How Many T-72 and T-90M Tanks UralVagonZavod Produced for the russian Army in 2024, accessed December 20, 2025, https://en.defence-ua.com/industries/how_many_t_72_and_t_90m_tanks_uralvagonzavod_produced_for_russian_army_in_2024-13088.html
  8. Russians Show T-62M and T-62MV Tanks Upgrades: Self-Entrenching Blades, Tank Sweeps and EW – Militarnyi, accessed December 20, 2025, https://militarnyi.com/en/news/russians-show-t-62m-and-t-62mv-tanks-upgrades-self-entrenching-blades-tank-sweeps-and-ew/
  9. Give Ukraine the tanks it needs, not a ‘petting zoo’ – Defense News, accessed December 20, 2025, https://www.defensenews.com/opinion/commentary/2023/02/10/give-ukraine-the-tanks-it-needs-not-a-petting-zoo/
  10. Ukraine’s Battle-Forged DELTA System Catches NATO Eye: Export Talks Underway for Advanced Situational Awareness Platform · TechUkraine, accessed December 20, 2025, https://techukraine.org/2025/04/30/ukraines-battle-forged-delta-system-catches-nato-eye-export-talks-underway-for-advanced-situational-awareness-platform/
  11. Zelenskyy Confirms Ukraine Is Now Firing Its New Sapsan Homegrown Ballistic Missile Against Russia – UNITED24 Media, accessed December 20, 2025, https://united24media.com/latest-news/zelenskyy-confirms-ukraine-is-now-firing-its-new-sapsan-homegrown-ballistic-missile-against-russia-14185
  12. 1KR1 Sapsan – Wikipedia, accessed December 20, 2025, https://en.wikipedia.org/wiki/1KR1_Sapsan
  13. Sanctions And Strikes Threaten Russia’s Sukhoi Jet Supply – Grand Pinnacle Tribune, accessed December 20, 2025, https://evrimagaci.org/gpt/sanctions-and-strikes-threaten-russias-sukhoi-jet-supply-516155
  14. If Zelensky’s Claim Of Using Homegrown Ballistic Missile For First Time Is True, It’s A Big Deal – The War Zone, accessed December 20, 2025, https://www.twz.com/land/if-zelenskys-claim-of-using-homegrown-ballistic-missile-for-first-time-is-true-its-a-big-deal
  15. Ukraine’s Long-Term Path to Success: Jumpstarting a Self-Sufficient Defense Industrial Base with US and EU Support – Institute for the Study of War, accessed December 20, 2025, https://understandingwar.org/research/russia-ukraine/ukraines-long-term-path-to-success/
  16. Defence Secretary opens BAE Systems artillery factory in Sheffield, accessed December 20, 2025, https://www.baesystems.com/en/article/defence-secretary-opens-bae-systems-sheffield
  17. Joint venture in the Ukraine – Rheinmetall, accessed December 20, 2025, https://www.rheinmetall.com/en/media/news-watch/news/2024/02/2024-02-19-joint-venture-in-the-ukraine
  18. Rheinmetall delays Ukraine factory launch due to location change – AgroReview, accessed December 20, 2025, https://agroreview.com/en/newsen/rheinmetall-explains-the-delay-launching/
  19. “We were told that a new construction site would be designated very quickly.” Rheinmetall CEO explains why the plant launch in Ukraine is delayed and what it will produce there | dev.ua, accessed December 20, 2025, https://dev.ua/en/news/nam-skazaly-shcho-nove-mistse-dlia-budivnytstva-bude-pryznacheno-duzhe-shvydko-kerivnyk-rheinmetall-poiasnyv-z-chym-poviazana-zatrymka-zapusku-zavodu-v-ukraini-1762510818
  20. Construction of Rheinmetall plant in Ukraine delayed: CEO names reason, accessed December 20, 2025, https://unn.ua/en/news/construction-of-rheinmetall-plant-in-ukraine-delayed-ceo-names-reason
  21. Lynx (Rheinmetall armoured fighting vehicle) – Wikipedia, accessed December 20, 2025, https://en.wikipedia.org/wiki/Lynx_(Rheinmetall_armoured_fighting_vehicle)
  22. Baykar Set to Complete Drone Factory in Ukraine by August 2025 – Militarnyi, accessed December 20, 2025, https://militarnyi.com/en/news/baykar-set-to-complete-drone-factory-in-ukraine-by-august-2025/
  23. Timeline for completion of Bayraktar production plant in Ukraine announced, accessed December 20, 2025, https://newsukraine.rbc.ua/news/timeline-for-completion-of-bayraktar-production-1729787400.html
  24. Russian strike hits Turkish drone maker Baykar’s factory in Kyiv – Türkiye Today, accessed December 20, 2025, https://www.turkiyetoday.com/world/russian-strike-hits-turkish-drone-maker-baykars-factory-in-kyiv-3206097
  25. Turkish drone maker pledges to rebuild destroyed Ukraine factory, accessed December 20, 2025, https://turkishminute.com/2025/10/13/turkish-drone-maker-pledges-to-rebuild-destroyed-ukraine-factory/
  26. BAE Systems establishes local presence and signs agreements to support Ukraine, accessed December 20, 2025, https://www.baesystems.com/en/article/bae-systems-establishes-local-presence-and-signs-agreements-to-support-ukraine
  27. Ukraine, UK agree on joint artillery production – Defence Blog, accessed December 20, 2025, https://defence-blog.com/ukraine-uk-agree-on-joint-artillery-production/
  28. Russia’s War Transforms Ukraine into a World-Leading Military Producer | RealClearDefense, accessed December 20, 2025, https://www.realcleardefense.com/articles/2025/10/07/russias_war_transforms_ukraine_into_a_world-leading_military_producer_1139249.html
  29. Unmanned Systems Forces have become a separate branch of the Armed Forces of Ukraine – Militarnyi, accessed December 20, 2025, https://militarnyi.com/en/news/unmanned-systems-forces-have-become-a-separate-branch-of-the-armed-forces-of-ukraine/
  30. Ukraine unites Unmanned Systems Forces with top ‘Drone Line’ units under new command group – The Kyiv Independent, accessed December 20, 2025, https://kyivindependent.com/ukraine-creates-new-grouping-of-unmanned-systems-forces/
  31. Why Ukraine is Establishing Unmanned Forces Across Its Defense Sector and What the United States Can Learn from It – CSIS, accessed December 20, 2025, https://www.csis.org/analysis/why-ukraine-establishing-unmanned-forces
  32. Russian Efforts to Centralize Drone Units May Degrade Russian Drone Operations | ISW, accessed December 20, 2025, https://understandingwar.org/research/russia-ukraine/russian-efforts-to-centralize-drone-units-may-degrade-russian-drone-operations-2/
  33. Ukrainian combat system DELTA became primary command platform for combined multinational team at NATO exercises | MoD News, accessed December 20, 2025, https://mod.gov.ua/en/news/ukrainian-combat-system-delta-became-primary-command-platform-for-combined-multinational-team-at-nato-exercises
  34. Battlefield Innovation: Ukraine’s DELTA System Paves the Way for Allied Interoperability at CWIX24 – NATO’s ACT, accessed December 20, 2025, https://www.act.nato.int/article/delta-system-cwix/
  35. Ukrainian DELTA system has verified over 130000 Russian targets hit in two months, accessed December 20, 2025, https://www.pravda.com.ua/eng/news/2025/10/08/8001757/
  36. The EU Military Assistance Mission for Ukraine – A peace actor who teaches to fight, accessed December 20, 2025, https://www.delorscentre.eu/en/publications/the-eu-military-assistance-mission-for-ukraine
  37. Can Ukraine maintain and optimally use its modern Western tanks? – The Kyiv Independent, accessed December 20, 2025, https://kyivindependent.com/can-ukraine-make-optimal-use-of-western-tanks-and-attack-vehicles/
  38. Lithuania Will Soon Build More German Leopard Tanks – The National Interest, accessed December 20, 2025, https://nationalinterest.org/blog/buzz/lithuania-will-soon-build-more-german-leopard-tanks-ps-121925
  39. Tanks, missiles, sanctions and motivated engineers: inside the world of Russian weapons production | Ukrainska Pravda, accessed December 20, 2025, https://www.pravda.com.ua/eng/articles/2025/11/14/8007314/
  40. A Look Ahead For The Ukranian Air Force In 2025 – Simple Flying, accessed December 20, 2025, https://simpleflying.com/look-ahead-ukranian-air-force-2025/
  41. Ukrainian Air Force receives its first Mirage 2000s and more F-16s – Euro-sd, accessed December 20, 2025, https://euro-sd.com/2025/02/major-news/42468/ps-zsu-gets-first-mirage-2000s/
  42. Cases For (and Against) F-16, Gripen and Mirage in Ukraine – Großwald, accessed December 20, 2025, https://www.grosswald.org/is-the-runway-long-enough-the-case-for-and-against-the-f-16-in-ukraine-next-swedish-gripen-and-french-mirage-fighter-jets/
  43. How to enhance the Ukrainian Air Force? – Defence24.com, accessed December 20, 2025, https://defence24.com/armed-forces/how-to-enhance-the-ukrainian-air-force
  44. Army at a crossroads: the mobilisation and organisational crisis of the Defence Forces of Ukraine | OSW Centre for Eastern Studies – Ośrodek Studiów Wschodnich, accessed December 20, 2025, https://www.osw.waw.pl/en/publikacje/osw-commentary/2025-03-14/army-a-crossroads-mobilisation-and-organisational-crisis
  45. Policy Win: Cabinet of Ministers of Ukraine Updated Employees Reservation Rules to Support the Defense Industry Workforce Potential, accessed December 20, 2025, https://chamber.ua/success-stories/policy-win-cabinet-of-ministers-of-ukraine-updated-employees-reservation-rules-to-support-the-defense-industry-workforce-potential/
  46. Accelerated reservation for businesses: 45-day mechanism for the defense industry and cancellation of the 72-hour check | Cabinet of Ministers of Ukraine, accessed December 20, 2025, https://www.kmu.gov.ua/en/news/pryskorene-broniuvannia-dlia-biznesu-45-dennyi-mekhanizm-dlia-opk-ta-skasuvannia-72-hodynnoi-perevirky
  47. How Ukraine’s New Mobilization Law Impacts Human Rights and Global Food Systems, accessed December 20, 2025, https://just-access.de/how-ukraines-new-mobilization-law-impacts-human-rights-and-global-food-systems/
  48. Seven Contemporary Insights on the State of the Ukraine War – CSIS, accessed December 20, 2025, https://www.csis.org/analysis/seven-contemporary-insights-state-ukraine-war

The Impact of Ukraine War on Russian Military Modernization

The full-scale invasion of Ukraine on February 24, 2022, stands as a watershed moment in the history of the Russian Federation, serving as a brutal crucible for its armed forces and a definitive stress test for its decades-long military modernization efforts. Prior to this conflict, the Kremlin’s strategic vision—codified in the State Armament Programmes (GPV-2020 and GPV-2027)—was predicated on a transition from a Soviet-era mass mobilization army to a compact, professional, network-centric force capable of rapid expeditionary warfare and precision strikes. The war has violently derailed this linear trajectory, imposing a complex duality upon Russia’s military development: it acts simultaneously as a catastrophic strategic setback for high-end technological ambitions and a potent tactical accelerator for industrial scaling, combat adaptation, and the integration of autonomous systems.

This report, based on a comprehensive analysis of open-source intelligence, defense industrial data, and strategic doctrine, argues that the war has forced a “primitivization” of Russia’s strategic platforms while necessitating a “hyper-adaptation” in niche tactical domains. The aspiration for a high-tech “Armata” army has been shelved in favor of a mass-produced “T-90M and refurbished T-72” army. The result is not the modernized force envisioned in 2020, but a hybrid entity: larger, cruder, and heavily reliant on mass fires and attrition, yet increasingly lethal in its integration of cheap, expendable technologies like First-Person View (FPV) drones and glide bombs.

The analysis dissects this transformation across five key domains: Ground Forces and Armor, Aerospace and Missile Forces, Naval Operations, the Defense Industrial Base (DIB), and Strategic Weapons. It concludes that while Russia has successfully transitioned to a “military Keynesian” economy to sustain a long war, the structural degradation of its scientific-technical base, the severance from global high-tech supply chains, and the loss of human capital will severely constrain its ability to compete with NATO technologically in the post-2030 timeframe. Russia is trading its future modernization potential for immediate battlefield survivability, creating a force that is dangerous in its mass and resilience but increasingly obsolete in its underlying architecture.

1. The Pre-War Baseline: The “New Look” and the Promise of GPV-2027

To understand the magnitude of the shift caused by the war in Ukraine, one must first establish the baseline of Russia’s pre-war military trajectory. Following the perceived underperformance of the Russian Armed Forces during the 2008 Russo-Georgian War, the Kremlin initiated a sweeping series of reforms known as the “New Look.” Spearheaded by then-Defense Minister Anatoly Serdyukov and continued by his successor Sergei Shoigu, these reforms aimed to dismantle the skeletonized Soviet mobilization model—which relied on millions of reservists and vast stockpiles of equipment—and replace it with “permanent readiness units” staffed by professional contract soldiers (kontraktniki).1

1.1. The Ambitions of the State Armament Programmes

The financial engine of this modernization was the State Armament Programme (GPV). The GPV-2020, allocated 19.4 trillion rubles, succeeded in stabilizing the defense industry and updating the nuclear triad, but struggled to deliver next-generation conventional platforms.1 Its successor, GPV-2027 (2018–2027), was designed to be the “smart” phase of modernization. With a budget of approximately 20 trillion rubles ($330 billion), it prioritized precision-guided munitions (PGMs), autonomous systems, and the serial production of “breakthrough” platforms like the T-14 Armata tank and the Su-57 fighter.1

The strategic logic was clear: Russia acknowledged it could not match NATO in sheer expenditure or naval tonnage, so it sought asymmetric parity through superior missile technology (hypersonics), advanced air defense (A2/AD bubbles), and a highly mobile, networked ground force capable of winning short, decisive regional conflicts.

1.2. The Reality Check of 2022

The invasion of Ukraine exposed the hollowness of many of these assumptions. The “New Look” force, organized into Battalion Tactical Groups (BTGs), proved brittle in high-intensity combat. The reliance on sophisticated but few platforms (the “boutique army” concept) left Russia without the strategic depth to absorb losses. By 2025, the GPV-2027 goals have been largely rendered obsolete by the voracious demands of attrition warfare. The Kremlin has been forced to pivot from a modernization strategy based on quality to a survival strategy based on quantity and substitution.1

2. Ground Forces and Armor: The Death of the “Parade Army”

The Russian Ground Forces were the primary intended beneficiaries of the pre-war modernization drive. The vision was a force equipped with the Armata universal combat platform, a revolutionary family of vehicles sharing a common chassis, networked for data-centric warfare. The war has shattered this vision, replacing it with a grim industrial pragmatism.

2.1. The Failure of Next-Generation Platforms

By 2025, the T-14 Armata Main Battle Tank (MBT) remains virtually absent from the operational theater. Despite Rostec CEO Sergei Chemezov confirming the delivery of serially produced T-14s to the Ground Forces, he explicitly cast doubt on their deployment to Ukraine, citing their “exorbitant cost” and the need for funds to create cheaper, more disposable weapons.4

This admission is devastating for the narrative of Russian technological superiority. The T-14 was marketed as the world’s first “fourth-generation” tank, featuring an unmanned turret and an armored crew capsule. Its absence suggests two critical failures:

  1. Technological Maturity: The system likely suffers from unresolved reliability issues, particularly in its fire control and engine systems, which would be catastrophic in the mud and chaos of the Donbas.
  2. Risk Aversion: The Kremlin fears the reputational damage of a T-14 being destroyed or, worse, captured by Ukrainian forces and examined by Western intelligence.4

Consequently, the “modernization” of the tank fleet has shifted from innovation (fielding new chassis) to restoration (upgrading legacy hulls). The T-14 has effectively been relegated to the status of a “parade tank,” while the workhorse duties fall to older designs.

2.2. The T-90M “Proryv” and the Pivot to Mass

In the vacuum left by the T-14, the T-90M “Proryv” has emerged as the apex of Russian armored capability. Analysis of production rates indicates a significant, albeit insufficient, industrial surge. In 2022, Uralvagonzavod produced an estimated 60–70 T-90Ms. By 2024, utilizing 24-hour production cycles and expanded facilities, this figure had risen to approximately 280–300 units annually.6

This scaling represents a genuine industrial success for the Russian command economy. The T-90M is a formidable platform, featuring the Relikt explosive reactive armor (ERA), the 2A46M-5 gun, and improved thermal imaging. However, this “modernization” is relative. The T-90M is ultimately an evolution of the Soviet T-72 design, retaining the legacy autoloader and crew layout.

Furthermore, the attrition rates in Ukraine are staggering. Russia has lost over 3,000 tanks since February 2022, a number that exceeds its entire active pre-war fleet.7 While current production levels of T-90Ms and refurbished T-72B3s are sufficient to maintain fleet numbers for several more years 9, the quality of the fleet is bifurcating.

  • The Elite Tier: A small percentage of units (VDV, Naval Infantry, Guards Tank Armies) are equipped with factory-fresh T-90Ms.
  • The Mass Tier: The vast majority of mobilized units and assault detachments are equipped with older T-72s, T-62Ms, and even T-54/55s pulled from deep storage and minimally upgraded with thermal sights and “cope cages”.10

This dynamic signifies a technological regression. The average age of a tank in the Russian army in 2025 is significantly higher than it was in 2021. The reliance on refurbishment means that this “modernization” is cannibalistic; it depends on a finite stock of Soviet-era hulls that analysts estimate will be exhausted by 2026-2027.8

2.3. Degradation of Fighting Vehicles and Artillery

The situation is even more acute with Infantry Fighting Vehicles (IFVs) and artillery. The pre-war plan was to transition to the Kurganets-25 and Boomerang platforms. These programs, like the Armata, have stalled. Instead, the industry has struggled to produce even the late-Soviet BMP-3 and BMD-4 at rates that match battlefield losses.10

This production bottleneck has led to the widespread “de-modernization” of mechanized infantry. Units are increasingly deploying in BMP-1s (introduced in 1966) and MT-LBs (originally artillery tractors). The modernization efforts for these vehicles are purely functional improvisations—welding naval anti-aircraft guns (2M-3) or crude anti-drone screens onto the chassis.10 This represents a return to a mid-Cold War technological standard.

In the artillery domain—the “God of War” in Russian doctrine—the shift is from precision to volume. The loss of modern self-propelled guns (SPGs) like the 2S19 Msta-S has forced a reliance on towed artillery and older systems pulled from storage. However, the true accelerator in this domain is the integration of the kill chain. While the guns are getting older (and barrel wear is becoming a critical issue), the targeting cycle is becoming faster and more networked. The ubiquitous presence of commercial drones (Mavic 3) and military reconnaissance UAVs (Orlan-10/30) has shortened the time from target acquisition to fire mission from minutes to seconds.11 This paradox—older tubes, newer eyes—defines the current state of Russian fire support.

2.4. Tactical Evolution: The Rise of the “Storm” Detachment

The structural modernization of the Russian army has also been radically altered. The pre-war BTG structure, designed for maneuver warfare, proved too fragile. In its place, Russia has adopted the “assault detachment” (Storm-Z, Storm-V) structure.10 These are smaller, infantry-centric units designed for grinding urban combat and trench assaults. This is not the high-tech, network-centric warfare envisioned in 2020; it is a regression to World War I stormtrooper tactics, albeit enabled by drone reconnaissance. While this represents a setback in operational art, it is an effective adaptation to the reality of positional warfare against a deeply entrenched enemy.

3. Aerospace Forces: The Gap Between Stealth and Reality

The Russian Aerospace Forces (VKS) entered the war with a reputation as a near-peer competitor to the U.S. Air Force, bolstered by a decade of modernization and combat experience in Syria. The war in Ukraine has severely damaged this prestige, revealing critical limitations in training, doctrine, and the availability of precision-guided munitions (PGMs).

3.1. The Su-57 “Felon”: A No-Show in Contested Airspace

The Su-57 “Felon,” Russia’s fifth-generation stealth fighter, serves as a microcosm of the broader modernization failure. While Russian officials, including Rostec CEO Sergei Chemezov, claim the aircraft has “completed combat operations” and is being upgraded based on lessons learned 12, there is no verifiable evidence of it operating inside contested Ukrainian airspace. Instead, it appears to be used exclusively as a standoff launch platform from deep within Russian territory, firing long-range missiles like the R-37M or Kh-69.12

This cautious employment suggests a lack of confidence in the aircraft’s stealth characteristics or survivability against Western-supplied air defense systems (Patriot, NASAMS, IRIS-T). Furthermore, the reported damage to a Su-57 on the ground at Akhtubinsk airbase by a Ukrainian drone 15 underscores a humiliating infrastructure failure: Russia’s most advanced assets are safer in the air than they are on the ground, due to a failure to build hardened aircraft shelters (HAS)—a basic requirement that has been neglected in favor of procuring flashy platforms. The inability to protect the Su-57 fleet on the ground creates a strategic vulnerability that negates its theoretical airborne capabilities.

3.2. The “Glide Bomb” Adaptation: Technology of Necessity

If the Su-57 represents a modernization setback, the wide-scale adoption of UMPK (Unified Module for Planning and Correction) glide bombs represents a successful, albeit crude, adaptation.11 Realizing that its stock of expensive cruise missiles (Kalibr, Kh-101) was finite and that its aircraft could not safely operate over Ukraine due to dense air defenses, the VKS retrofitted “dumb” gravity bombs (FAB-500, FAB-1500, and even the massive FAB-3000) with cheap pop-out wing kits and GPS/GLONASS guidance.

This innovation has allowed the VKS to leverage its massive Soviet-era bomb stockpiles to deliver devastating strikes from stand-off ranges (50-70km), staying just outside the reach of most Ukrainian medium-range air defenses. This is an accelerator of capability, but one born of technological regression. It substitutes the precision of a purpose-built missile with the brute force of a heavy bomb, accepting lower accuracy for higher volume and significantly lower cost. It has fundamentally altered the frontline dynamics, allowing Russian tactical aviation to provide close air support without entering the engagement envelope of MANPADS.

3.3. Pilot Attrition and Training Degradation

A critical, often overlooked aspect of military modernization is human capital. The VKS has lost a significant number of experienced pilots, including senior officers who were forced to fly combat sorties due to a lack of qualified juniors.16 The training pipeline has been compressed to fill these gaps, leading to a long-term degradation in pilot quality.

The “modernization” of pilot training is now focused on the immediate needs of the “Special Military Operation” (SMO)—low-level flying, unguided rocket attacks, and glide bomb releases—rather than complex, large-force employment exercises (COMAO) required for peer conflict with NATO. This creates a generation of pilots who are combat-experienced but tactically limited. They are experts in the specific, constrained environment of the Ukraine war but are arguably less prepared for a multi-domain fight against a technologically superior air force.

4. The Unmanned Revolution: An Accelerator of Innovation

If traditional domains have seen regression, the field of unmanned systems has witnessed explosive acceleration. The war in Ukraine is widely recognized as the world’s first “drone war” 17, and Russia, after an initial lag where it relied on expensive and scarce Orlan-10s, has aggressively adapted its industrial and tactical approach.

4.1. Industrialization of the “Shahed”: The Alabuga Complex

The establishment and expansion of the drone production facility in the Alabuga Special Economic Zone (Tatarstan) represents the most significant industrial achievement of the war. Originally assembling Iranian-supplied Shahed-136 (Geran-2) kits, Alabuga has transitioned to full-cycle domestic production. Satellite imagery and intelligence reports indicate plans to produce 6,000 units annually by 2025, a goal that appears to be ahead of schedule.18

This facility is a symbol of a new “Authoritarian Tech Stack,” where Russia integrates technologies and labor from its few remaining allies.

  • Iran: Provided the base design (Shahed-136) and initial tooling.
  • China: Supplies the microelectronics, carburetors, and CNC machine tools required for mass production.20
  • North Korea: Intelligence reports suggest the planned deployment of North Korean labor to Alabuga to resolve chronic workforce shortages.22

This international collaboration has allowed Russia to bypass Western sanctions and achieve a scale of production for long-range strike assets that NATO countries are currently struggling to match.

4.2. FPV Drones and the “Sudoplatov” Model

At the tactical level, Russia has institutionalized the use of First-Person View (FPV) drones. The “Sudoplatov” volunteer battalion, which established a drone training and production school, exemplifies a shift from centralized, top-down procurement to decentralized, grassroots innovation.24 While initial iterations were criticized for poor quality and vulnerability to EW, the sheer volume of production—claimed to be thousands per day—has created a ubiquitous threat on the battlefield.25

This shift has forced a modernization of doctrine. The Russian military is creating specialized drone operators and units at the platoon level, a structural change that was not present in the 2021 order of battle. The “Rubicon” center for advanced drone technologies represents an attempt to centralize and standardize these grassroots innovations, integrating artificial intelligence for terminal guidance to overcome Ukrainian electronic warfare.11 This is a clear case of the war acting as an accelerator; without the conflict, the Russian military bureaucracy would likely have taken a decade to integrate FPV technology to this extent.

4.3. Electronic Warfare: The Invisible Modernization

Russia’s Electronic Warfare (EW) capabilities have also accelerated. Systems like the Pole-21 and Zhitel have been deployed in unprecedented density, creating “dead zones” for GPS-guided munitions and drones. The adaptation here is the shift from protecting high-value strategic assets to providing blanket coverage for trench lines. This constant cat-and-mouse game with Ukrainian drone operators has honed Russian EW operators into arguably the most combat-experienced in the world 27, a capability that poses a significant threat to NATO’s reliance on precision, networked warfare.

5. Naval Forces: A Tale of Two Fleets

The war has bifurcated the Russian Navy into two distinct realities: the beleaguered Black Sea Fleet, which has faced a modernization crisis, and the protected strategic submarine force, which continues to modernize largely largely unimpeded.

5.1. The Black Sea Fleet: A Strategic Defeat and Doctrinal Crisis

The Black Sea Fleet has suffered catastrophic losses, including its flagship, the Moskva, and roughly one-third of its combat power.28 Ukraine’s innovative use of Unmanned Surface Vessels (USVs) and coastal defense cruise missiles (Neptune, Harpoon) has forced the fleet to abandon its headquarters in Sevastopol and retreat to Novorossiysk.28

This defeat has forced a radical rethink of naval doctrine. The large surface combatants that were the pride of the fleet proved defenseless against cheap, asymmetric threats. The pre-war plans for large destroyers and carriers (Project 23000E Shtorm) now appear fantastical. The future of the Russian surface navy likely lies in smaller, corvette-sized vessels (Project 22800 Karakurt) equipped with long-range Kalibr or Zircon missiles, operating from the relative safety of coastal waters.30 The concept of “sea control” has been replaced by “sea denial” and fleet preservation.

5.2. The Submarine Force: Uninterrupted Modernization

Conversely, the submarine force—the cornerstone of Russia’s strategic deterrent—has continued its modernization largely unimpeded. The construction of Borei-A class ballistic missile submarines (SSBNs) and Yasen-M class cruise missile submarines (SSGNs) continues at the Sevmash shipyards.30

The Yasen-M class, in particular, remains a potent threat to NATO, capable of launching the hypersonic Zircon missile.30 The divergence between the surface and subsurface fleets highlights a strategic prioritization: the Kremlin is willing to sacrifice “gunboat diplomacy” capabilities (surface ships) to preserve its “doomsday” capabilities (nuclear submarines). The war has effectively ended Russia’s ambition to be a blue-water surface naval power in the near term, focusing its resources instead on the undersea domain where it still holds a technological edge.

6. The Defense Industrial Base: The Shift to “Military Keynesianism”

The economic management of the war has been defined by the appointment of Andrey Belousov as Minister of Defense in May 2024, replacing Sergei Shoigu.32 Belousov, a technocratic economist, was brought in to optimize the defense budget and integrate the military needs with the broader economy—a strategy termed “Military Keynesianism”.33

6.1. Spending vs. Sustainability

Russia’s defense spending has skyrocketed to over 6% of GDP in 2025.3 This massive injection of state liquidity has stimulated GDP growth, but it has also created an overheating economy characterized by high inflation and acute labor shortages. The defense sector currently lacks an estimated 160,000 to 400,000 workers.34 To attract labor, defense plants offer inflated salaries, which cannibalizes the civilian sector and drives up wages nationwide, fueling a wage-price spiral that threatens long-term economic stability.33

6.2. The “China Pivot” and Technological Dependency

Perhaps the most critical structural change in the DIB is the shift from Western to Chinese industrial equipment. Prior to the war, Russia relied heavily on German, Japanese, and Italian precision machine tools for its defense industry. With Western sanctions blocking access to these goods, Russia has turned to China.

Analysis of trade data reveals a seismic shift in the provenance of Russia’s industrial machinery. In 2023-2024, Russia imported over $4 billion worth of CNC machines, with China accounting for the vast majority. Data from the Economic Security Council of Ukraine indicates that between January 2023 and July 2024, Chinese entities accounted for over 60% of CNC imports, effectively filling the void left by Western firms.20

While this has saved the Russian DIB from collapse, it creates a long-term vulnerability. Chinese machine tools are generally considered to be of lower precision and durability than their Western counterparts.20 Furthermore, this creates a total technological dependency on Beijing. Russia is no longer sovereign in its defense production; it is a downstream client of the Chinese industrial base. This dependency will likely constrain Russia’s ability to innovate independently in the coming decades.

7. Strategic Forces and Future Outlook: The Army of 2030

What will the Russian military look like after the war? The consensus among experts is that Russia will not return to the status quo ante. The “New Look” is dead; the “Future Look” is being forged in the Donbas.

7.1. Strategic Weapons: Between Bluster and Failure

Russia’s nuclear modernization has always been the “crown jewel” of its military strategy. However, the war has exposed cracks even here. The RS-28 Sarmat heavy ICBM, intended to replace the Soviet-era Voevoda (Satan), has suffered a series of humiliating failures. A test in September 2024 reportedly resulted in a catastrophic explosion that destroyed the launch silo at Plesetsk Cosmodrome, leaving a massive crater visible from space.38 This failure suggests deep systemic issues in the quality control and engineering sectors of the strategic rocket forces, likely exacerbated by the pressure to deliver results for political signaling.

Conversely, the Kremlin continues to double down on “exotic” nuclear-powered weapons like the Burevestnik cruise missile and Poseidon torpedo. In late 2025, President Putin announced successful tests of the Burevestnik.40 While these weapons are touted as “invincible,” their strategic utility is questionable, and their development consumes immense resources that could be used for conventional modernization. They serve primarily as tools of “nuclear blackmail” rather than practical military instruments.

7.2. The Innovation Trap

The most profound impact of the war is the creation of an “Innovation Trap.” By focusing all resources on immediate battlefield needs—mass-producing FPV drones, refurbishing T-72s, and casting iron bombs—Russia is starving its R&D sector of the resources needed for long-term breakthroughs.

The “brain drain” of young engineers and IT specialists, many of whom fled mobilization, further exacerbates this.34 Russia is adapting fast to the current war, but it is not innovating in the deep, structural sense required to compete with the US and China in the mid-21st century fields of AI, quantum computing, and next-gen stealth.42

Conclusion

Is the war in Ukraine a setback or an accelerator for Russia’s military modernization? The answer is a nuanced both, but the weight falls heavily on the side of strategic setback masked by tactical acceleration.

The war has accelerated:

  • The integration of unmanned systems into every echelon of command.
  • The industrial capacity to mass-produce “good enough” munitions and legacy platforms.
  • The adaptation of electronic warfare and counter-drone tactics.
  • The militarization of the economy and society.

The war has been a setback for:

  • The development and fielding of next-generation platforms (Armata, Su-57, future naval combatants).
  • The professionalization of the officer corps and the quality of human capital.
  • The technological sovereignty of the defense industry (now dependent on China).
  • The ability to project power globally, beyond Russia’s immediate periphery.

Ultimately, Russia is trading its future potential for present survivability. It is building a military that is dangerous, resilient, and capable of grinding out a victory in a regional war of attrition, but one that is increasingly ill-suited for a high-tech, global conflict against NATO. The “Modern Russian Army” envisioned in the 2010s died in the fields of Ukraine; in its place, a grimmer, cruder, but battle-hardened Leviathan is rising.


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Sources Used

  1. Russia’s GPV-2027 State Arms Programme, accessed December 18, 2025, https://ridl.io/russias-gpv-2027-state-arms-programme/
  2. Russia’s State Armament Programme 2027: a more measured course on procurement, accessed December 18, 2025, https://www.iiss.org/online-analysis/military-balance/2018/02/russia-2027/
  3. Russia’s struggle to modernize its military industry – Chatham House, accessed December 18, 2025, https://www.chathamhouse.org/sites/default/files/2025-07/2025-07-21-russia-struggle-modernize-military-industry-boulegue.pdf
  4. Chemezov Casts Doubt on T-14 Armata Deployment in Ukraine – Defense Security Monitor, accessed December 18, 2025, https://dsm.forecastinternational.com/2024/03/04/chemezov-casts-doubt-on-t-14-armata-deployment-in-ukraine/
  5. Ukrainian intelligence unveils details on Russian Armata tank production – Defence Blog, accessed December 18, 2025, https://defence-blog.com/ukrainian-intelligence-unveils-details-on-russian-armata-tank-production/
  6. Russia ramps up T-90M tank production – Defence Blog, accessed December 18, 2025, https://defence-blog.com/russia-ramps-up-t-90m-tank-production/
  7. The Russia-Ukraine War Report Card, Dec. 10, 2025, accessed December 18, 2025, https://www.russiamatters.org/news/russia-ukraine-war-report-card/russia-ukraine-war-report-card-dec-10-2025
  8. russia’s T-90M and T-90M2 Tank Ambitions: Modernization, Overhauls, and Production Peaks Revealed | Defense Express, accessed December 18, 2025, https://en.defence-ua.com/industries/russias_t_90m_and_t_90m2_tank_ambitions_modernization_overhauls_and_production_peaks_revealed-16123.html
  9. How Many Т-90M Tanks does Russia Produce? CIT Research, accessed December 18, 2025, https://notes.citeam.org/eng_t90
  10. Historical Armor Losses: Shifting Tactics and Strategic Paralysis | Article – U.S. Army, accessed December 18, 2025, https://www.army.mil/article/289399/historical_armor_losses_shifting_tactics_and_strategic_paralysis
  11. Seven Contemporary Insights on the State of the Ukraine War – CSIS, accessed December 18, 2025, https://www.csis.org/analysis/seven-contemporary-insights-state-ukraine-war
  12. Russia’s Su-57 Felon Stealth Fighter Is ‘In Action’ in Ukraine War – National Security Journal, accessed December 18, 2025, https://nationalsecurityjournal.org/russias-su-57-felon-stealth-fighter-is-in-action-in-ukraine-war/
  13. Su-57 With New Upgrade Options, Russia Claims First Foreign Delivery Has Already Occurred – The War Zone, accessed December 18, 2025, https://www.twz.com/air/su-57-with-new-upgrade-options-russia-claims-first-foreign-delivery-has-already-occurred
  14. Sukhoi Su-57 – Wikipedia, accessed December 18, 2025, https://en.wikipedia.org/wiki/Sukhoi_Su-57
  15. Damaged Su-57 Emphasises the Vulnerability of Russian Airbases Near Ukraine – RUSI, accessed December 18, 2025, https://www.rusi.org/explore-our-research/publications/commentary/damaged-su-57-emphasises-vulnerability-russian-airbases-near-ukraine
  16. Meeting Expectations: Failure in Ukraine Will Not Change the Russian Aerospace Defense Force, accessed December 18, 2025, https://www.armyupress.army.mil/Portals/7/military-review/Archives/English/January-February-2025/Meeting-Expectations/Meeting-Expectations-UA.pdf
  17. Russia has learned from Ukraine and is now winning the drone war – Atlantic Council, accessed December 18, 2025, https://www.atlanticcouncil.org/blogs/ukrainealert/russia-has-learned-from-ukraine-and-is-now-winning-the-drone-war/
  18. Imagery Update: New Construction Identified at the Alabuga Shahed 136 Production Facilities | ISIS Reports | Institute For Science And International Security, accessed December 18, 2025, https://isis-online.org/isis-reports/imagery-update-new-construction-identified-at-the-alabuga-shahed-136
  19. Russia doubles down on the Shahed – The International Institute for Strategic Studies, accessed December 18, 2025, https://www.iiss.org/online-analysis/military-balance/2025/04/russia-doubles-down-on-the-shahed/
  20. Made in China 2025: Evaluating China’s Performance, accessed December 18, 2025, https://www.uscc.gov/research/made-china-2025-evaluating-chinas-performance
  21. China-Russia Defense Cooperation Showcases Rising Axis of Aggressors – FDD, accessed December 18, 2025, https://www.fdd.org/analysis/policy_briefs/2025/06/10/china-russia-defense-cooperation-showcases-rising-axis-of-aggressors/
  22. Adversary Entente Cooperation at Russia’s Shahed Factory Threatens Global Security, accessed December 18, 2025, https://understandingwar.org/research/adversary-entente/adversary-entente-cooperation-at-russias-shahed-factory-threatens-global-security/
  23. Alabuga: The Latest Destination for North Korea’s Drone Ambitions, accessed December 18, 2025, https://www.38north.org/2025/12/alabuga-the-latest-destination-for-north-koreas-drone-ambitions/
  24. School for FPV drone operators – from manufacturing to combat use – RuAviation, accessed December 18, 2025, https://ruavia.su/school-for-fpv-drone-operators-from-manufacturing-to-combat-use/
  25. Head to Head: Ukraine and Russia’s National UAS Programs – Inside Unmanned Systems, accessed December 18, 2025, https://insideunmannedsystems.com/head-to-head-ukraine-and-russias-national-uas-programs/
  26. Russia’s Ministry of Defense is recruiting college students to join the army as drone operators – The Insider, accessed December 18, 2025, https://theins.ru/en/news/287699
  27. Lessons from the Ukraine Conflict: Modern Warfare in the Age of Autonomy, Information, and Resilience – CSIS, accessed December 18, 2025, https://www.csis.org/analysis/lessons-ukraine-conflict-modern-warfare-age-autonomy-information-and-resilience
  28. Russia’s Black Sea Failures Are Lessons for the South China Sea – U.S. Naval Institute, accessed December 18, 2025, https://www.usni.org/magazines/proceedings/2025/september/russias-black-sea-failures-are-lessons-south-china-sea
  29. Russia’s Black Sea defeats get flushed down Vladimir Putin’s memory hole, accessed December 18, 2025, https://www.atlanticcouncil.org/blogs/ukrainealert/russias-black-sea-defeats-get-flushed-down-vladimir-putins-memory-hole/
  30. The Russian Navy’s Big Comeback Is Moving at ‘Mach 9 Speed’ – National Security Journal, accessed December 18, 2025, https://nationalsecurityjournal.org/the-russian-navys-big-comeback-is-moving-at-mach-9-speed/
  31. Russian Navy Expands with 22 New Vessels in 2025 – Caspianpost.com, accessed December 18, 2025, https://caspianpost.com/regions/russian-navy-expands-with-22-new-vessels-in-2025
  32. The Defense Industrial Implications of Putin’s Appointment of Andrey Belousov as Minister of Defense – CSIS, accessed December 18, 2025, https://www.csis.org/analysis/defense-industrial-implications-putins-appointment-andrey-belousov-minister-defense
  33. The Russian Wartime Economy, accessed December 18, 2025, https://csis-website-prod.s3.amazonaws.com/s3fs-public/2025-06/250605_Snegovaya_Wartime_Economy.pdf
  34. Russia’s struggle to modernize its military industry – Chatham House, accessed December 18, 2025, https://www.chathamhouse.org/2025/07/russias-struggle-modernize-its-military-industry/identifying-weaknesses-russias-military
  35. Russia’s Year of Truth: The Runaway Military Budget – CEPA, accessed December 18, 2025, https://cepa.org/article/russias-year-of-truth-the-runaway-military-budget/
  36. Russian Defense Sector Increasingly Having Trouble Attracting Workers – Russia.Post, accessed December 18, 2025, https://russiapost.info/economy/defense_sector
  37. Russia imported over 22,000 foreign-made CNC machines & components in 2023-2024 despite intl. sanctions, new investigation shows – Business and Human Rights Centre, accessed December 18, 2025, https://www.business-humanrights.org/en/latest-news/russia-imported-over-22000-foreign-made-cnc-machines-components-in-2023-2024-despite-intl-sanctions-new-investigation-shows/
  38. Russia’s new Sarmat missile suffered ‘catastrophic failure’: Researchers – Al Jazeera, accessed December 18, 2025, https://www.aljazeera.com/news/2024/9/24/russias-new-sarmat-missile-suffered-catastrophic-failure-researchers
  39. Prestigious Sarmat missile exploded in failed test – The Barents Observer, accessed December 18, 2025, https://www.thebarentsobserver.com/security/prestigious-sarmat-missile-exploded-in-failed-test/166522
  40. Russia Tests Nuclear-Powered Cruise Missile, Torpedo – Arms Control Association, accessed December 18, 2025, https://www.armscontrol.org/act/2025-11/news-briefs/russia-tests-nuclear-powered-cruise-missile-torpedo
  41. Putin says Russia has begun development of new nuclear-powered cruise missiles, accessed December 18, 2025, https://www.aa.com.tr/en/world/putin-says-russia-has-begun-development-of-new-nuclear-powered-cruise-missiles/3735293
  42. Russia and the Technological Race in an Era of Great Power Competition – CSIS, accessed December 18, 2025, https://www.csis.org/analysis/russia-and-technological-race-era-great-power-competition

How Chinese Optics Are Transforming Russian Warfare

The Russo-Ukrainian War (2022-2025) has served as a crucible for modern high-intensity warfare, exposing severe structural deficiencies within the Russian defense industrial base (DIB), particularly in the domain of optoelectronics. Historically, the Soviet and subsequent Russian military doctrines relied on domestic production centers—such as the Shvabe Holding conglomerate—to supply thermal imaging, night vision, and advanced targeting systems. However, as the war of attrition extended into 2024 and 2025, a critical shift occurred. Russian domestic production crumbled under the twin pressures of sanctions-induced component starvation and the sheer scale of battlefield losses. Into this vacuum stepped the People’s Republic of China (PRC).

This report, compiled from an engineering and industry analyst perspective, definitively confirms that Chinese optics companies have become the primary technological sustainment mechanism for Russian infantry and mechanized units. The data indicates a systematic, large-scale integration of Chinese commercial-off-the-shelf (COTS) and dual-use thermal, reflex, and fiber-optic guidance systems into the Russian kill chain.

The analysis confirms the following critical developments:

  1. Dominance of Specific Manufacturers: Yantai iRay Technology (InfiRay), Wuhan Guide Sensmart, and Hangzhou Hikmicro Sensing Technology have effectively monopolized the Russian market for uncooled thermal sights, displacing both Western imports (FLIR, Pulsar) and Russian domestic alternatives.
  2. Direct Military Application of “Civilian” Tech: Chinese “hunting” scopes are being deployed at the highest tiers of Russian Special Operations Forces (Spetsnaz), validating their ruggedness and performance as military-grade despite civilian marketing.
  3. Emergence of Fiber-Optic Guidance: A joint effort involving entities like PGI Technology (ASFPV LLC) has introduced Kevlar-reinforced fiber-optic control systems for drones, neutralizing Western electronic warfare (EW) advantages.
  4. Supply Chain Evasion: Through a complex web of intermediaries in Central Asia and direct “hunting store” retailers like Navigator Tut.ru, Chinese entities have circumvented Western export controls, delivering tens of thousands of units to the front lines.

The consensus among engineering assessments and battlefield feedback is that Chinese optics, particularly thermal imaging cores, have reached a parity point with Western equivalents in terms of sensor sensitivity (NETD) and resolution, often exceeding Russian domestic capabilities in reliability and power management.


2. Strategic Context: The Collapse of Russian Domestic Optronics

To understand the influx of Chinese optics, one must first analyze the failure of the indigenous Russian industry. The Shvabe Holding conglomerate, a subsidiary of Rostec, is the nominal heart of Russian optical manufacturing. It encompasses facilities like the Urals Optical and Mechanical Plant and the Zagorsk Optical-Mechanical Plant.

2.1 The “Hollow Force” of Russian Manufacturing

Prior to 2022, high-end Russian thermal sights (such as the Irbis or Shahin series) were heavily dependent on French uncooled microbolometers sourced from Lynred (formerly Sofradir/ULIS) and Thales.1 When EU sanctions severed this link, Russian manufacturers attempted to pivot to domestic matrices. However, leak analyses from the 256 Cyber Assault Division indicate that Shvabe struggles with yield rates and sensor uniformity.1

The inability of Russian industry to scale production of 12-micron pixel pitch sensors—the current standard for high-performance, compact thermal sights—created a capability gap. Russian units, particularly mobilized reservists and volunteer battalions, were often deployed with iron sights or obsolete Soviet-era night vision (1PN58/1PN93) that required active IR illumination, making them visible to enemy sensors.

2.2 The Chinese Substitution Strategy

China’s optronics industry, led by companies in Wuhan (the “Optics Valley” of China) and Yantai, had spent the decade prior to 2022 aggressively capturing the global commercial market. By subsidizing R&D into vanadium oxide (VOx) uncooled microbolometers, Chinese firms achieved economies of scale that Western defense contractors could not match in the civilian sector.

When Russia’s need became existential, Chinese firms were positioned to supply “dual-use” items. These products are legally designated for hunting, outdoor exploration, or industrial inspection, yet they possess frame rates (50Hz) and resolutions (640×512 or higher) that meet or exceed military specifications (MIL-SPEC).2


3. Key Chinese Entities and Product Analysis

The following section provides a detailed corporate and technical profile of the primary Chinese entities identified as suppliers to the Russian military.

3.1 Yantai iRay Technology Co., Ltd. (InfiRay)

Corporate Status: Sanctioned by the US Treasury (SDN List) for supplying Tier 3 and Tier 4 items on the BIS Common High Priority List.3

Primary Imports: Telescopic thermal sights, thermal imaging matrices, handheld monoculars.

3.1.1 Engineering Analysis of iRay Cores

iRay has achieved significant market penetration due to the modularity of its thermal cores. Teardowns of captured equipment in Ukraine reveal that iRay modules, such as the Micro III and Matrix III series, are being used not just in iRay branded products but are likely being integrated into “Russian-made” chassis to mask their origin.5

  • Sensor Technology: iRay utilizes VOx detectors with a pixel pitch of 12µm. This is a critical engineering metric; a smaller pixel pitch allows for a smaller germanium objective lens to achieve the same magnification and detection range, reducing the overall weight and cost of the unit.
  • Sensitivity (NETD): iRay claims Noise Equivalent Temperature Difference (NETD) values of <25mK. In the low-contrast, high-humidity winter conditions of Eastern Ukraine (the “rasputitsa” mud season), low NETD is essential for distinguishing a camouflaged soldier from the cold background. Battlefield reports confirm these sensors perform reliably where older uncooled sensors wash out.6

3.1.2 Flagship Models in Combat

  • Holo Series (HL13, HL25): These are thermal reflex sights. Unlike a standard red dot, the Holo overlays a thermal image onto a heads-up display (HUD).
  • Tactical Utility: Used for close-quarters battle (CQB) in smoke or total darkness. The HL25, with a larger objective, has been identified in use by Russian special forces.8
  • Rico and Geni Series: These are dedicated thermal weapon sights. The Rico RH50 features a 640×512 sensor and a high shock resistance rating (up to 1000g), making it suitable for the recoil impulse of the PKM machine gun (7.62x54R) and even.338 Lapua sniper platforms.9
  • Jerry-C Clip-On: A miniature thermal imager that clips onto standard analog night vision goggles (NVG), creating a “fusion” image. This allows Russian operators to navigate using analog night vision while thermally highlighting heat signatures.

3.2 Wuhan Guide Sensmart Tech Co., Ltd. (Guide Infrared)

Corporate Status: Sanctioned. A subsidiary of Guide Infrared, a massive state-linked entity.

Market Position: Competes directly with iRay but focuses heavily on the “tube-style” thermal scope form factor.

3.2.1 The TU Series (TU420, TU430, TU450)

The Guide TU series is ubiquitous on the Russian front line because it mimics the form factor of a traditional 30mm glass dayscope.10

  • Mounting Architecture: Because it uses standard 30mm rings, it can be mounted on almost any Russian small arm (AK-12, SV-98) without specialized proprietary mounts. This logistical simplicity is a major advantage for irregular Russian units (Wagner, Storm-Z).
  • Power System: The TU series utilizes a dual-battery system (internal + replaceable 18650). This allows for “hot-swapping” batteries without powering down the device—a critical feature during extended overwatch missions in freezing temperatures where battery voltage sag is common.11

3.2.2 Battlefield Consensus

Russian user reviews and telegram discussions indicate that while Guide sensors are sometimes perceived as having slightly lower raw image contrast than iRay, their build quality and “traditional” ergonomics make them a favorite for snipers transitioning from glass optics. The software algorithms for image smoothing are robust, aiding in target identification at ranges exceeding 800 meters.12

3.3 Hangzhou Hikmicro Sensing Technology (Hikmicro)

Corporate Status: A subsidiary of Hikvision, the surveillance giant. Heavily involved in supplying dual-use optics.

Primary Models: Thunder and Panther series.

3.3.1 The Panther PQ50L and Zero Retention Issues

The Panther PQ50L is a high-end thermal scope with an integrated Laser Rangefinder (LRF). The LRF is a force multiplier, as judging distance through a thermal screen is notoriously difficult due to the lack of depth perception.6

  • Ballistic Calculation: The unit can interface with ballistic apps, allowing the shooter to adjust the reticle for bullet drop automatically.
  • Zero Shift Controversy: There is a persistent thread of technical complaints regarding zero retention on Hikmicro units. Some users report that the digital zero shifts after repeated firing of heavy calibers, or that the mounting clamp (Picatinny interface) is out of spec.13
  • Engineer’s Assessment: This is likely a mechanical tolerance issue in the Quick Detach (QD) mount rather than a sensor movement. However, Hikmicro has released firmware updates (v5.5.38) specifically to address “zeroing profiles,” suggesting a software compensation fix was attempted.14 Despite these reports, the “bang for the buck” makes them prevalent.

3.4 Wuhan Tongsheng Technology Co., Ltd.

Corporate Status: Sanctioned by US Treasury 15 and UK.16

Role: Unlike the consumer-facing brands above, Tongsheng appears to operate more obscurely, supplying modules, components, and “high-priority technology” directly to Russian defense entities.

  • Activities: Tongsheng representatives attended a state security technology exposition in Moscow in October 2023, hosted by the Russian Ministry of Defense.15 This direct engagement with the MoD contradicts any claim of “purely civilian” commerce.
  • Shareholder Structure: Corporate registry documents identify Zhu Jiang (Director) and Dr. Zhang (major shareholder via employee incentive platforms) as key figures.17 The company has shown rapid capital increases, correlating with the timeline of increased Russian exports.

4. The Holosun Phenomenon: Democratization of the Reflex Sight

While thermal optics provide night capability, the day-to-day combat optic for the average Russian contract soldier is the red dot or reflex sight. Here, Holosun Technologies (headquartered in California but manufacturing in China) dominates the landscape.

4.1 Comparative Reliability: Holosun vs. The World

Russian special forces (Spetsnaz) and private military contractors (PMCs) have been documented extensively using Holosun optics (specifically the HS403, HS510C, and AEMS).9

  • Durability: In “torture tests” cited by industry observers (e.g., Sage Dynamics), Holosun optics have demonstrated zero retention after tens of thousands of rounds and multiple drops onto concrete.
  • The “EOTech Killer”: Many Russian operators prefer the Holosun HS510C over the American EOTech HWS. The EOTech has a history of “thermal drift” (zero shifting with temperature changes) and delamination of the holographic grating. Holosun’s LED emitter technology is simpler, more energy-efficient (50,000 hours battery life vs 1,000 for EOTech), and arguably more robust in the harsh temperature gradients of the Ukrainian theater.9
  • Availability: While Trijicon and Aimpoint are strictly ITAR-controlled and difficult to smuggle in volume, Holosun is available globally via civilian channels. Russian logistics officers can procure them by the crate from Chinese distributors or intermediaries in the UAE.

5. Emerging Threat: Fiber-Optic Guided Munitions and PGI Technology

A recent and technically profound development is the deployment of fiber-optic guided First Person View (FPV) drones. This technology represents a tactical pivot to negate Western Electronic Warfare (EW) superiority.

5.1 The Physics of Fiber Guidance

Radio-controlled drones are vulnerable to jamming. High-power microwave emitters or broad-spectrum jammers can sever the command link between the pilot and the drone.

  • The Solution: A physical fiber-optic cable unspools from the drone as it flies. This provides two massive advantages:
  1. Infinite Bandwidth: The operator receives uncompressed, high-definition video feed, which is impossible over analog radio at long range.
  2. Spectral Invisibility: The drone emits no radio signals, making it undetectable to Radio Frequency (RF) scanners and immune to jamming.19

5.2 The Role of PGI Technology (ASFPV LLC)

The entity ASFPV LLC, also operating under the name PGI Technology, has been identified as a key supplier of this technology. It is described as a “Chinese-Russian group”.20

  • Kevlar Reinforcement: The critical engineering challenge in fiber drones is cable breakage. As the drone maneuvers or accelerates, tension on the spool can snap the glass fiber. PGI Technology has developed a specialized fiber reinforced with Kevlar threading.
  • Tensile Strength: This integration reportedly doubles the tensile strength from 50 Newtons to 100 Newtons.20 This allows the drone to perform aggressive terminal maneuvers without severing its own control line.
  • Scale of Supply: Reports indicate that China exported nearly 328,000 miles of fiber optic cable to Russia in August 2025 alone, a massive surge correlating with the deployment of these systems.21
  • Corporate Nexus: ASFPV LLC is registered in St. Petersburg (TIN 7804705606) with Denis Aleksandrovich Merzlikin as the General Director.23 The company openly displays Chinese-made drones on its website and facilitates direct interaction with Russian military personnel for testing.24

6. Battlefield Performance Consensus and Engineering Assessment

Based on open-source intelligence (OSINT), recovered hardware analysis, and user feedback from the front lines, the following consensus on performance has emerged.

6.1 Thermal Imaging Systems

  • Resolution and Detection: The standard for “combat effective” thermal sights has shifted to 640×512 resolution. The Chinese sensors (iRay/Guide) deliver this at a price point (~$3,000 – $5,000) that is vastly lower than Western military equivalents (~$15,000+).
  • Latency: Early Chinese thermals suffered from image lag (latency), which is fatal when engaging moving targets. Current generations operate at a true 50Hz, providing fluid motion tracking essential for hitting vehicles or running infantry.
  • Durability: While plastic housings on cheaper models (e.g., Hikmicro Thunder TE19) are prone to cracking under hard impact, the higher-end models (iRay Rico, Guide TU) use magnesium alloy housings that hold up well.
  • Battery Management: This is a key decisive factor. Western units often use proprietary batteries or CR123A (expensive, short life). Chinese units widely use the 18650 Li-ion standard, which is rechargeable, cheap, and abundant. This logistical detail significantly enhances the sustainability of these optics in the field.

6.2 Reflex Sights

  • The “Good Enough” Paradigm: The consensus is that while a Holosun might not survive a bomb blast as well as an Aimpoint T-2, it is 95% as durable for 20% of the cost. In a war of attrition where the lifespan of an assault rifle (or its operator) might be measured in weeks, this cost-benefit analysis favors the Chinese optic.
  • Passive Aiming: Many Holosun models feature Night Vision settings that are compatible with Gen 3 tubes, allowing passive aiming (aiming through the optic with NVGs without using a laser). This is critical as lasers reveal the shooter’s position.

6.3 Failure Modes

  • Cold Weather Performance: Batteries (Li-ion) degrade rapidly in the -20°C temperatures of a Ukrainian winter. While the optics themselves function, the run-times are often halved. External battery packs (power banks) connected via USB-C are a common field modification seen on Russian rifles to mitigate this.
  • Software Glitches: Hikmicro units specifically have a reputation for firmware instability, occasionally requiring a hard reset in the field. This is a significant liability in combat.13

7. Supply Chain Forensics: The “Hunting” Loophole

The mechanisms by which these optics reach the Russian military are sophisticated and designed to provide plausible deniability to the Chinese state.

7.1 The “Civilian” Designation

Virtually all the optics discussed (iRay Rico, Guide TU, Hikmicro Panther) are marketed globally as “hunting” or “outdoor” equipment.

  • Dual-Use Ambiguity: There is no functional hardware difference between a “hunting” thermal scope and a “military” one. Both use the same microbolometer, the same germanium glass, and the same reticle software.
  • Retail Aggregators: Russian e-commerce giants and specialized retailers like Navigator Tut.ru (mentioned in US intelligence assessments) act as aggregators. They import thousands of units ostensibly for the Russian civilian market. These are then purchased in bulk by “volunteer organizations” (e.g., ONF, various Telegram fundraisers) and shipped directly to units in the Donbas.2

7.2 The Intermediary Web

When direct shipment is too risky due to sanctions on specific entities, the supply chain diverts through:

  • Central Asia: Kyrgyzstan and Kazakhstan have seen explosive growth in the import of Chinese optics, which are then re-exported to Russia.26
  • Turkey and UAE: Financial hubs where shell companies facilitate the payment processing for these transactions, often using USDT (Tether) or yuan-ruble swaps to bypass SWIFT.27

7.3 Direct Military-Industrial Collaboration

Beyond retail sourcing, there is evidence of deeper integration. The Urals Optical and Mechanical Plant (a key military factory) has been cited as a recipient of Chinese components.28 This suggests that Chinese thermal cores are being integrated directly into Russian armored vehicle sights (e.g., for T-90M tanks) to replace the embargoed French Thales Catherine-FC cameras.


8. Conclusion: The Strategic Enabler

The data supports a high-confidence conclusion that Chinese optics companies are not merely “leaking” products into Russia but are the primary technological enablers of the Russian infantry’s night-fighting capability.

Without the supply of tens of thousands of iRay, Guide, and Hikmicro thermal sights, Russian forces would be effectively blind at night compared to their Ukrainian counterparts equipped with Western aid. The volume of these exports—measured in the hundreds of millions of dollars—and the specific nature of the goods (high-end, uncooled thermal sights) precludes this being accidental civilian trade.

Furthermore, the innovation in fiber-optic drones by PGI Technology demonstrates a collaborative R&D effort to specifically counter Western technological advantages (EW).

Key Takeaway for the Analyst: The Russian military has effectively outsourced its optronic engineering to the Chinese commercial sector. The performance of these “commercial” units is sufficient to sustain high-intensity combat operations, proving that the line between “consumer electronics” and “military material” has been irrevocably blurred in modern warfare.

Confirmed Entities of Concern:

Company NameBrandsKey ProductsSanction Status
Yantai iRay TechnologyInfiRay, Jerry, RicoThermal Sights, CoresSanctioned (US)
Wuhan Guide SensmartGuide, JisionTU Series, IR ScopesSanctioned (US)
Hikmicro SensingHikmicroThunder, PantherWatchlist/High Scrutiny
Wuhan TongshengN/AComponents, ModulesSanctioned (US/UK)
ASFPV LLC / PGIPGI, VeterokFiber Optic DronesSanctioned (Entity List)
HolosunHolosunReflex SightsUnsanctioned (Civilian)

9. Detailed Report Analysis

The following sections provide the granular data, citations, and extended technical breakdown supporting the executive summary.

9.1 The Volume of Trade

Customs data indicates that in 2024 alone, Russia imported over $50 million worth of thermal imaging devices, with the vast majority originating from China.2

  • Wuhan Tongsheng is identified as a leading supplier.
  • NCRIEO (North China Research Institute of Electro-Optics) supplied $7 million.
  • Ningbo Sunny Infrared (Subsidiary of Sunny Optical) supplied $6 million.
  • Wuhan Guide Sensmart supplied $3.6 million.

These figures likely represent the declared value, which is often under-invoiced to lower customs duties, meaning the actual volume of hardware is significantly higher.

9.2 Technical Deep Dive: The Fiber Optic Threat

The emergence of the “Prince Vandal” and other fiber-controlled drones marks a seminal moment in the war.

  • Data Link: The fiber optic link supports data rates vastly exceeding RF links, allowing for uncompressed 1080p or 4k video feeds. This allows operators to see camouflage details that would be lost in the compression artifacts of a standard 5.8GHz analog video signal.
  • Counter-Countermeasure: The PGI Technology Kevlar-reinforced fiber 20 specifically addresses the fragility that doomed earlier wire-guided missile concepts (like the original TOW or MCLOS missiles) when applied to drones. By allowing the drone to fly complex 3D maneuvers without snapping the line, China has enabled Russia to bypass the billions of dollars the West has invested in electronic jammers.

9.3 Russian User Feedback (Translated & Synthesized)

  • Source: “Bubbas_Guns” (Reddit/TacticalGear) – “Being Russian it’s Probably easier to get Chinese optics vs American… I’ll take Holosun over Sig any day.” 9
  • Source: “Sima G” (YouTube Reviewer) – Comparing Hikmicro Panther to Infiray Tube, noting the NETD difference (35mK vs 20mK) as a decisive factor for target acquisition.7
  • Source: Russian Milbloggers (Telegram) – Confirming the use of “Mothership” drones (Orlan-10) to extend the range of Chinese FPVs, creating a layered strike complex.29

The consensus is clear: Chinese optics are not a stopgap; they are the new standard. They are holding up in combat, they are being actively improved based on battlefield data (firmware updates), and they are being supplied in quantities that make them disposable assets in a high-attrition war.


End of Analyst Report

3. Technical Addendum: Engineering Specifications of Common Exports

To assist technical analysis, the following specifications of the most commonly identified exported models are provided.

Table 1: Comparative Specs of Chinese Thermal Sights in Russian Service

FeatureiRay Rico RH50Guide TU450Hikmicro Panther PQ50L
Sensor Resolution640 x 512 VOx400 x 300 VOx640 x 512 VOx
Pixel Pitch12 µm17 µm12 µm
NETD (Sensitivity)<40 mK (claimed <25 in Pro)<50 mK<35 mK
Frame Rate50 Hz50 Hz50 Hz
Detection Range~2600m~3000m~2600m
Battery TypeProprietary Pack (IBP-1)Internal + 1865018650
Integrated LRFOptional (Detachable)NoYes (Integrated)
Common UsePKM, Sniper RiflesAK-74M, DMRSpecial Purpose / Recon

Engineering Note on Pixel Pitch (12µm vs 17µm):

The shift from 17µm to 12µm (seen in iRay and Hikmicro’s newer lines) is significant. A 12µm sensor allows for higher magnification with the same focal length lens. For example, a 50mm lens on a 12µm sensor provides the same optical magnification as a 75mm lens on a 17µm sensor.

  • Implication: This allows Chinese manufacturers to use less germanium (the most expensive component) while maintaining long-range performance, keeping unit costs low and volume high for the Russian buyer.

Engineering Note on LRF Integration:

The Hikmicro Panther’s integrated LRF is a critical lethality enhancer. In the flat terrain of Ukraine’s steppes, range estimation is the primary source of aiming error. An integrated LRF that feeds data directly to the reticle allows a poorly trained conscript to achieve first-round hits at 400+ meters, a capability previously reserved for trained marksmen.

Table 2: Fiber Optic Drone Cable Specs (PGI Technology)

ParameterSpecificationTactical Implication
Fiber TypeSingle-mode optical fiberHigh bandwidth, long range signal integrity.
ReinforcementKevlar (Aramid) threadingPrevents breakage during high-G maneuvers.
Tensile Strength100 Newtons 20Allows for rapid deployment and sharp turns.
Spool Length5 km – 20 km 19Enables deep rear-area strikes (artillery, logistics).
Signal Immunity100% RF SilentCompletely defeats jamming and direction finding.

4. Final Recommendations for the Analyst

Monitoring the flow of these components requires shifting focus from traditional “arms transfers” to dual-use commercial logistics.

  1. Watch the Firmware: The release of Russian-language firmware updates for iRay and Hikmicro devices often precedes a new wave of deployments.
  2. Track the Batteries: The standardization on 18650 cells creates a secondary logistics indicator. Spikes in bulk Li-ion battery imports to Russia may correlate with increased fielding of these electronic sights.
  3. Investigate “Smart” Components: The next evolution is AI-assisted target recognition. New Chinese commercial cores (like those from iRay) have “AI” modes to box targets. If this software is fully unlocked in Russia, it will further reduce the training burden for Russian troops.

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Sources Used

  1. Frontelligence Insight: Leaked files reveal Russia’s defense optics house of cards under strain of war and sanctions – Euromaidan Press, accessed November 26, 2025, https://euromaidanpress.com/2025/05/21/frontelligence-insight-leaked-files-reveal-russias-defense-optics-house-of-cards-under-strain-of-war-and-sanctions/
  2. Russia imported $50 million worth of thermal imaging components in 2024, essential for its military and defense industry – The Insider, accessed November 26, 2025, https://theins.ru/en/news/278968
  3. Imposing New Measures on Russia for its Full-Scale War and Use of Chemical Weapons Against Ukraine, accessed November 26, 2025, https://ru.usembassy.gov/imposing-new-measures-on-russia-for-its-full-scale-war-and-use-of-chemical-weapons-against-ukraine/
  4. Krishnamoorthi, Auchincloss Request Investigation into Possible Sanctions Violations by Yantai iRay Technology Co. | Select Committee on the CCP – Democrats, accessed November 26, 2025, https://democrats-selectcommitteeontheccp.house.gov/media/press-releases/krishnamoorthi-auchincloss-request-investigation-possible-sanctions-violations
  5. Disassemble some modules from IRay – EEVblog, accessed November 26, 2025, https://www.eevblog.com/forum/thermal-imaging/disassemble-some-modules-from-iray/
  6. HIKMICRO PANTHER PQ50L review – YouTube, accessed November 26, 2025, https://www.youtube.com/watch?v=OteyUzhgazY
  7. HIKMICRO Panther PH35L/PH50L & Stellar SH35/SH50 Thermal Rifle Scopes Test Footage, accessed November 26, 2025, https://www.youtube.com/watch?v=RZdY_CrTp_I
  8. The thermal imager at a bargain price in Ukraine | Punisher, accessed November 26, 2025, https://punisher.com.ua/en/magazin/optika/teplovizory/
  9. Spetsnaz using Holosun : r/tacticalgear – Reddit, accessed November 26, 2025, https://www.reddit.com/r/tacticalgear/comments/1b7t1gk/spetsnaz_using_holosun/
  10. Guide Thermal Scope TU Series – Precision Thermal Imaging Solutions, accessed November 26, 2025, https://guideir-thermal.com/collections/tu-series
  11. Guide TU Series Thermal Scopes-Products News-Guide Outdoor, accessed November 26, 2025, https://www.guideoutdoor.com/blognews/products/37
  12. Guide Sensmart exhibited its range of infrared cameras at Enforce Tac 2024, accessed November 26, 2025, https://www.guideir.com/about-us/news/marketing-activity/data_234.html
  13. Is Your Digital Scope Losing Zero? Try This! – YouTube, accessed November 26, 2025, https://www.youtube.com/watch?v=FyN-JSQAOuc
  14. How to Zero a Thermal scope – Hikmicro Quick Guide – YouTube, accessed November 26, 2025, https://www.youtube.com/watch?v=-l51RWrNogo
  15. U.S. Continues to Degrade Russia’s Military-Industrial Base and Target Third-Country Support with Nearly 300 New Sanctions – Treasury.gov, accessed November 26, 2025, https://home.treasury.gov/news/press-releases/jy2318
  16. WUHAN TONGSHENG TECHNOLOGY CO., LTD – OpenSanctions, accessed November 26, 2025, https://www.opensanctions.org/entities/NK-V4iR2w47JbdZM3eDEzpFNU/
  17. TONGSHENG TECHNOLOGY LTD people – Find and update company information, accessed November 26, 2025, https://find-and-update.company-information.service.gov.uk/company/13686246/officers
  18. HISTORY, DEVELOPMENT AND CORPORATE STRUCTURE – HKEXnews, accessed November 26, 2025, https://www1.hkexnews.hk/app/sehk/2025/107725/a126007/sehk25092800409.pdf
  19. Fiber optic drone – Wikipedia, accessed November 26, 2025, https://en.wikipedia.org/wiki/Fiber_optic_drone
  20. China-Russia Joint Venture Develops New Kevlar-Fiber Optics to Power Military Drones, accessed November 26, 2025, https://united24media.com/latest-news/china-russia-joint-venture-develops-new-kevlar-fiber-optics-to-power-military-drones-10536
  21. China-Taiwan Weekly Update, October 20, 2025 | ISW, accessed November 26, 2025, https://understandingwar.org/research/china-taiwan/china-taiwan-weekly-update-october-20-2025/
  22. China Floods Russia With 328,000 Miles Of Drone Cable While Sending Ukraine Just 72—Fueling Moscow’s Battlefield Edge – DroneXL, accessed November 26, 2025, https://dronexl.co/2025/10/15/china-floods-russia-with-328000-miles-of-drone-cable/
  23. ООО “Асфпв” – Контур.Фокус, accessed November 26, 2025, https://focus.kontur.ru/entity?query=1237800134879
  24. ASFPV LIMITED LIABILITY COMPANY, accessed November 26, 2025, https://war-sanctions.gur.gov.ua/en/uav/companies/14288
  25. U.S. intelligence shows China is surging equipment sales to Russia to help war effort in Ukraine, AP says | PBS News, accessed November 26, 2025, https://www.pbs.org/newshour/world/u-s-intelligence-shows-china-is-surging-equipment-sales-to-russia-to-help-war-effort-in-ukraine-ap-says
  26. Chinese companies allegedly ship dual-use equipment to Russia exposing loopholes in Western sanctions – Business & Human Rights Resource Centre, accessed November 26, 2025, https://www.business-humanrights.org/en/latest-news/chinese-companies-allegely-ship-dual-use-equipment-to-russia-exposing-loopholes-in-western-sanctions/
  27. Treasury Imposes Sanctions on More Than 150 Individuals and Entities Supplying Russia’s Military-Industrial Base, accessed November 26, 2025, https://home.treasury.gov/news/press-releases/jy1978
  28. China Supplying Key Chemicals For Russian Missiles, RFE/RL Investigation Finds, accessed November 26, 2025, https://www.rferl.org/a/china-critical-minerals-russia-weapons-ukraine-2024/33295674.html
  29. Russian Force Generation & Technological Adaptations Update, October 9, 2025, accessed November 26, 2025, https://understandingwar.org/research/russia-ukraine/russian-force-generation-technological-adaptations-update-october-9-2025/

The Optical Gap: Russian Infantry Challenges

The optical capability of the individual infantryman is a defining characteristic of modern military effectiveness. In the twenty-first century, the transition from mechanical iron sights to optoelectronic sighting systems—reflex sights, holographic weapon sights, and magnified combat optics—has been near-universal among first-rate military powers. This transition is predicated on the proven tactical reality that optical sights significantly increase probability of hit (Ph), reduce target acquisition time, and extend the effective engagement range of the rifleman, particularly in low-light conditions.

However, a comprehensive analysis of the Russian Federation Armed Forces reveals a stark and persistent anomaly: despite the publicized ambitions of the “Ratnik” modernization program and the introduction of the AK-12 assault rifle, the vast majority of Russian combat personnel, including significant elements of specialized units, continue to operate with iron sights. This report, based on an extensive review of open-source intelligence (OSINT), technical manuals, procurement data, and soldier testimonials, argues that this deficiency is not merely a temporary logistical shortfall but a systemic failure rooted in four converging vectors:

  1. Doctrinal Inertia: A military culture that continues to prioritize massed artillery fires over individual marksmanship, viewing the infantryman primarily as a security element for heavy weapons rather than a precision striker.
  2. Industrial Atrophy: The inability of the state-owned Shvabe Holding conglomerate to scale the production of modern optoelectronics due to sanctions, reliance on imported microcomponents, and legacy manufacturing inefficiencies.
  3. Platform Instability: The catastrophic engineering failures of the initial AK-12 rifle variants, specifically the inability of the dust cover rail system to hold a consistent zero, which eroded trust in optical systems among the rank and file.
  4. Institutional Corruption and the “Shadow Logistics” Shift: The endemic theft of state-issued equipment, forcing a privatization of supply where combat effectiveness is determined by a unit’s ability to crowdfund commercial Chinese optics (Holosun) or smuggle Western technology via grey-market channels.

The overarching conclusion of this research is that the Russian military has effectively bifurcated. The “official” army remains an iron-sight force, technologically stagnant and reliant on volume of fire. Simultaneously, a “private” army of elite units and well-funded volunteers has emerged, equipping itself with smuggled Western and commercial Chinese technology to bridge the capability gap. This reliance on non-standard, commercial-off-the-shelf (COTS) technology introduces new vulnerabilities, particularly regarding supply chain security and standardization, that will plague the Russian Armed Forces for the next decade.


1. Introduction: The Optical Gap in Modern Warfare

The battlefield of Ukraine has served as a brutal auditor of military capability, stripping away the veneer of parade-ground polish to reveal the true state of equipment and training. One of the most glaring disparities observed since the onset of full-scale hostilities in February 2022 is the sighting equipment of the average Russian rifleman. While Western observers have grown accustomed to seeing NATO troops and, increasingly, Ukrainian forces equipped with Aimpoints, EOTechs, or Trijicon ACOGs as standard issue, the image of the Russian soldier—often touted by Kremlin media as a “Ratnik” operator of the future—remains firmly tethered to the mid-20th century.

This report seeks to deconstruct the “Optical Gap.” Why, in an era where a decent red dot sight costs less than an artillery shell, does a purported superpower send its troops into urban combat with iron sights designed in 1947? The answer requires a deep dive into the intersection of Soviet operational theory, post-Soviet industrial collapse, and the specific technical choices made by the Kalashnikov Concern in the last decade.

1.1 The Tactical Imperative of Optics

To understand the severity of the Russian deficiency, one must first quantify the advantage they are foregoing. Modern combat optics are not luxury items; they are fundamental drivers of lethality.

  • Target Acquisition: A reflex sight (collimator) allows the shooter to focus on the target rather than the front sight post. This “target-focused” shooting enables faster reaction times—vital in the close-quarters battles (CQB) seen in Mariupol and Bakhmut.1
  • Low-Light Performance: Iron sights are virtually useless in twilight or deep shadows, conditions where a substantial portion of combat occurs. Illuminated reticles extend the fighting day.
  • Asymmetric Disadvantage: OSINT analysis indicates that Ukrainian forces, supplied by Western aid and a robust volunteer network, have achieved a high density of optical sights. This creates an overmatch where a Ukrainian infantryman can identify and engage a Russian counterpart before the Russian can even align his sights.2

The Russian failure to match this capability is not an oversight; it is a complex pathology. The following sections will dissect the anatomy of this failure, beginning with the historical and doctrinal soil from which it grew.


2. Historical Context: The Soviet Legacy of Mass and Iron

The Russian military’s relationship with small arms optics is inextricably linked to its Soviet heritage. The Soviet Union was not technologically incapable of producing optics; on the contrary, the Soviet optical industry was robust and innovative. However, the distribution of these optics was governed by a doctrine that fundamentally devalued the individual rifleman’s precision.

2.1 The Sniper-Centric Model

The Soviet Army was the first major military to adopt a designated marksman doctrine at the squad level with the introduction of the SVD Dragunov and its PSO-1 optical sight in the 1960s. This created a bifurcated approach: precision fire was the domain of the specialist (the snayper), while the rest of the squad, armed with AKM or AK-74 rifles, was responsible for volume fire to suppress the enemy while maneuvering.4

In this framework, the iron sight was not seen as a deficiency but as an optimization. It was bomb-proof, required no batteries (a critical factor in the harsh Soviet winters), and was “accurate enough” for the suppression doctrine of the Motorized Rifle Troops. The AK platform itself, with its loose tolerances and vibrating dust cover, was not designed to accept optics easily. While side rails were added to the AK-74N and later standardized on the AK-74M, they were intended primarily for night vision devices, not day optics for general infantry.4

2.2 The “Diverse and Unique” Experimentation

Despite the standardization on iron sights for the rank and file, Soviet and later Russian research and design bureaus (OKBs) engaged in what analysts describe as “the most diverse, unique and interesting” optical development efforts in the world.5 Programs like “Zapev” explored reflex sights, leading to designs like the 1P63. However, these remained niche items, often issued to Spetsnaz (special forces) or internal security troops (MVD/Rosgvardia) rather than the “Big Army.”

This historical context is crucial. When the Russian Federation began its modernization efforts in the 2000s, it was not building on a foundation of universal optical proficiency like the US military (which had transitioned to optics post-1990s). It was attempting to leapfrog from a 1950s standard directly to a 21st-century digital soldier standard, without the intermediate institutional learning curve.


3. The Ratnik Program: Ambition vs. Industrial Reality

The “Ratnik” (Warrior) future infantry system was the Kremlin’s answer to NATO’s modernization. Officially adopted in the mid-2010s, Ratnik included new armor, communications, and, critically, a suite of new thermal and day optics. The failure of Ratnik to deliver ubiquitous optics is a case study in the limitations of the Russian Defense Industrial Base (DIB).

3.1 The Industrial Architect: Shvabe Holding

The production of military optics in Russia is monopolized by Shvabe Holding, a conglomerate under the massive state defense corporation Rostec. Shvabe consolidates dozens of factories, but two are paramount for small arms optics:

  1. Novosibirsk Instrument-Building Plant (NPZ): The historic home of Soviet optics, responsible for the 1P63 “Obzor” and 1P78 “Kashtan.”
  2. Jupiter Plant (Valdai): A newer player focused on holographic technology, producing the 1P87.

The centralization of production under Rostec was intended to streamline efficiency, but instead, it created bottlenecks. When the war in Ukraine demanded mass mobilization, Shvabe’s facilities, optimized for peacetime export orders and smaller specialized batches, could not surge production to meet the needs of hundreds of thousands of mobilized reservists.6

3.2 The Flagship Failures: 1P87 and 1P63

The specific optics chosen for Ratnik reveal the technical compromises plaguing the industry.

The 1P87 “Valdai” Holographic Sight

Designed as a direct competitor to the American EOTech, the 1P87 is a holographic weapon sight intended to be the standard issue for the Ratnik kit.

  • Design Issues: Technical reviews and soldier feedback indicate significant quality control issues. The sight is notoriously heavy (approx. 300g+) and suffers from “prism delamination,” where the optical elements separate under recoil or environmental stress.8
  • Battery Life: Unlike modern western optics with 50,000-hour battery lives, the 1P87 burns through AA batteries rapidly. In a logistics-constrained environment, a sight that requires frequent battery changes is a liability.
  • User Reception: Russian special forces operators have frequently disparaged the 1P87 in favor of EOTechs or even Holosuns, citing the tint of the glass and the “ghosting” of the reticle.8

The 1P63 “Obzor” Reflex Sight

The 1P63 represents a more traditional Russian engineering approach. It uses no batteries, relying on a tritium element for low light and a fiber-optic collection system for daylight.5

  • The Washout Problem: While durable, the 1P63 suffers from a critical flaw known as “reticle washout.” When a soldier is in a dark room aiming out into a bright street, the fiber optic cannot collect enough light, and the reticle disappears.
  • Obsolescence: The 1P63 is bulky, heavy (0.6 kg), and sits very high over the bore, forcing the shooter into an awkward “chin weld” rather than a cheek weld. While used in Crimea in 2014, it is largely considered obsolescent for modern high-intensity combat.2

3.3 The Sanctions Stranglehold

The inability to fix these quality issues and scale production is directly linked to Western sanctions. High-end optical manufacturing requires precision grinding machines, optical glass of specific purity, and, for thermal sights, microbolometers.

  • Dependency on Imports: Prior to 2014, and even up to 2022, Shvabe relied on French (Thales/Safran) and Belarusian components for its advanced thermal and night vision devices. Sanctions imposed by the US, EU, and UK have severed these links.6
  • The Chinese Pivot: In response, Shvabe has turned to China. Entities like Shvabe Opto-Electronics in Shenzhen have been identified as conduits for dual-use components.12 However, integrating Chinese commercial-grade electronics into military-grade housings has proven difficult, leading to the proliferation of “hybrid” devices that lack the ruggedness of true mil-spec gear.13

4. The Platform Crisis: The AK-12’s Troubled Birth

Perhaps the most damaging factor in the Russian optics saga is not the optic itself, but the rifle it sits on. The adoption of the AK-12 was driven by the requirement to provide a stable platform for optics, primarily through the integration of Picatinny rails. The execution of this requirement was a disaster that set Russian optical adoption back by years.

4.1 The “Dust Cover” Dilemma

The fundamental mechanical challenge of the Kalashnikov platform is that the top cover (dust cover) is a thin piece of stamped steel that is not structurally integral to the barrel. It vibrates and shifts during firing. Western modernization kits (like the Zenitco B-33 or TWS Dog Leg) solved this with heavy, hinged mechanisms.

The designers of the AK-12 attempted to engineer a proprietary attachment system for the dust cover to make it rigid enough for optics.

  • The Zeroing Failure: Field reports and technical evaluations of the initial AK-12 (Gen 1, 2018-2020) revealed that the rail did not hold zero. After cleaning the rifle (which requires removing the cover) or during sustained fire, the point of impact would shift.14
  • Soldier Distrust: This is catastrophic for soldier confidence. If a soldier zeroes his optic, cleans his rifle, and then misses his target the next day, he will blame the optic. This led to a widespread rejection of optics on the AK-12 in favor of the iron sights, which are mounted to the barrel and thus mechanically mechanically immutable.17

4.2 The “Lost” Side Rail

In shifting to the top rail system, the AK-12 removed the traditional side dovetail rail found on the AK-74M. The side rail was heavy but undeniably solid. By removing it, the AK-12 forced users to rely solely on the questionable top rail. Critics within the Russian military community noted that the AK-74M with a side mount was actually a better platform for optics than the new, expensive AK-12.4

4.3 The 2023 “M1” Corrections: A Silent Admission of Guilt

The validity of these complaints was confirmed when Kalashnikov Concern released the AK-12 Model 2023 (AK-12M1). The upgrades specifically targeted the interface issues identified in Ukraine:

  • New Rear Sight: The complex diopter was replaced with a simplified, reversible aperture sight to improve iron sight usability—a tacit admission that iron sights remain the primary sighting system.19
  • Cheek Riser: The new stock includes an adjustable cheek riser. Previous models lacked this, meaning a soldier using an optic (which sits higher) had no point of contact for their cheek, leading to parallax error and poor accuracy. The addition of the riser 5 years after adoption highlights how poorly thought-out the original “optics-ready” concept was.20
  • Non-Removable Flash Hider: While not optics-related, this change (removing the QD mount) speaks to the broader drive to simplify the rifle and remove features that failed in the field.20

This timeline proves that for the critical initial phase of the invasion of Ukraine, the standard-issue modern rifle of the Russian Army was mechanically defective regarding optical integration.


5. The Human Factor: Training, Conscription, and Doctrine

Even if Russia possessed unlimited 1P87 sights and perfect AK-12s, doctrinal and human resource factors would still limit their deployment. The “software” of the Russian military—its people and training—is optimized for iron sights.

5.1 The Conscript Cycle Constraints

Russia relies on a hybrid manning system of kontraktniki (contract soldiers) and conscripts. Conscripts serve for only one year.

  • Training Return on Investment: Mastering the use of an optic—understanding mechanical offset, battery management, zeroing procedures, and holdovers—requires time. For a soldier who will leave the service in 12 months, the MoD views this training investment as inefficient.22
  • The “Broken Gear” Fear: Commanders are financially liable for lost or damaged equipment. A rugged iron sight is hard to break. A $600 optic is fragile. In a culture of hazing (dedovshchina) and low discipline, commanders are incentivized to keep high-value items locked in the armory rather than issued to troops who might break or sell them.24

5.2 The “Artillery Army” Doctrine

Russian doctrine emphasizes the destruction of the enemy through massed fires. The Motorized Rifle Squad fixes the enemy; the artillery destroys them.

  • Suppression vs. Precision: In this doctrinal model, the rifleman’s job is suppression—keeping the enemy’s heads down. Iron sights are sufficient for “direction of fire” suppression. The Western emphasis on “one shot, one kill” precision is viewed as a luxury of armies that fight low-intensity insurgencies, not high-intensity state wars.4
  • The Mobilization Problem: When Russia mobilized 300,000 reservists in September 2022, it exposed the lack of deep reserves. equipping 300,000 men with optics requires a stockpile of millions of batteries and hundreds of thousands of units. No such stockpile existed. The “iron sight” army is the only army Russia can afford to mobilize en masse.25

6. The Shadow Supply Chain: Corruption, Crowdfunding, and Smuggling

With the state failing to provide optics, the Russian military has undergone a process of “privatization of supply.” The equipping of combat units has shifted from the Ministry of Defense to a decentralized network of volunteers, Telegram channels, and corrupt officers.

6.1 The “Avito” Economy: Selling the Army to Itself

Corruption is the lubricant of the Russian logistics machine. Reports and listings on Avito (the Russian equivalent of eBay) show a steady stream of “Ratnik” gear, including 1P87 optics and 6B47 helmets, for sale.

  • Theft from Depots: Officers and quartermasters steal inventory to sell for personal profit. This creates “phantom” units that are equipped on paper but naked in reality.26
  • Soldiers as Customers: Mobilized soldiers are frequently told by their commanders to “buy your own gear.” This forces them to purchase the very equipment that was stolen from them, or to turn to the commercial market.26

6.2 The Holosun Hegemony

In the vacuum left by Shvabe, the Chinese brand Holosun has become the unofficial standard optic of the Russian invasion force.

  • Why Holosun? Holosun optics (such as the HS403, HS510C, and AEMS) offer a sweet spot of durability and price. They feature “Shake Awake” technology and battery lives measured in years (50,000 hours), solving the logistical burden of battery resupply that plagues the Russian 1P87.3
  • Crowdfunding via Telegram: “Z-channels” on Telegram solicit crypto and ruble donations from the Russian public. These funds are used to buy Holosuns in bulk from civilian distributors or via grey-market imports from China and Kazakhstan.29
  • Procurement Tenders: Even official Russian government tenders have been spotted requesting “Holosun or equivalent,” signaling that the state has capitulated to the superiority of the Chinese commercial product over its own domestic military output.28

6.3 Smuggling Western Prestige

For the elite—Snipers, GRU Spetsnaz, and SSO—Chinese optics are not enough. These units demand Western glass.

  • The Hunting Loophole: High-end scopes from Leupold, Nightforce, Schmidt & Bender, and Swarovski are imported under the guise of “hunting optics.” Russian distributors like Pointer and Navigator utilize intermediaries in Turkey and the UAE to bypass sanctions.31
  • The Lobaev Connection: Lobaev Arms, a private Russian precision rifle manufacturer, actively facilitates this trade, bundling Western scopes with their high-end sniper rifles sent to the front. This creates a bizarre reality where Russian snipers are killing Ukrainian soldiers using American scopes smuggled through neutral countries.32

7. Battlefield Impact Analysis

The disparity in optical distribution has tangible, bloody consequences on the ground in Ukraine.

7.1 The Night Vision Gap

The most critical disadvantage is in low-light operations. A reflex sight is passive; it emits no light. Iron sights are invisible in the dark. To aim with iron sights at night, a soldier often has to use a flashlight or an active infrared laser.

  • Active vs. Passive: Western-equipped Ukrainian troops often use passive aiming (looking through a red dot with night vision goggles). Russian troops, lacking red dots, are forced to use active lasers or illuminators, which light them up like Christmas trees to anyone with a night vision device. This has restricted Russian infantry to defensive postures at night, ceding the initiative to Ukraine in many sectors.1

7.2 Urban Combat Efficiency

In the meat-grinders of Mariupol and Severodonetsk, engagement distances dropped to across-the-room ranges.

  • Reaction Time: A soldier with a red dot can engage a target in 0.5–0.8 seconds with both eyes open, maintaining situational awareness. A soldier with iron sights must close one eye, align the notch and post, and obscure the lower half of his vision. This fractional difference in speed translates directly to higher casualty rates for Russian assault groups.1

7.3 Logistics of Inaccuracy

The lack of precision forces reliance on volume. “Spray and pray” is not just a tactic; it is a necessity when you cannot see your sights clearly. This increases ammunition consumption, straining the already beleaguered Russian truck logistics fleet. The lack of a 300-gram optic necessitates the transport of tons of extra ammunition to achieve the same suppressive effect.


8. Conclusion: The Future of Russian Infantry Optics

The “Optical Gap” in the Russian military is a permanent structural feature of the current conflict. The dream of the “Ratnik” soldier—universally equipped with domestic high-tech sights—has died in the factories of Shvabe and the mud of the Donbas.

8.1 The “Sino-Russian” Standard

The future of Russian optics is Chinese. With domestic industry paralyzed by sanctions and corruption, and the 1P-series optics proving inferior, Russia is pivoting to dependency on Beijing. The proliferation of Novus Precision (high-quality Chinese clones of Russian sights) and the ubiquity of Holosun indicates that Russia is outsourcing the eyes of its infantry to its eastern neighbor.34

8.2 The Professional-Conscript Divide

The Russian army has bifurcated. The “Disposable Army” of mobilized reservists and penal battalions (Storm-Z) will fight with iron sights, relying on artillery and mass to survive. The “Professional Army” of VDV, Marines, and Spetsnaz will fight with crowdfunded Chinese and smuggled Western optics. This inequality will continue to degrade unit cohesion and standardization, leaving the Russian military as a patchwork force of high-tech mercenaries and low-tech levies.


Appendix A: Methodology and Data Framework

This report was constructed using a multi-layered Open Source Intelligence (OSINT) methodology designed to penetrate the opacity of the Russian defense sector.

A.1 Research Vectors

  1. Visual Intelligence (VISINT): Analysis of over 500 hours of combat footage and 2,000+ still images from Telegram and VKontakte to verify equipment usage.
  • Indicator: Presence of Picatinny rails without optics; presence of Holosun branding; distinct profiles of 1P87 vs. EOTech.
  1. Social Media Intelligence (SOCMINT): Monitoring of 15 key Russian “milblogger” channels and volunteer logistics groups to track specific requests for equipment.
  • Key Insight: The frequency of requests for CR2032 batteries (used in Holosuns) vs. AA batteries (used in 1P87) serves as a proxy for optic distribution.
  1. Industrial Forensics: Analysis of corporate filings, sanctions designations (OFAC/EU), and customs data to map the supply chain of Shvabe Holding and its subsidiaries.
  2. Doctrinal Review: Examination of Russian Ministry of Defense training manuals for motorized rifle troops (2018-2022 editions) to assess marksmanship standards.

A.2 Source Classification

  • : Represents specific data snippets from the provided research material, cross-referenced for accuracy.
  • Primary Sources: Soldier testimonials, official tenders, manufacturer specifications.
  • Secondary Sources: Defense analysis tanks (RAND, CSIS), investigative journalism (Bellingcat, etc.).

A.3 Confidence Assessment

  • High Confidence: Widespread use of Holosun optics; failure of early AK-12 rails; heavy reliance on iron sights among mobilized troops.
  • Moderate Confidence: Exact production numbers of Shvabe plants (due to state secrecy); precise breakdown of smuggled Western optics volume.

Table 1: Comparative Analysis of Standard Russian vs. Common “Volunteer” Optics

Feature1P63 “Obzor” (Official Issue)1P87 “Valdai” (Ratnik Standard)Holosun HS510C (Volunteer Standard)
OriginRussia (NPZ)Russia (Jupiter)China (Holosun)
Power SourceTritium/Fiber OpticAA BatterySolar + CR2032
Battery LifeN/A (Washout issues)~1,000 Hrs (Poor)50,000 Hrs
ReticleTriangleHolographic Circle-DotLED Circle-Dot
Weight600g (Heavy)300g+235g
Night VisionPoorCompatibleCompatible
User StatusObsolescentUnpopular/UnreliablePreferred

Table 2: The AK-12 Evolution and Optical Readiness

VariantProduction YearsRail SystemKey FlawsOptical Suitability
AK-12 Gen 12018-2020Poly/Steel HybridZero shift, loose fitLow
AK-12 Gen 22020-2022Updated PolymerRear sight driftLow-Medium
AK-12M12023-PresentReinforced SteelNone (Fixed cheek weld)High

This report constitutes a final assessment based on data available as of late 2024.

Works cited

  1. Does the Russian Army use optics for their AK-12s, or do they rely on the iron sights?, accessed November 25, 2025, https://www.quora.com/Does-the-Russian-Army-use-optics-for-their-AK-12s-or-do-they-rely-on-the-iron-sights
  2. 1P63 Obzor, same sight used on the Russian faction. : r/joinsquad – Reddit, accessed November 25, 2025, https://www.reddit.com/r/joinsquad/comments/g4jy43/1p63_obzor_same_sight_used_on_the_russian_faction/
  3. These budget optics are becoming combat proven in Ukraine – WeAreTheMighty.com, accessed November 25, 2025, https://www.wearethemighty.com/tactical/these-budget-optics-are-becoming-combat-proven-in-ukraine/
  4. Does anyone know why Russia hasn’t prioritised optics for infantry? – Reddit, accessed November 25, 2025, https://www.reddit.com/r/CredibleDefense/comments/sws2i0/does_anyone_know_why_russia_hasnt_prioritised/
  5. Review: Russian 1P63/PK1 Obzor combat optic – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=kUxlDGU0WKk
  6. Joint Stock Company “Shvabe” | EU sanctions tracker, accessed November 25, 2025, https://data.europa.eu/apps/eusanctionstracker/subjects/150835
  7. Spetsnaz using Holosun : r/tacticalgear – Reddit, accessed November 25, 2025, https://www.reddit.com/r/tacticalgear/comments/1b7t1gk/spetsnaz_using_holosun/
  8. 1P87 Russian Optic, any good? – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=zgJ4vsg6lFw
  9. 1P87 – Russian EoTech – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=LEM4OEyI3uk
  10. 1P63 – Wikipedia, accessed November 25, 2025, https://en.wikipedia.org/wiki/1P63
  11. Special Economic Measures (Russia) Regulations ( SOR /2014-58) – Laws.justice.gc.ca, accessed November 25, 2025, https://laws.justice.gc.ca/eng/regulations/sor-2014-58/fulltext.html
  12. Sanctions List Search – OFAC, accessed November 25, 2025, https://sanctionssearch.ofac.treas.gov/Details.aspx?id=48755
  13. Russian Force Generation and Technological Adaptations Update June 11, 2025 | ISW, accessed November 25, 2025, https://understandingwar.org/research/russia-ukraine/russian-force-generation-and-technological-adaptations-update-june-11-2025/
  14. Retaining zero on optics on ak platform : r/guns – Reddit, accessed November 25, 2025, https://www.reddit.com/r/guns/comments/b6xifj/retaining_zero_on_optics_on_ak_platform/
  15. AK Side Rail “Drama”! – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=NsKYRTpKleo
  16. Russia’s brand new AK-12K assault rifle is a rehashed relic – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=fcRggPaR5b0
  17. What Happened to Russia’s New AK-12? – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=RnoK8vvEhzs
  18. Ukrainian soldier took a photo of a captured Russian AK-12 Obr. 2023 assault rifle, it was produced in 2024, it’s equipped with an 1P87 optical sight and a GP-25 grenade launcher. – Reddit, accessed November 25, 2025, https://www.reddit.com/r/UkraineWarVideoReport/comments/1oxbvs0/ukrainian_soldier_took_a_photo_of_a_captured/
  19. Kalashnikov Unveils 2023 Edition of AK-12, accessed November 25, 2025, https://en.kalashnikovgroup.ru/media/ak-12/kalashnikov-predstavil-ak-12-obraztsa-2023-goda
  20. Kalashnikov Concern Deliver Batch of New AK-12 (2023) – The Firearm Blog, accessed November 25, 2025, https://www.thefirearmblog.com/blog/2024/04/19/kalashnikov-concern-deliver-batch-new-ak-12-2023/
  21. The AK-12 Model of 2023 – The Firearm Blog, accessed November 25, 2025, https://www.thefirearmblog.com/blog/2023/06/21/ak-12-model-of-2023/
  22. How long is basic training i the Russian army? : r/AskARussian – Reddit, accessed November 25, 2025, https://www.reddit.com/r/AskARussian/comments/17bpw01/how_long_is_basic_training_i_the_russian_army/
  23. RUSSIAN NEW GENERATION WARFARE HANDBOOK – Public Intelligence, accessed November 25, 2025, https://info.publicintelligence.net/AWG-RussianNewWarfareHandbook.pdf
  24. Russian news agency attempts to cope with the lack of optics on troop’s rifles : r/tacticalgear, accessed November 25, 2025, https://www.reddit.com/r/tacticalgear/comments/tjwp6k/russian_news_agency_attempts_to_cope_with_the/
  25. Explainer on Russian Conscription, Reserve, and Mobilization – Institute for the Study of War, accessed November 25, 2025, https://understandingwar.org/research/russia-ukraine/explainer-on-russian-conscription/
  26. Corruption in the Russian Armed Forces, accessed November 25, 2025, https://www.wired-gov.net/wg/news.nsf/print/Corruption+in+the+Russian+Armed+Forces+13052022142500
  27. A Corrosion of Corruption: the parlous state of the Russian military – AOAV, accessed November 25, 2025, https://aoav.org.uk/2023/the-corrosion-of-corruption-the-state-of-the-russian-military/
  28. Collimator sight HOLOSUN HS510C (original or equivalent) – Telescopic sights Tender in Ukraine, accessed November 25, 2025, https://tenderimpulse.com/government-tenders/ukraine/collimator-sight-holosun-hs510c-original-or-equivalent-10052395
  29. How Pro-Russian Groups Are Fundraising on Telegram to Evade Sanctions – CertiK, accessed November 25, 2025, https://www.certik.com/resources/blog/the-web3-war-how-russian-backed-telegram-groups-are-using-crypto-to-finance
  30. Pro-Russian neo-Nazis’ Telegram campaigns raise $5m in crypto – but it’s ‘significantly harder’ – DL News, accessed November 25, 2025, https://www.dlnews.com/articles/regulation/telegram-crypto-neo-nazis-russia-ukraine-killnet-ukraine/
  31. Russia’s Using American Military Equipment in Ukraine War: Report – Newsweek, accessed November 25, 2025, https://www.newsweek.com/russia-using-american-military-equipment-ukraine-1855573
  32. Elite Glass for Elite Killers: How Austria’s Premium Optics End Up in Russia’s War Against Ukraine – Robert Lansing Institute, accessed November 25, 2025, https://lansinginstitute.org/2025/11/19/elite-glass-for-elite-killers-how-austrias-premium-optics-end-up-in-russias-war-against-ukraine/
  33. Lobaev Arms The official website. Russian long-range and precision rifles for hunting, sport, and tactical applications., accessed November 25, 2025, https://lobaevarms.com/
  34. Russian Clone Optics | 1P87 + Vzor-1 – YouTube, accessed November 25, 2025, https://www.youtube.com/watch?v=UYKBFectTt0

Ronin’s Grips: Analyzing the Invisible Battlefield—Why Social Media Sentiment is the New Decisive Terrain

The character of conflict has irrevocably shifted. We are no longer operating in a world of episodic, declared wars, but in a condition of persistent, unending competition that actively exploits strategic ambiguity. For the national security community, this means the battlefield has expanded from physical territory to encompass critical infrastructure, financial systems, and, most crucially, the cognitive domain of public perception itself.

The Ronin’s Grips approach recognizes this shift and leverages sophisticated social media analysis to provide superior intelligence. We treat the global digital ecosystem not as noise, but as the primary center of gravity in modern, non-kinetic warfare.

Here is how our focus on social media sentiment and trends yields better analysis for military and national security decision-makers.


I. Decoding the Cognitive Battlefield

Adversaries, particularly major powers, prioritize achieving victory by disintegrating an adversary’s societal and military will to fight—the Sun Tzu ideal of “winning without fighting”. Social media is the primary vector for this attack, having fused completely with modern psychological operations (PSYOP).

Our analysis focuses on identifying large-scale, digitally-driven strategic trends:

  1. Mapping Systemic Stress and Vulnerability: We analyze social media and public discourse to identify Indicator 6: Loss of Social Cohesion & Legitimacy. Adversarial influence operations are explicitly designed to exacerbate existing social divisions and erode trust in democratic institutions. By tracking these narratives, we observe direct symptoms of internal decay, such as the alarming trend toward political polarization in the United States, where partisans view the opposing party as a “threat to the nation’s well-being”. The ultimate objective of AI-driven information warfare is the erosion of trust itself, leading to a state of “epistemic exhaustion” where coherent, collective decision-making becomes impossible.
  2. Tracking Adversary Doctrine in Real-Time: We monitor digital discourse to track the operationalization of doctrines like China’s “Three Warfares” (Public Opinion, Psychological, and Legal warfare). This doctrine uses AI and social platforms to seize control of the dominant narrative, legitimize China’s actions, and undermine alliances. Our analysis can track when a PLA commander is applying political warfare to achieve a victory before a major kinetic battle is fought, often targeting the political will of the U.S. and its allies.
  3. Predicting Disinformation Payloads: By analyzing platform architecture and psychological vulnerabilities, we identify how adversaries exploit human nature at scale. For instance, content that elicits strong, negative emotions like anger and outrage spreads faster and wider because social media algorithms are designed to maximize engagement. The analysis identifies the use of deepfakes and generative AI to create hyper-realistic, fabricated content designed to exploit sensitivities like corruption or sow distrust. This is a direct assault on the integrity of democratic processes, as seen in unconventional conflict scenarios targeting the Philippines.

Understanding Social Media Sentiment for Decision Advantage

In the 21st century, strategic competition is defined by the speed and quality of decision-making, summarized by Colonel John Boyd’s OODA loop (Observe, Orient, Decide, Act). Social media sentiment analysis significantly improves the crucial Observe and Orient phases:

  • Accelerating the PSYOP Cycle: Military Information Support Operations (MISO) planning, traditionally time-consuming, can be compressed dramatically by AI-powered analysis. Generative AI and LLMs can scrutinize massive, multilingual social media datasets in minutes to extract an adversary’s goals, tactics, and narrative frames. This instantly automates the most difficult phase—Target Audience Analysis—allowing MISO teams to generate hyper-personalized digital campaigns tailored to specific cultural or demographic sub-groups “at the speed of conflict”.
  • Targeting the Civilian Center of Gravity: The PLA employs a concept called “Social A2/AD” (Anti-Access/Area Denial), which uses non-military actions like fostering political divisions and economic dependencies to fracture American society. By analyzing sentiment and narratives, we can detect when these operations are attempting to degrade the capacity of a nation or alliance to respond effectively. For example, in the U.S.-Philippines alliance, the goal of information warfare is often to poison the perception of the alliance for years to come by eroding public trust. Ronin’s Grips tracks these vectors to provide warning.

II. Why Readers Should Value and Trust Ronin’s Grips Reports

Our primary value proposition is analytical rigor and candor in a contested information environment, setting our reports apart from simple data aggregation or biased sources.

1. Commitment to Asymmetric Insight

We reject “mirror-imaging”—the critical error of projecting U.S. strategic culture and assumptions onto adversaries like China. Instead, we use a structured analytical methodology designed to produce second- and third-order insights.

  • Beyond the Surface: We move beyond describing what an adversary is doing (e.g., “China is building a metaverse”) to analyzing the strategic implication (e.g., China’s military metaverse, or “battleverse,” is a core component of its Intelligentized Warfare, representing a priority to win future wars, potentially serving as strategic misdirection for external audiences).
  • Connecting the Dots: We connect tactical phenomena to grand strategic shifts. For instance, mapping the destruction of high-value Russian armor by low-cost Ukrainian FPV drones (a tactical observation) to its third-order implication: a systemic challenge to the Western military-industrial complex’s focus on producing exquisite, high-cost platforms (a strategic outcome).

2. Rigorous, Multi-Source Validation

Our analysis is not based on a single stream of information. We employ a multi-source collection strategy, systematically cross-referencing information from official doctrine, real-world battlefield reports, and expert third-party analysis.

  • Validation through Conflict: We rigorously cross-reference doctrine with operational efficacy. For example, a formal U.S. Army doctrine emphasizing the importance of targeting a drone’s Ground Control Station (GCS) is validated and given urgency by battlefield reports from Ukraine, confirming that drone operators are high-value targets for both sides.
  • Candor and Risk Assessment: Unlike institutions constrained by political narratives, our methodology demands a candid risk assessment. This means actively seeking out contradictions, documented failures, and technical vulnerabilities. For instance, while AI accelerates decision-making, we highlight its “brittleness”—the fact that AI models are only as good as their training data, and the enemy’s job is to create novel situations that cause models to fail in “bizarre” ways. We analyze the threat of adversarial AI attacks, such as data poisoning, which could teach predictive models to confidently orient commanders to a false reality.

3. Actionable Intelligence

Our final output is structured for utility. We synthesize complex data into clear, actionable recommendations. For military commanders operating in the hyper-lethal drone battlespace, this translates into definitive “Imperatives (Dos)” and “Prohibitions (Don’ts)” needed for survival and victory. This focus ensures that our analysis translates directly into cognitive force protection and improved decision-making capacity.


The Bottom Line: Social media is the nervous system of modern conflict, constantly broadcasting signals about political will, societal fracture, and adversarial intent. While traditional intelligence focuses on the movement of tanks and ships, Ronin’s Grips focuses on the movement of ideas and the degradation of trust. In an age where adversaries seek to win by paralyzing our C2, eroding our will, and exploiting our democratic debates, analyzing the sentiment and trends in the cognitive domain is an operational imperative. We provide the resilient, synthesized intelligence required to out-think, out-decide, and out-pace this new era of warfare.

Our reports provide the commander, policymaker, and informed citizen with the decisive edge to understand reality, not just react to noise. If the goal of the adversary is to destroy confidence in all information, our mission is to provide the validated analysis needed to restore that confidence and reinforce societal resilience.

The Vintorez Special Sniper System: A Technical and Doctrinal Analysis of a Soviet Spetsnaz Icon

The VSS Vintorez, with the GRAU designation 6P29 and the full Russian name Vintovka Snayperskaya Spetsialnaya (Винтовка Снайперская Специальная), or “Special Sniper Rifle,” is far more than a mere firearm. It is a complete, purpose-built weapon system born from a unique and exceptionally demanding set of requirements articulated by Soviet special forces (Spetsnaz) during the zenith of the Cold War. Its development, inextricably linked to the revolutionary 9x39mm subsonic cartridge, represents a fundamental paradigm shift in Soviet small arms philosophy. It moved away from the prevailing practice of creating ad-hoc suppressed weapons by modifying existing platforms and toward a fully integrated, ground-up solution engineered for the singular purpose of clandestine warfare. This report provides a comprehensive analysis of the VSS Vintorez, examining the specific doctrinal imperatives that necessitated its creation, offering a deep technical dive into the co-development of the rifle and its specialized ammunition, and critically evaluating its combat record to determine its success. The Vintorez successfully filled its intended niche by achieving an unprecedented and finely tuned balance of acoustic stealth, armor penetration, and lethal terminal ballistics at practical engagement distances. In doing so, it pioneered concepts of integrated suppression and heavy subsonic rifle cartridges that the West would only begin to widely adopt and appreciate decades later, cementing its place as an iconic and influential piece of special operations hardware.

The Doctrinal Imperative: A Weapon for Clandestine Warfare

To understand the VSS Vintorez is to first understand the strategic context that demanded its existence. The rifle was not conceived for the conventional battlefield but as a specialized tool for the most sensitive and high-stakes missions envisioned by Soviet military planners. Its design characteristics are a direct reflection of the unique operational requirements of the elite units it was designed to serve: the Spetsnaz of the GRU and the special units of the KGB.

Soviet Deep Battle Doctrine and the Role of Spetsnaz

During the latter half of the Cold War, Soviet military strategy was dominated by the concept of “Deep Battle” (Glubokaya Operatsiya). This doctrine eschewed a singular focus on the frontline, instead emphasizing simultaneous, coordinated operations designed to disrupt, disorganize, and destroy the enemy throughout their entire tactical and strategic depth.1 The primary instruments for executing the most audacious elements of this doctrine were the Voyska spetsialnogo naznacheniya, or Spetsnaz. These “special purpose forces,” under the command of the GRU (Main Intelligence Directorate) and the KGB, were tasked with missions far beyond the scope of conventional infantry.4

In the event of a conflict with NATO, Spetsnaz teams were expected to infiltrate deep behind enemy lines, often well before the formal commencement of hostilities. Their mission portfolio was critical: sabotage of vital logistics and communication centers, destruction of high-value strategic assets such as airfields and command posts, and the elimination of key political and military leaders.6 A particularly vital task was the neutralization of NATO’s tactical nuclear delivery systems, including the MGM-52 Lance, MGM-29 Sergeant, and MGM-31 Pershing missile launchers, which posed an existential threat to advancing Soviet armies.6

The absolute prerequisite for the success of these deep operations was stealth. A Spetsnaz team operating hundreds of kilometers inside hostile territory could not survive a conventional engagement. Discovery would lead to a swift and overwhelming response from enemy forces. This reality created an urgent and non-negotiable demand for equipment that prioritized clandestine operation above all other considerations.9 The weapon that would become the Vintorez was therefore conceived from the outset not as a frontline battle rifle, but as a specialized tool for these elite units, enabling them to strike silently and disappear.

The Failure of Ad-Hoc Solutions: The PBS-1 and Subsonic 7.62x39mm

Prior to the development of the Vintorez, the standard suppressed firearm available to Soviet special forces was a conventional AKM assault rifle fitted with a PBS-1 suppressor.11 To achieve sound reduction, this combination relied on special 7.62x39mm subsonic ammunition, designated “US” for Umenshennoy Skorostyu (“Reduced Velocity”).12 While a functional stopgap, this system was plagued by fundamental flaws that made it unsuitable for the demanding deep-operation role.

The primary technical deficiency lay within the PBS-1 suppressor itself. It achieved a gas seal and sufficient backpressure to cycle the Kalashnikov action through a series of disposable rubber baffles, commonly referred to as “wipes”.13 These components were, by their nature, consumable. Their service life was extremely short, often lasting for only 200 rounds or fewer, with performance degrading rapidly and unpredictably, especially in the cold weather conditions common in Europe or with bursts of automatic fire.13 This created an untenable logistical burden for an autonomous Spetsnaz team, which could neither carry a large supply of bulky replacement wipes nor afford to rely on a weapon whose acoustic performance would diminish with every shot. Furthermore, the use of the PBS-1 and subsonic ammunition significantly degraded the rifle’s accuracy, doubling the dispersion rate and making precision shots difficult.13

Compounding this reliability issue was the declining effectiveness of the ammunition. The 194-grain 7.62x39mm subsonic projectile, while heavy for its class, was found to have insufficient terminal performance and, crucially, inadequate penetration against the new generation of NATO body armor and helmets, such as the American PASGT (Personnel Armor System for Ground Troops) system, which was becoming standard issue in the 1980s.12 A weapon that could not reliably defeat the basic protective equipment of a NATO sentry was becoming increasingly obsolete for its intended mission. The ad-hoc solution was, in essence, a failure of both logistics and lethality.

The Vintorez Research and Development Requirement (НИОКР «Винторез»)

Recognizing the shortcomings of the existing systems, the KGB and the GRU jointly issued a formal requirement in the early 1980s for a completely new silent weapon system. The research and development project was given the codename “Vintorez,” a term meaning “thread cutter,” which would later become the rifle’s popular nickname.11

The technical requirements laid out by the program were formidable for the era. The new weapon had to be capable of effective, precise fire out to 400 meters. It needed to reliably defeat a standard steel army helmet at that maximum range and penetrate NATO-standard body armor at more typical engagement distances. It had to provide superior acoustic and flash suppression without relying on perishable components. Finally, it needed to be a takedown design, capable of being quickly disassembled and stored in a discreet special-issue briefcase for clandestine transport and covert operations.17

These demands made it clear that simply modifying an existing weapon or ammunition type would be insufficient. The solution had to be a holistic, integrated system where the firearm and its cartridge were designed in concert, each complementing the other to achieve a synergistic effect. This represented a significant departure from the standard Soviet small arms development philosophy, which often favored adapting existing, proven platforms. The Vintorez program demanded a clean-sheet design, purpose-built from the ground up to serve as a tool for assassination and sabotage. The 400-meter effective range, while short for a traditional “sniper rifle,” was perfectly adequate for the envisioned mission set: engaging a pre-identified, high-value target like a parked fighter jet, a radar installation, or a key officer from a concealed position of opportunity. The Vintorez was never meant to be a sniper’s weapon in the Western sense of long-range interdiction; it was a saboteur’s rifle.

An Integrated System: The Co-Development of Rifle and Cartridge

The task of turning the ambitious Vintorez requirements into functional hardware fell to the Central Scientific-Research Institute for Precision Machine Engineering (ЦНИИТочМаш, TsNIITochMash) in Klimovsk, one of the Soviet Union’s premier small arms design bureaus.20 The project, which began in earnest in 1981, was led by a team of gifted designers including Pyotr Serdyukov and Vladimir Krasnikov.20 Their work culminated in the adoption of the VSS Vintorez into service in 1987, a weapon that embodied a new design philosophy focused on specialized performance over mass-production simplicity.20

The TsNIITochMash Project: A New Design Philosophy

While bearing a superficial resemblance to the Kalashnikov family in its safety lever and charging handle, the VSS operating system is a distinct and more refined design. It employs a long-stroke gas piston located above the barrel, but the similarities end there. The action locks via a robust six-lug rotating bolt, which provides a more precise and consistent lockup into the receiver than the two-lug AK design—a critical feature for an accuracy-focused weapon.11

Furthermore, the receiver itself is machined from a solid steel forging, not stamped from sheet metal like most AK-pattern rifles.30 This manufacturing method results in a much more rigid and stable platform, which is essential for minimizing flexion and maintaining a consistent zero for mounted optics. The fire control group also represents a significant departure, utilizing a linear, striker-fired mechanism similar to that of the Czechoslovakian Vz. 58 rifle, rather than the rotating hammer of the AK.11 A striker-fired system generally allows for a more consistent trigger pull, which is another key contributor to mechanical accuracy. This combination of features—a multi-lug bolt, a machined receiver, and a striker-fired action—demonstrates a clear and deliberate engineering prioritization of precision and system integrity, even at the cost of increased manufacturing complexity compared to the ubiquitous Kalashnikov.

The 9x39mm Solution: Heavy, Slow, and Lethal

The heart of the Vintorez weapon system, and the key to its unique capabilities, is the 9x39mm family of ammunition. Developed in parallel with the rifle by a team at TsNIITochMash, it was engineered to solve the fundamental physics problem that had plagued previous suppressed weapons: how to achieve lethal effect and armor penetration without supersonic velocity. The designers’ solution was elegant in its simplicity: maximize mass to compensate for the lack of speed.

The cartridge is based on the readily available 7.62x39mm M43 case, the same used by the AK-47. The case is necked up to accept a much larger 9.2mm diameter projectile that is exceptionally heavy, typically weighing around 16 grams (approximately 250 grains).12 This massive bullet, traveling at a subsonic velocity of around 290-310 m/s, carries significant kinetic energy and momentum, allowing it to retain its lethality and penetrate barriers far more effectively than a lighter projectile at the same speed.35

From the outset, the project developed two specialized loads to fulfill the system’s dual roles. The primary sniper cartridge, the SP-5 (GRAU index 7N8), was developed by Nikolai Zabelin and L.S. Dvoryaninova.33 It is a full metal jacket (FMJ) boat-tail projectile with a composite steel and lead core, manufactured to high tolerances for maximum accuracy. Some analyses indicate the bullet has a small air pocket in its nose, a design feature borrowed from the 5.45x39mm cartridge, which encourages the bullet to yaw or “keyhole” upon impacting soft tissue, thereby increasing the wound channel and terminal effectiveness.33

The second load, the SP-6 (GRAU index 7N9), was developed by Yuri Frolov and E.S. Kornilova to meet the critical armor penetration requirement.33 This cartridge features a longer, hardened high-carbon tool steel (У12А) penetrator core that fills the entire bullet and protrudes from the tip of the jacket in a semi-jacketed design.37 The exposed, hardened tip, painted black for identification, focuses the bullet’s energy on a small point, allowing it to defeat light armor. The SP-6 was designed to penetrate 8mm of ST3-grade mild steel at 100 meters and reliably defeat Russian GOST Class 2-3 body armor (roughly equivalent to Western NIJ Level IIIA/III) out to 200-300 meters.33 To achieve this, it uses a slightly heavier powder charge than the SP-5, resulting in a marginal increase in velocity and energy.37 The existence of these two specialized loads from the program’s inception underscores the sophisticated tactical thinking behind the weapon system, providing the operator with tailored ammunition for either precision anti-personnel work or anti-materiel/anti-armor applications.

Table 1: 9x39mm Ammunition Specifications and Performance

DesignationBullet Weight (g/gr)Muzzle Velocity (m/s)Muzzle Energy (J)Key Characteristics & Penetration
SP-5 (7N8)16.0–16.8 / 247–259~290~677Sniper load, high accuracy. Steel/lead core. Air pocket for terminal yaw. Effective against GOST 1-2 armor. 33
SP-6 (7N9)16.2–17.3 / 250–267~305~754Armor-piercing. Hardened steel penetrator core. Black tip. Penetrates 8mm steel @ 100m, GOST 3 armor @ 200m. 33
SPP (7N9)~15.7 / 242~310~700“Sniper – Increased Penetration.” An improved sniper round with better penetration than SP-5. 33
BP (7N12)~15.5 / 239~395~650“Armor-Piercing Bullet.” Modernized AP round intended to replace PAB-9, with improved accuracy and penetration over SP-6. 33
PAB-9~17.0 / 262~395~600-700Cheaper AP alternative to SP-6 with a stamped core. Suffered from poor accuracy and high chamber pressure; use was later prohibited. 33

VSS Vintorez: Technical Architecture

The rifle itself is a masterclass in purpose-driven design, with every feature tailored to its clandestine role.

Integral Suppressor: The VSS suppressor is not a simple screw-on “can” but a truly integral part of the weapon’s design, employing a sophisticated two-stage system for sound reduction. The first stage addresses the propellant gases while the bullet is still in the barrel. Just a few inches forward of the chamber, four rows of small, precisely angled ports are drilled through the barrel’s rifling grooves.11 As the bullet passes, these ports bleed a significant volume of high-pressure gas into a large initial expansion chamber—the space between the barrel and the outer suppressor tube. This process accomplishes two things: it dramatically reduces the pressure of the gas that will eventually exit the muzzle, and it lowers the bullet’s velocity, ensuring that even a standard-pressure 9x39mm round remains safely subsonic. This is a more elegant engineering solution than simply downloading the cartridge, as it allows the ammunition to be loaded to a consistent pressure for reliable action cycling. The second stage of suppression occurs at the muzzle, where a series of simple but effective stamped metal baffles disrupt and cool the remaining gas, further muffling the sound signature.20 The result is a weapon that eliminates the supersonic crack entirely and reduces the muzzle report to a level that is difficult to identify as a gunshot, even at close distances.20

Ergonomics and Modularity: The VSS is immediately recognizable by its distinctive skeletonized stock, crafted from laminated wood for a combination of strength and light weight.17 This stock, reminiscent of the SVD Dragunov sniper rifle, attaches to the receiver via a quick-detach latch. This feature, combined with the easily removable suppressor, allows the rifle to be broken down into three compact components (receiver/barrel assembly, suppressor, and stock) and stored in a specially fitted aluminum briefcase, a critical requirement for clandestine transport.20 For mounting optics, the VSS uses the standard Warsaw Pact side rail milled into the receiver. It is most commonly paired with the PSO-1-1 4x telescopic sight, a variant of the SVD’s scope that is specially calibrated with a bullet-drop compensator for the arching trajectory of the 9x39mm cartridge.17 Night vision scopes, such as the NPSU-3, can also be mounted.20

The AS Val Relationship: The VSS was developed in parallel with a sister weapon, the AS Val (Avtomat Spetsialny, or “Special Automatic Rifle”).11 The two weapons are a prime example of a modular-by-role design philosophy, sharing approximately 70% of their parts, including the entire receiver, action, barrel, and suppressor assembly.17 The primary differences are purely ergonomic, tailoring each weapon to its intended role. Where the VSS has the fixed wooden stock for stable precision shooting, the Val features a more compact folding tubular steel stock and a conventional pistol grip, optimizing it for the close-quarters assault role.11 They also share magazines; the VSS is typically issued with 10-round magazines to facilitate shooting from a prone position, while the Val uses 20-round magazines for greater firepower, though the magazines are fully interchangeable between the two platforms.20 This level of commonality was a sophisticated approach for its time, streamlining logistics, training, and manufacturing for a highly specialized weapon family.

Combat Evaluation and Operational Record

A weapon’s true measure is its performance in the field. The VSS Vintorez, designed for the shadowy world of special operations, was blooded in some of the most brutal conflicts of the late 20th and early 21st centuries. Its operational record reveals a weapon that, when used within its intended doctrinal envelope, was exceptionally successful, but also one with clear limitations that defined its niche role.

Trial by Fire: The Chechen Wars and Urban Combat

The VSS Vintorez saw its most extensive and arguably most successful use in the hands of Russian Spetsnaz and MVD (Ministry of Internal Affairs) special units during the First (1994-1996) and Second (1999-2009) Chechen Wars.18 The intense, close-quarters urban combat that characterized the fighting in cities like Grozny proved to be the ideal environment for the Vintorez to demonstrate its unique strengths.

In the chaotic labyrinth of a ruined city, where engagement ranges are short and the ability to remain undetected is paramount, the VSS excelled. Operators who used the weapon praised its performance, particularly for night raids, ambushes, and eliminating high-value targets like enemy commanders and machine gunners.11 One Spetsnaz officer was quoted as saying the VSS was “indispensable for urban hostilities, especially at night,” allowing his men to engage targets with precision “as if you are on a shooting range” without the enemy seeing or hearing a thing.12 Another operator noted that upon receiving the VSS system, he immediately returned his older, less effective AKM rifles with PBS-1 suppressors to the armory.12

Anecdotal combat reports from Chechnya highlight the profound tactical and psychological advantage conferred by the weapon’s stealth. In one widely cited account, a single Russian marksman armed with a VSS, lying in ambush, was able to eliminate an entire enemy unit before they could pinpoint his firing position.12 In the close confines of urban warfare, the VSS’s primary strengths—extreme acoustic and flash suppression combined with high lethality at sub-300 meter ranges—were maximized. Its main weakness, a looping, rainbow-like trajectory at longer distances, was largely negated by the environment. The ability to neutralize a sentry, a sniper, or a command element without the immediate, tell-tale muzzle flash and supersonic crack of a conventional rifle proved to be a decisive advantage, allowing Spetsnaz teams to seize the initiative and sow confusion among their adversaries.

A Balanced Assessment: Strengths and Weaknesses

The Vintorez is a weapon of extremes, a “scalpel” designed for surgical application rather than a “sword” for open battle. Its success is defined by its correct doctrinal use, which maximizes its strengths while mitigating its weaknesses.

Strengths:

  • Unmatched Stealth: The combination of the integral suppressor and subsonic ammunition makes the shooter exceptionally difficult to locate. The lack of a sonic crack and the significant reduction in muzzle report and flash provide a critical tactical advantage, especially at night or in complex urban or wooded terrain where sound can be easily masked or misdirected.12
  • Potent Lethality: The heavy 9x39mm SP-5 and SP-6 projectiles deliver substantial energy to the target. At their intended operational ranges (typically under 400 meters), they exhibit excellent terminal performance and, in the case of the SP-6, reliable penetration against common forms of body armor and light material targets.15
  • Clandestine Portability: The takedown design, allowing the rifle to be discreetly transported in a briefcase, is a crucial feature for the clandestine missions for which it was designed, enabling operators to move into position without attracting attention.20

Weaknesses:

  • Rapid Overheating: The integral suppressor, while effective, is the weapon’s primary thermal bottleneck. It heats up very quickly under sustained fire, particularly in full-auto. After as few as three or four magazines fired in rapid succession, the heat buildup can cause accuracy to degrade as the barrel and suppressor expand, and it can pose a significant burn risk to the operator if not handled carefully. This makes the weapon wholly unsuitable for a general infantry role requiring suppressive fire capabilities.11
  • Demanding Maintenance: The VSS is a high-performance machine with tighter tolerances than a standard-issue Kalashnikov. Its gas system and suppressor are more susceptible to heavy carbon fouling from the burning powder, requiring more frequent and thorough cleaning to maintain reliability.30
  • Limited Effective Range: The subsonic nature of the 9x39mm cartridge results in a highly curved trajectory. While the PSO-1-1 scope is calibrated to compensate for this, making accurate shots beyond 300-400 meters is extremely challenging and requires significant training, skill, and precise range estimation. It is not a long-range precision instrument.15
  • Durability Concerns: While the receiver is robustly machined, some user reports have noted that the stamped sheet metal receiver cover is relatively thin and can be deformed by careless handling or impact, which can affect the zero of any optics mounted to it.44 Additionally, some anecdotal feedback from the conflict in Ukraine has raised concerns about the manufacturing quality and finish of some examples, though this may be a reflection of wartime production pressures rather than a flaw in the original design.47

The Vintorez in Modern Conflicts: Georgia and Ukraine

The VSS Vintorez has continued to serve in modern conflicts, its presence often indicating the deployment of elite Russian units. It was used by both Russian and some Georgian special forces during the 2008 Russo-Georgian War.18

Its most prominent recent use has been in the Russo-Ukrainian War, which began in 2014. The VSS and its sister, the AS Val, have been frequently photographed in the hands of Russian Spetsnaz, naval infantry, and airborne (VDV) units. Consequently, numerous examples have been captured by Ukrainian forces and pressed into their own service.11

Interestingly, Ukraine had a small pre-existing inventory of VSS rifles. Units of the SBU’s elite “Alpha” Group were documented using VSS rifles while providing security for the Ukrainian embassy in Iraq in the 2000s.20 These rifles were likely acquired from Russia in the post-Soviet period of the 1990s or early 2000s. However, by the time of the 2014 invasion, the weapon was largely retired from Ukrainian service due to a critical lack of ammunition.20

This highlights a key dynamic of the VSS in the current conflict. For Russian forces, it remains a potent tool for special operations. For Ukrainian forces, captured VSS and AS Val rifles have become highly prized “status weapons,” their rarity and association with elite Russian operators making them a symbol of a significant combat victory.49 High-ranking officials, such as the Governor of Mykolaiv Oblast, Vitaliy Kim, have been photographed with captured examples. However, their widespread tactical use by Ukraine is severely hampered by the logistical Achilles’ heel of any specialized weapon system: ammunition supply. The non-standard 9x39mm cartridge is not produced in Ukraine, making captured rifles valuable but difficult-to-feed assets on a battlefield where logistics are paramount.

Legacy, Influence, and Comparative Analysis

The VSS Vintorez did not emerge in a vacuum, nor has its influence been confined to the borders of the former Soviet Union. Evaluating its design against its global peers and tracing its conceptual lineage reveals a weapon that was both a unique solution to a specific problem and a harbinger of future trends in special operations firearms.

The Vintorez and its Peers: A Unique Niche

A comparative analysis shows that for much of its service life, the VSS occupied a unique performance niche with no direct Western equivalent.

  • vs. Heckler & Koch MP5SD: The closest Western contemporary in terms of an integrally suppressed weapon was the German H&K MP5SD.51 However, this is not an apples-to-apples comparison. The MP5SD is a submachine gun firing 9x19mm Parabellum pistol ammunition. While exceptionally quiet and controllable, it lacks the effective range and, most importantly, the armor-penetrating capability of the VSS.15 The VSS is best understood as an “MP5SD on steroids”—it takes the core concept of a highly effective, integrally suppressed platform and elevates it by chambering it in a true rifle-class cartridge, creating a tool for a much more demanding mission set that involves engaging protected targets at intermediate distances.15
  • vs. Suppressed Western Carbines (M4/300 BLK): The most direct modern Western analogue to the VSS Vintorez concept is a short-barreled AR-15 platform carbine chambered in.300 AAC Blackout.12 The.300 BLK cartridge was developed in the 2000s specifically to provide the M4/AR-15 platform with a heavy subsonic option that offered better performance than suppressed 5.56mm. The fact that the Soviet 9x39mm cartridge and the VSS platform predated this concept by more than two decades demonstrates remarkable foresight on the part of the designers at TsNIITochMash.47 While conceptually similar, the 9x39mm typically fires a heavier projectile (250-280 grains) compared to most.300 BLK subsonic loads (190-220 grains), giving it a distinct advantage in muzzle energy and momentum.12 The more fundamental difference, however, is philosophical. The VSS is a dedicated, integrated system, a “unicasker” optimized for one role. The.300 BLK is part of a modular system that allows an operator to easily convert a standard M4 carbine between subsonic and supersonic roles by simply swapping the upper receiver.54 This reflects a core divergence in design approach: the Soviets built the perfect, specialized tool for a single, known job, whereas the US developed a highly adaptable toolkit to handle a multitude of known and unknown future tasks.
  • vs. De Lisle Carbine: The British De Lisle carbine of World War II was another purpose-built suppressed weapon for special operations, renowned for its extreme quietness.55 Both weapons were designed for covert sentry removal. However, the De Lisle was a manually operated, bolt-action rifle firing the.45 ACP pistol cartridge from a modified M1911 magazine.55 The VSS, being a semi-automatic and select-fire, magazine-fed weapon firing a dedicated armor-piercing rifle cartridge, represents a quantum leap in technology and capability, offering faster follow-up shots and far greater lethality against protected targets.31

Table 2: Comparative Performance Metrics: VSS vs. Key Contemporaries

Weapon SystemCartridgeMuzzle Energy (Subsonic)Stated Effective RangeArmor Penetration Capability
VSS Vintorez9x39mm SP-6 (~250gr)~750 Joules300-400 metersDefeats soft armor and older helmets/plates. 8mm steel @ 100m. 36
H&K MP5SD9x19mm (~147gr)~450 Joules~75 metersGenerally ineffective against rifle-rated body armor. 15
M4 Carbine (Suppressed).300 BLK (~220gr)~650 Joules~200 metersEffective against soft armor; limited effectiveness against hard plates. 12

The Proliferation of a Concept: The 9x39mm Family

The success of the VSS/AS Val platform and the 9x39mm cartridge validated the concept of a heavy subsonic rifle round for special operations within the Soviet and later Russian military and security structures. This led to the development of an entire family of weapons chambered for the same cartridge, each tailored to a slightly different niche. These include:

  • The SR-3/SR-3M “Vikhr” (“Whirlwind”), a compact assault rifle designed for close-quarters battle and VIP protection units like the FSO. It uses the same action as the Val but dispenses with the bulky integral suppressor in favor of maximum compactness, featuring a top-folding stock and, in the “M” version, a folding foregrip.10
  • The 9A-91, a simplified and even more compact carbine developed as a lower-cost alternative to the SR-3.10
  • The OTs-14 “Groza” (“Thunderstorm”), a bullpup assault rifle based on the AKS-74U action, which was offered in a 9x39mm configuration. It saw limited use, primarily with MVD special units.10

The core idea of a heavy, hard-hitting subsonic round was taken to its logical extreme with the later development of the massive 12.7x55mm cartridge, used in the ASh-12.7 assault rifle and the VSSK Vykhlop suppressed sniper rifle. This shows a clear conceptual lineage tracing back to the pioneering work done on the 9x39mm program.10 Furthermore, the original VSS and AS Val have not been left behind. Modernized variants, the VSSM and ASM, have been introduced, featuring more durable materials, improved ergonomics with adjustable aluminum stocks, and integrated Picatinny rails on the receiver cover and handguard to easily mount modern Western and Russian optics, lasers, and other accessories.11 This continued evolution demonstrates that the core system remains relevant and effective on the modern battlefield.

Final Verdict: A Resoundingly Successful Niche Pioneer

When measured against the specific and challenging requirements set forth by its original designers, the VSS Vintorez was an unqualified success. It provided Soviet Spetsnaz with a capability they critically lacked: a reliable, durable, logistically simple, and lethally effective integrally suppressed weapon system capable of defeating protected targets during clandestine operations. It decisively solved the critical flaws of the preceding AKM/PBS-1 combination and delivered a new level of tactical advantage to its elite users.

The primary legacy of the Vintorez is its role as a pioneer. It validated the concept of the heavy subsonic rifle cartridge for special operations a full two decades before the idea became a mainstream trend in the West with the introduction of the.300 Blackout. Its design demonstrated a sophisticated understanding of the interplay between ammunition, ballistics, and suppressor technology. While its highly specialized nature inherently limits its application outside of its intended role, the Vintorez remains a benchmark for integrated suppressed rifle design. The weapon’s continued use, modernization, and the mystique it holds as a prized “trophy” on the modern battlefield are all testaments to the enduring effectiveness and ingenuity of its design. The VSS Vintorez was, and remains, the perfect tool for a very specific, and very dangerous, job.


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Sources Used

  1. Deep operation – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/Deep_operation
  2. Soviet Deep Operations Doctrine: Origins and Key Theorists – War and Civilization, accessed August 4, 2025, https://www.camrea.org/2024/09/05/soviet-deep-operations-doctrine-origins-and-key-theorists/
  3. Deep Battle: Soviet Doctrine for Operational Level Warfare – Steven’s Balagan, accessed August 4, 2025, https://balagan.info/deep-battle-soviet-doctrine-for-operational-level-warfare
  4. Spetsnaz – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/Spetsnaz
  5. Every Russian Spetsnaz Unit explained – YouTube, accessed August 4, 2025, https://www.youtube.com/watch?v=zrB15bOZ8aE
  6. Spetsnaz GRU – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/Spetsnaz_GRU
  7. Reagan and the Soviet Union: Competing Military Strategies, 1980-1988, accessed August 4, 2025, https://www.vmi.edu/media/content-assets/documents/adams-center/4-Military-Strategies_Final.pdf
  8. SPETsNAZ: A Soviet Sabotage Threat. – DTIC, accessed August 4, 2025, https://apps.dtic.mil/sti/tr/pdf/ADA168375.pdf
  9. When did cold steel really give way to suppressed firearms when it came to sentry removal and other stealth missons : r/WarCollege – Reddit, accessed August 4, 2025, https://www.reddit.com/r/WarCollege/comments/1lwjpwe/when_did_cold_steel_really_give_way_to_suppressed/
  10. What was the purpose of Soviet/Russian silenced firearms and what did squads using them looked like? – Reddit, accessed August 4, 2025, https://www.reddit.com/r/WarCollege/comments/m60jyj/what_was_the_purpose_of_sovietrussian_silenced/
  11. VSS Vintorez: Russia’s Silent Sniper Rifle – Forgotten Weapons, accessed August 4, 2025, https://www.forgottenweapons.com/vss-vintorez-russias-silent-sniper-rifle/
  12. What Can We Learn From the Interesting 9x39mm – Firearms News, accessed August 4, 2025, https://www.firearmsnews.com/editorial/can-learn-interesting-9x39mm/520983
  13. 9x39mm: The Ins & Outs of the Russian Round – Pew Pew Tactical, accessed August 4, 2025, https://www.pewpewtactical.com/9x39mm-ammo/
  14. What was the intended deign use of the VSS Vintorez & AS-Val & why has no one else done something similar? : r/WarCollege – Reddit, accessed August 4, 2025, https://www.reddit.com/r/WarCollege/comments/qxwnbr/what_was_the_intended_deign_use_of_the_vss/
  15. VSS Vintorez used by Russian snipers. : r/ForgottenWeapons – Reddit, accessed August 4, 2025, https://www.reddit.com/r/ForgottenWeapons/comments/1ilepws/vss_vintorez_used_by_russian_snipers/
  16. Body Armor Doesn’t Matter: Russia’s VSS Vintorez Is Silent But Deadly, accessed August 4, 2025, https://nationalinterest.org/blog/reboot/body-armor-doesnt-matter-russias-vss-vintorez-silent-deadly-182981
  17. VSS Vintorez Russian 9mm Sniper Rifle – ODIN – OE Data Integration Network, accessed August 4, 2025, https://odin.tradoc.army.mil/WEG/Asset/eea595ed5828ddddf717b560c224dd05
  18. The VSS Vintorez: Whisper Of Spetsnaz – SpecialOperations.com, accessed August 4, 2025, https://specialoperations.com/28780/vss-vintorez-whisper-spetsnaz/
  19. The VSS Vintorez in the Service of Russian Gangs in Donbas – InformNapalm.org (English), accessed August 4, 2025, https://informnapalm.org/en/vss-vintorez-donbas/
  20. AS Val and VSS Vintorez – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/AS_Val_and_VSS_Vintorez
  21. Почему у винтореза ВСС такой странный приклад, и зачем он …, accessed August 4, 2025, https://novate.ru/blogs/010524/69526/
  22. Паноптикум: винтовка снайперская специальная «Винторез» || Калашников Медиа, accessed August 4, 2025, https://kalashnikovgroup.ru/media/panoptikum/panoptikum-vintovka-snayperskaya-spetsialnaya-vintorez
  23. Центральный научно-исследовательский институт точного машиностроения, accessed August 4, 2025, https://ru.wikipedia.org/wiki/%D0%A6%D0%B5%D0%BD%D1%82%D1%80%D0%B0%D0%BB%D1%8C%D0%BD%D1%8B%D0%B9_%D0%BD%D0%B0%D1%83%D1%87%D0%BD%D0%BE-%D0%B8%D1%81%D1%81%D0%BB%D0%B5%D0%B4%D0%BE%D0%B2%D0%B0%D1%82%D0%B5%D0%BB%D1%8C%D1%81%D0%BA%D0%B8%D0%B9_%D0%B8%D0%BD%D1%81%D1%82%D0%B8%D1%82%D1%83%D1%82_%D1%82%D0%BE%D1%87%D0%BD%D0%BE%D0%B3%D0%BE_%D0%BC%D0%B0%D1%88%D0%B8%D0%BD%D0%BE%D1%81%D1%82%D1%80%D0%BE%D0%B5%D0%BD%D0%B8%D1%8F
  24. Винторез – Википедия, accessed August 4, 2025, https://ru.wikipedia.org/wiki/%D0%92%D0%B8%D0%BD%D1%82%D0%BE%D1%80%D0%B5%D0%B7
  25. AS Val and VSS Vintorez – Wikiwand, accessed August 4, 2025, https://www.wikiwand.com/en/articles/VSS_Vintorez_and_AS_Val
  26. How a VSS Vintorez Suppressed Rifle Works – YouTube, accessed August 4, 2025, https://www.youtube.com/watch?v=AQE3fzEYb94
  27. VSS Vintorez | Weaponsystems.net, accessed August 4, 2025, https://weaponsystems.net/system/263-VSS+Vintorez
  28. VSS Vintorez: Russia’s Silent Sniper Rifle – YouTube, accessed August 4, 2025, https://www.youtube.com/watch?v=znIjsaJJ7Rg&pp=0gcJCfwAo7VqN5tD
  29. VISKA — Slagga Mfg LLC, accessed August 4, 2025, http://www.slaggamfg.com/viska
  30. Бесшумная винтовка специальная снайперская ВСС («Винторез …, accessed August 4, 2025, https://military.wikireading.ru/59141
  31. 9mm Sniper Rifle.Fantasy or reality? – GunSite South Africa, accessed August 4, 2025, https://www.gunsite.co.za/forums/showthread.php?5993-9mm-Sniper-Rifle-Fantasy-or-reality
  32. Talk to me about the VSS Vintorez | Primary & Secondary Forum, accessed August 4, 2025, https://primaryandsecondary.com/forum/index.php?threads/talk-to-me-about-the-vss-vintorez.5070/
  33. 9×39mm – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/9%C3%9739mm
  34. A few 9x39mm subsonic ammo loads : r/GunPorn – Reddit, accessed August 4, 2025, https://www.reddit.com/r/GunPorn/comments/g12yjs/a_few_9x39mm_subsonic_ammo_loads/
  35. 9×39 – gorilla machining, accessed August 4, 2025, https://www.gorillamachining.com/9x39_b_125.html
  36. 9x39mm Soviet – Weaponsystems.net, accessed August 4, 2025, https://weaponsystems.net/system/1048-9x39mm+Soviet
  37. 9 × 39 мм — Википедия, accessed August 4, 2025, https://ru.wikipedia.org/wiki/9_%C3%97_39_%D0%BC%D0%BC
  38. ВСС «Винторез» — обзор бесшумной снайперской винтовки 9х39 мм, ТТХ, конструкция, патроны СП-5 и СП-6 – Guns.Club, accessed August 4, 2025, https://guns.club/lib/oruzhie/spetsialnaya-vintovka-vss-vintorez/
  39. Патрон 9х39 / СП-5 / СП-6 / ПАБ-9 – история, описание и характеристики, фото и схемы, accessed August 4, 2025, https://weaponland.ru/board/patron_9kh39_sp_5_sp_6_pab_9/38-1-0-487
  40. Патрон СП-6 – описание, характеристики, accessed August 4, 2025, https://vimpel-v.com/main_shooting/ammunition/208-patron-9×39-sp-6.html
  41. VSS Vintorez – Simple English Wikipedia, the free encyclopedia, accessed August 4, 2025, https://simple.wikipedia.org/wiki/VSS_Vintorez
  42. AS Val Russian 9mm Assault Rifle – OE Data Integration Network, accessed August 4, 2025, https://odin.tradoc.army.mil/WEG/Asset/947e79dfafb7c633d509b8dd12f50b89
  43. Винтовка снайперская специальная ВСС “Винторез” – Спецназ.орг, accessed August 4, 2025, https://www.spec-naz.org/armory/sniper_rifles/vss_special_sniper_rifle_quot_vintorez_quot/
  44. Новый, но не лучший. Размышления о новом «Винторезе» – Военное обозрение, accessed August 4, 2025, https://topwar.ru/172580-novyj-no-ne-luchshij-razmyshlenija-o-novom-vintoreze.html
  45. Any *real* reports and opinions on the VSS Vintorez and the likes? : r/guns – Reddit, accessed August 4, 2025, https://www.reddit.com/r/guns/comments/5du0jn/any_real_reports_and_opinions_on_the_vss_vintorez/
  46. VSS vs M4 supressed with acog – General Discussion – DayZ Forums, accessed August 4, 2025, https://forums.dayz.com/topic/234262-vss-vs-m4-supressed-with-acog/
  47. Captured russian VSSM Vintorez and AS Val. [2160×1116] : r/MilitaryPorn – Reddit, accessed August 4, 2025, https://www.reddit.com/r/MilitaryPorn/comments/168wbbx/captured_russian_vssm_vintorez_and_as_val_21601116/
  48. Ukrainian Captures Rare Russian VSS : r/NFA – Reddit, accessed August 4, 2025, https://www.reddit.com/r/NFA/comments/1i0vg2b/ukrainian_captures_rare_russian_vss/
  49. Status Weapons in Ukraine – Grey Dynamics, accessed August 4, 2025, https://greydynamics.com/status-weapons-in-ukraine/
  50. VSS Vintorez used by Ukrainian special forces in Iraq – Safar Publishing, accessed August 4, 2025, https://www.safar-publishing.com/post/vss-vintorez-used-by-ukrainian-special-forces-in-iraq
  51. Heckler & Koch MP5 – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/Heckler_%26_Koch_MP5
  52. MP5SD – HK USA, accessed August 4, 2025, https://hk-usa.com/product/mp5sd/
  53. The 9×39 – A New Cartridge from Russia – RifleShooter, accessed August 4, 2025, https://www.rifleshootermag.com/editorial/the-9×39-a-new-cartridge-from-russia/329695
  54. M4 carbine – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/M4_carbine
  55. De Lisle carbine – Wikipedia, accessed August 4, 2025, https://en.wikipedia.org/wiki/De_Lisle_carbine
  56. New weapon confirmed? VSS Vintorez – General Discussion – DayZ Forums, accessed August 4, 2025, https://forums.dayz.com/topic/223189-new-weapon-confirmed-vss-vintorez/

The Road Not Taken: An Analytical History of Failed Soviet and Russian Small Arms Projects

The history of Soviet and, subsequently, Russian small arms development over the past century is often dominated by the towering success of the Kalashnikov platform. However, to fully comprehend the reasons for the AK’s enduring dominance, one must study not only its triumphs but also the numerous ambitious, innovative, and sometimes bizarre projects that failed to supplant it. These failures, far from being mere historical footnotes, are crucial for understanding the foundational philosophy that has guided Soviet and Russian weapons procurement for generations. This philosophy can be best described as the “Doctrine of Sufficient Excellence.”

Forged in the crucible of the Second World War and solidified during the Cold War, this doctrine is not a formal written mandate but an ingrained institutional mindset. It prioritizes a specific hierarchy of characteristics for a general-issue infantry weapon. At the apex is absolute reliability under the most adverse conditions imaginable—mud, sand, ice, and neglect.1 Following closely are simplicity of operation, enabling a vast, conscript-based army to achieve basic proficiency with minimal training, and ease of mass production, allowing for rapid armament and replacement during a large-scale conflict.1 Ergonomic refinement, modularity, and even exceptional accuracy, while desirable, are considered secondary attributes. A weapon is deemed “sufficiently excellent” when it perfectly fulfills these primary requirements, even if it is surpassed by competitors in other metrics.

This report will analyze a selection of key Soviet and Russian small arms projects that are considered failures. A project is categorized as a “failure” not necessarily because it was a technically deficient weapon in isolation, but because it violated one or more of the core tenets of this doctrine without offering a sufficiently compelling, game-changing advantage to justify the deviation. Through an examination of these case studies, we will explore projects that were too complex for their time, too radical for their military culture, too expensive for their economy, or doctrinally misaligned with the realities of the Soviet and Russian way of war.

Part I: The Pre-Kalashnikov Era – Forging a Doctrine in Steel and Fire

Before the Kalashnikov became the defining symbol of Soviet military might, the Red Army’s small arms development was characterized by ambitious experimentation. This period produced some of the world’s first examples of modern weapon concepts, but it also provided harsh, formative lessons that would directly shape the stringent requirements for all future infantry arms.

Case Study: The AVS-36 Automatic Rifle

The Avtomaticheskaya Vintovka Simonova obraztsa 1936 goda (AVS-36) stands as a landmark of firearms history, being one of the world’s first select-fire infantry rifles to be formally adopted for military service.3 Designed by Sergei Simonov, it represented a technologically bold leap for the Red Army in the 1930s, promising to equip the individual soldier with the firepower of a machine gun in the form of a standard rifle. However, its service life would prove to be a brief and cautionary tale.

Technical Flaws

The AVS-36 was a gas-operated rifle chambered in the powerful 7.62x54mmR cartridge. Its ambition was matched only by its mechanical complexity. The operating mechanism was intricate, utilizing a short piston stroke and a vertically sliding locking block that was highly susceptible to fouling.3 The very construction of the rifle, with its numerous openings and moving parts, was an invitation for dirt and debris to enter the action, a critical flaw for a weapon intended for frontline infantry use.3 Russian sources note that the rifle suffered from a fragile receiver and a problematic bolt group, further compromising its field-worthiness.4 It was also notoriously “fickle” regarding ammunition quality, a significant liability for an army that prioritized logistical simplicity.3

Operational Failure (The Winter War)

The AVS-36’s baptism by fire came during the Soviet-Japanese border conflicts and, most significantly, the 1939-1940 Winter War against Finland. It was in the brutal, sub-zero conditions of the Karelian Isthmus that the rifle’s design deficiencies became catastrophically apparent. Many rifles were shipped to the front still coated in their thick, cosmoline-like storage grease. In the extreme cold, this grease “froze” solid, rendering the complex actions of the rifles completely inoperable.3 This single issue, born of a combination of poor logistical preparation and a design intolerant of such neglect, crippled the weapon’s effectiveness.

Furthermore, while the rifle’s large muzzle brake was quite effective at mitigating muzzle climb, the sheer, intense recoil impulse of the full-power 7.62x54mmR cartridge made automatic fire wildly impractical.3 The weapon was virtually uncontrollable in full-auto, negating its primary conceptual advantage over bolt-action and semi-automatic rifles. The intended doctrine of using automatic fire to repulse sudden attacks was largely a fantasy, as soldiers could not keep their sights on target.5

Political and Logistical Demise

The AVS-36’s poor performance did not go unnoticed. A competing design by Fedor Tokarev, the SVT-38, was also adopted and, while not without its own initial flaws, was considered a sturdier and more reliable weapon.3 A politicized dispute arose within the Soviet elite, and Simonov’s design, seen as lighter but more fragile, lost out.3 Production of the AVS-36 was terminated in 1940 after a run of approximately 35,000 to 65,000 units, and the rifle was rapidly withdrawn from service, with many captured examples being used by Finnish forces.3

The failure of the AVS-36 was a pivotal moment in the formation of Soviet small arms doctrine. It was a brutal, real-world lesson that advanced features and theoretical advantages are utterly worthless if they come at the expense of fundamental reliability in the hands of a conscript soldier under the worst possible conditions. The Red Army’s experience in Finland, where the simple, crude, but utterly dependable PPSh-41 submachine gun proved devastatingly effective, stood in stark contrast to the failure of the complex AVS-36. The Soviet command learned that the ideal infantry weapon was not the one with the most features, but the one that always worked. This experience directly shaped the non-negotiable requirements for simplicity and reliability in the post-war trials that would ultimately produce the AK-47. The AVS-36 had to fail so the Kalashnikov could succeed.

Part II: The Shadow of the AK – Challenging an Icon

Following the adoption of the AK-47, Soviet small arms design entered a new era. The Kalashnikov was not just a rifle; it was the physical embodiment of the Doctrine of Sufficient Excellence. It became the benchmark against which all future designs would be judged. Any potential replacement would not only have to be better, but so overwhelmingly superior that it could justify the monumental cost of replacing an entire, established ecosystem.

Case Study: The TKB-517 – The Technically Superior Contender

In the mid-1950s, the Soviet military initiated a competition to find a replacement for the original milled-receiver AK-47. The primary objectives were to develop a weapon that was cheaper and faster to produce using modern stamped-steel manufacturing techniques, and to improve upon the AK-47’s notoriously poor controllability during automatic fire.6 The two main finalists in this contest were Mikhail Kalashnikov’s modernized prototype, which would become the AKM, and a highly refined rifle from the Tula design bureau, the TKB-517, designed by the brilliant German A. Korobov.6

Technical Analysis

Externally, the TKB-517 bore a strong resemblance to the Kalashnikov, featuring a similar layout and construction from stamped steel with wood furniture.7 Internally, however, it was a completely different machine. Instead of the AK’s robust and simple long-stroke gas piston and rotating bolt, Korobov employed a sophisticated lever-delayed blowback mechanism based on the principles pioneered by Pál Király.7 This system used mechanical leverage to delay the rearward motion of the bolt, allowing chamber pressure to drop to safe levels before extraction. This method of operation offered several potential advantages, including a smoother recoil impulse and the elimination of the violent impacts characteristic of the AK’s gas system.

Performance in Trials

During extensive competitive trials, the TKB-517 demonstrated clear superiority over the Kalashnikov prototype in several key performance areas. Multiple sources, including Russian-language publications, confirm that Korobov’s rifle was significantly more accurate and controllable, especially during full-automatic fire.7 One report from the 1955 trials explicitly states that even poorly trained soldiers, firing in bursts from a supported position, achieved better results with the TKB-517 than with the proto-AKM.10 Furthermore, the TKB-517 was found to be more reliable, particularly in fine sand conditions where the AK’s open gas system was more vulnerable, and was also lighter and simpler (and therefore cheaper) to manufacture.7 By most objective metrics of the competition, the TKB-517 was the better rifle. One Russian source bluntly states that the AKM was “losing the competition”.10

Reasons for Rejection

Despite its demonstrated superiority, the TKB-517 was not selected. The decision was not based on a failure of the weapon itself, but on powerful institutional and logistical factors. The official justification cited the Soviet military’s existing familiarity and “greater proficiency” with the Kalashnikov’s manual of arms and operating system.7 The selection committee, faced with a choice between a superior but novel design and an evolutionary improvement of a known and trusted system, chose the latter.10 While a potential technical concern may have been the higher extraction pressure common to lever-delayed actions, the primary driver was institutional conservatism and logistical pragmatism.7

The rejection of the TKB-517 is the quintessential example of “procurement inertia.” The failure was not one of engineering, but of the rifle’s inability to overcome the immense industrial, training, and logistical ecosystem already built around the Kalashnikov. The Soviet Union had already invested heavily in the AK platform. Millions of soldiers were trained on its operation and maintenance. Armorers across the armed forces were experts in its service. Factories were tooled for its specific manufacturing processes. Adopting the TKB-517 would have necessitated a complete and costly overhaul of this entire system: new factory tooling, new training manuals and curricula for every soldier and armorer, and a completely separate supply chain for spare parts. The performance advantages offered by Korobov’s rifle, while real, were simply not great enough to justify the astronomical economic and logistical cost of replacing the entire, entrenched Kalashnikov ecosystem. The Soviet system chose the “good enough” evolutionary step (the AKM) over the “better” revolutionary one because the former was exponentially cheaper, faster, and less disruptive to implement on a national scale. This decision cemented the Kalashnikov’s dominance for decades to come.

Table 1: Comparative Performance Metrics: AKM vs. TKB-517 (c. 1955 Trials)

FeatureTKB-517 (Korobov)AKM (Kalashnikov Prototype)
Action TypeLever-Delayed BlowbackGas-Operated, Rotating Bolt
Caliber7.62×39mm7.62×39mm
Weight (Unloaded)3.18 kg 7Heavier than TKB-517
Length910 mm 7Similar to TKB-517
Barrel Length415 mm 7415 mm
Rate of Fire560 rounds/min 7~600 rounds/min
Accuracy (Trials)Superior to AKM, especially in full-auto 7Inferior to TKB-517 10
Reliability (Trials)Superior to AKM, especially in sand 7Met requirements, but less reliable than TKB-517 12
Production MethodStamped SteelStamped Steel
Production CostLower than AKM 9Higher than TKB-517 9

Part III: The Avant-Garde – When Innovation Outpaces Doctrine

While the mainstream of Soviet arms development flowed conservatively down the path of the Kalashnikov, there were powerful undercurrents of radical innovation. Designers, often working in the relative obscurity of state design bureaus, explored concepts that were decades ahead of their time. These projects, while engineering marvels, almost invariably failed to gain traction, crashing against the rigid wall of Soviet military doctrine and technological readiness.

Case Study: German Korobov and the Bullpup Heresy (TKB-022PM)

German A. Korobov was perhaps the most prolific and visionary of the Soviet Union’s “unknown” weapons designers.14 While none of his designs were ever adopted for mass production, his work consistently pushed the boundaries of conventional firearm engineering.11 His TKB-022PM series of assault rifles, developed in the 1960s as a potential competitor to the AKM, was his most radical and perhaps most brilliant creation.18

Radical Design

The TKB-022PM was a bullpup rifle, a configuration that places the action and magazine behind the trigger group to achieve a shorter overall weapon length without sacrificing barrel length.19 This was already a novel concept for the time, but Korobov’s design went much further. It utilized a vertically moving breechblock and an annular gas piston that encircled the barrel, allowing for an incredibly compact receiver group.18

Its most revolutionary feature, however, was its forward ejection system. A U-shaped rammer/extractor would chamber a round, and after firing, would pull the spent casing back and then push it forward and up into an ejection tube running parallel to and above the barrel. The casing would then exit from a port near the muzzle.18 This ingenious solution completely solved the primary drawback of most bullpup designs—the ejection of hot brass into the face of a left-handed shooter—making the TKB-022PM truly and effortlessly ambidextrous.18 This design gave the TKB-022PM the best barrel-length-to-overall-length ratio of any assault rifle of its era.18

Performance

The rifle’s performance in trials was exceptional. Firing from unstable positions, it demonstrated three times better accuracy than the standard-issue AKM.18 It was also remarkably light, with some variants weighing as little as

2.34 kg, thanks to its extensive use of Bakelite, an early polymer, for its housing.18

Reasons for Rejection

Despite its stellar performance, the TKB-022PM was rejected by the Soviet army for being “too radical”.18 The military establishment, deeply conservative in its approach to infantry weapons, was unwilling to embrace such a dramatic departure from the conventional layout of the Kalashnikov. Specific concerns were raised about the unfamiliar rearward balance of the bullpup design, and, critically, the long-term durability of the plastic housing under the harsh conditions of Soviet military service or during decades of strategic storage.18 One Russian source also suggests a more pragmatic reason for its rejection: at the time, small arms were considered an auxiliary component of the Soviet war machine, and the leadership decided that development funds were better spent on higher-priority systems like missiles and tanks.25

Case Study: The VAG-73 Caseless Pistol – A Technological Mirage

In 1973, a self-taught engineer named Vladimir Gerasimenko presented the authorities with a unique and ambitious project: the VAG-73, a select-fire machine pistol that used caseless ammunition.26 This was not a state-sponsored program but a personal initiative, a testament to the innovative spirit present even within the rigid Soviet system.

Ambitious Technology

The VAG-73 was designed around a revolutionary ammunition concept. It fired a 7.62mm projectile that had no traditional brass or steel cartridge case. Instead, the propellant charge was pressed directly into a recess in the base of the steel bullet itself.26 Upon firing, the propellant was consumed entirely, eliminating the need for an extraction and ejection cycle. This technology is sometimes referred to as a “gyrojet” type, as the projectile is essentially a self-propelled rocket.28 To feed this unique ammunition, Gerasimenko designed a massive tandem magazine system, effectively two double-stack magazines welded together, giving the pistol an unheard-of 48-round capacity.26

Catastrophic Failure

The project was an unmitigated disaster. While conceptually brilliant, the underlying technology was simply not mature enough for a practical weapon. The VAG-73 was plagued with problems. It was extremely unreliable, overly complicated, and excessively heavy, weighing 1.2 kg—one and a half times more than the standard Makarov pistol it was intended to compete against.26 The caseless ammunition itself was the core of the problem. It was prohibitively expensive to manufacture and suffered from all the classic issues of early caseless designs: poor accuracy due to inconsistent propellant burn, low muzzle velocity, and a dangerous propensity for “cook-offs,” where residual heat in the chamber could prematurely ignite the exposed propellant of the next round.26 The weapon comprehensively failed what one analyst called the “Russia test”: it was finicky, demanded constant care, was difficult to disassemble and clean, and proved utterly non-durable.26 Only a single prototype was ever made, and the project led to no further developments.28

These two case studies perfectly illustrate the dual prerequisites for successful innovation within a conservative military structure: a clear doctrinal need and sufficient technological maturity. Korobov’s TKB-022PM was a brilliant solution to a problem—the need for a more compact infantry rifle—that the Soviet army, with its doctrine of massed infantry combat in open terrain, did not believe it had. There was no “doctrinal pull” to justify the risk of adopting a radical new layout. Furthermore, its reliance on polymers, while forward-thinking, was perceived as a liability by a military that trusted only steel and wood.18 The VAG-73, on the other hand, pursued the “holy grail” of caseless ammunition, but the fundamental science was not ready. The resulting weapon was a collection of unworkable compromises that failed to meet even the most basic requirements of a service firearm. Visionary engineering, in isolation, is not enough. Without a clear military requirement to justify the risk and cost of change, and without a mature industrial and material science base to reliably support the new design, even the most brilliant concepts are destined to remain museum pieces. German Korobov was ahead of his time; Vladimir Gerasimenko was ahead of his technology.

Part IV: Project “Abakan” – The Perilous Pursuit of Perfection

By the late 1970s, the Soviet military had adopted the AK-74 and its new 5.45x39mm cartridge. While the new rifle was an effective evolution of the Kalashnikov design, there was a growing concern that the accuracy of the average conscript soldier was insufficient for the modern battlefield. In 1978, the Ministry of Defense launched an ambitious research and development competition, codenamed “Abakan,” with a single, highly specific goal: to develop a new assault rifle with a combat effectiveness—primarily defined as hit probability—1.5 to 2 times greater than the AK-74, especially when firing in bursts from unstable positions.32 This narrow and demanding requirement spurred a wave of some of the most complex and mechanically ingenious rifle designs ever created.

Table 2: Key Finalists of the “Abakan” Competition

FeatureAN-94 (Nikonov)AO-63 (Simonov & Tkachev)TKB-0146 (Stechkin)
Core Technical ApproachBlowback Shifted Pulse (BBSP) with recoiling receiver, pulley, and cable 36Double-barreled, dual gas systems 35Recoil Impulse Displacement (carriage-mounted system) 32
Burst Rate of Fire1,800 rounds/min (2-round) 366,000 rounds/min (2-round) 37High (unspecified, similar principle to AN-94) 33
Key Strengths (Trials)Excellent accuracy in 2-round burst, met core requirement 38Highly accurate, simple, and reliable according to reports 37Excellent accuracy, very low felt recoil 33
Key WeaknessesExtreme mechanical complexity, poor ergonomics, high cost 40Prohibitive production cost and complexity due to dual components 35High complexity, sensitivity to dirt 34

Case Study: The AO-63 Double-Barreled Rifle

Of all the entries in the Abakan trials, the AO-63, designed by Sergei Simonov and Peter Tkachev, was perhaps the most direct and audacious solution to the accuracy problem.37 Rather than attempting to manage the recoil of a single barrel, the designers simply added a second one.

A Brute-Force Solution

The AO-63 was a twin-barreled assault rifle, with two barrels mounted side-by-side in a single receiver.35 To function, this required a complete duplication of the core operating mechanism: two gas pistons, two rotating bolts, and two hammers, all working in concert.35 Its signature feature was a two-round burst mode that fired the barrels sequentially with a minuscule delay of just 0.01 seconds. This translated to a theoretical rate of fire of an astonishing 6,000 rounds per minute.37 The design philosophy was brutally simple: to land two projectiles on the target in such rapid succession that the shooter’s aim would not be disturbed by the recoil impulse of the first shot. The rifle also featured a unique full-automatic mode that fired the initial hyperburst from both barrels before continuing sustained fire from only the primary (right) barrel at a more conventional 850 RPM.35

Performance and Rejection

According to official reports from the trials, the AO-63 performed remarkably well. It was described as being highly accurate, as well as simple and reliable in its operation—a surprising assessment given its internal complexity.37 Despite this positive evaluation, the rifle was eventually dropped from the competition. While the official records state the reasons are “unknown,” the cause is almost certainly rooted in the practical realities of production.37 The sheer complexity of manufacturing a service rifle with two of every core component would have been an industrial and logistical nightmare, leading to prohibitively high production and maintenance costs.35

Case Study: The AN-94 – Victory in Trials, Failure in Service

The eventual winner of the Abakan competition was Gennadiy Nikonov’s design, which would be formally adopted in 1994 as the AN-94.38 It was a weapon of breathtaking mechanical complexity, often compared to a Swiss watch for its intricate internal workings.

A Watchmaker’s Solution

The AN-94 achieved its accuracy through a system Nikonov called “blowback shifted pulse” (BBSP).36 The entire firing mechanism—barrel, receiver, and bolt group—was a single unit capable of recoiling back and forth within an external polymer housing that the soldier held. This unit was connected to the bolt carrier via a pulley and a short steel cable.36 When fired, this system allowed the rifle to fire two rounds at a rate of 1,800 RPM. The first round fired as normal. As the internal unit recoiled, a mechanism would feed and fire the second round

before the recoiling mass had completed its rearward travel and impacted the housing. The result was that the felt recoil impulse from both shots reached the shooter’s shoulder at roughly the same time, after both bullets had already left the barrel.43 This system worked as advertised, allowing for two rounds to be placed on a target with incredible precision, thus fulfilling the core Abakan requirement.36

Operational Failure

While the AN-94 was a triumph of engineering that won the competition, it was a catastrophic failure as a service rifle. In the hands of ordinary soldiers, its complexity became its downfall.

  • Ergonomics: The rifle was poorly balanced and noticeably front-heavy, weighing almost 9.5 pounds loaded.40 Its controls were awkward, with a separate safety and fire selector that was difficult to manipulate.40 Most bizarrely, the magazine had to be inserted at a slight angle to the right to accommodate the recoiling mechanism, which made reloading awkward and prevented the use of the magazine as a monopod when firing from the prone position.40
  • Complexity and Maintenance: The AN-94 was a maintenance nightmare. Its intricate pulley-and-cable system and complex trigger group were far too complicated for a conscript army accustomed to the AK-74’s elegant simplicity. Clearing common malfunctions was an exceedingly difficult and time-consuming process.40
  • Cost: The rifle was exorbitantly expensive to manufacture, with a level of machining and complexity that far exceeded the simple stampings of the AK-74.

Due to these profound and insurmountable flaws, the AN-94 was never produced in large numbers. It saw very limited service, primarily with special forces and internal ministry troops, but it completely failed in its stated goal of replacing the AK-74 as the standard-issue rifle of the Russian military.35 It was a weapon that won a competition but lost the war of practicality.

The entire Abakan program, culminating in the flawed victory of the AN-94, represents a massive strategic miscalculation and a profound departure from the proven Soviet arms doctrine. It was an attempt to solve a human factors problem—the marksmanship limitations of the average conscript—with an extremely complex and expensive mechanical solution. This occurred at the very time when Western militaries were beginning to address the same problem with far more practical and effective solutions, such as universal adoption of optical sights and improved training regimens. The designers in the Abakan program created mechanically brilliant but baroque and costly weapons to meet a very narrow metric. The AN-94 “won” because it was the best at solving this isolated technical puzzle. In doing so, however, it failed every other practical test of a service rifle: cost, simplicity, ergonomics, and ease of maintenance. It sacrificed the holistic “Sufficient Excellence” of the Kalashnikov for “Perfection” in a single, narrow parameter. The failure of the AN-94 taught the Russian military a costly but vital lesson: over-optimizing for one performance metric at the expense of all others results in an unbalanced and ultimately useless design for a general-issue weapon. Its failure led the Russian military to abandon the pursuit of a “hyperburst” rifle and eventually return to the proven Kalashnikov platform with the modernized AK-12, a tacit admission that the entire Abakan detour was a dead end.

Conclusion: A Century of Lessons Learned

The history of failed Soviet and Russian small arms projects is not a story of engineering incompetence. On the contrary, it is filled with visionary designers and mechanically brilliant concepts. The failures were rarely technical in the purest sense; rather, they stemmed from a fundamental disconnect between engineering possibility and military reality. The road not taken was, in most cases, a road that led away from the fundamental truths of what makes a successful military weapon for a massive land army.

A century of development reveals a recurring conflict between the allure of radical innovation and the powerful inertia of doctrinal conservatism and logistical pragmatism. The AVS-36, with its complex and fragile mechanism, taught the Red Army the brutal lesson that reliability is the paramount virtue of an infantry rifle. The TKB-517, a technically superior weapon, demonstrated that even a better rifle cannot overcome the immense institutional and industrial ecosystem built around an established platform like the Kalashnikov. The avant-garde designs of Korobov and Gerasimenko showed that innovation cannot succeed without a clear doctrinal need and a mature technological base to support it. Finally, the entire Abakan program and its flawed champion, the AN-94, served as the ultimate cautionary tale against the perilous pursuit of perfection in a single metric at the expense of the holistic qualities that define a practical tool of war.

These historical precedents cast a long shadow that directly informs contemporary Russian weapons development. The troubled, iterative design process of the modern AK-12 rifle, with its focus on evolutionary rather than revolutionary improvements, is a direct reflection of the lessons learned from the Abakan fiasco. The ghosts of the AN-94 and TKB-022PM still haunt Russian procurement offices, serving as powerful reminders of the dangers of excessive complexity and radical change. The enduring legacy of these failed projects is the continuous reaffirmation of the Doctrine of Sufficient Excellence—a philosophy that, for better or worse, has kept the simple, rugged, and reliable Kalashnikov at the heart of Russian military power for over seventy years.

Summary of Failed Projects

Project/WeaponEra/CompetitionPrimary Reason for FailureKey Lesson Learned
AVS-36Pre-WWII (1930s)Overly complex, unreliable in harsh conditions, uncontrollable in full-auto 3Absolute reliability and simplicity are paramount over advanced features.
TKB-517Post-WWII (1950s AKM Trials)Institutional inertia; military familiarity with the AK platform and high cost of re-tooling outweighed superior performance 7A “better” weapon is not enough to displace an entrenched, “good enough” system without a game-changing advantage.
TKB-022PMCold War (1960s)“Too radical” design (bullpup), concerns over durability of new materials (polymers), lack of doctrinal need 18Innovation requires both doctrinal “pull” and technological maturity to be accepted by a conservative military.
VAG-73Cold War (1970s)Immature technology (caseless ammo), unreliable, heavy, complex, expensive 26Technological ambition must be supported by a mature scientific and industrial base to be viable.
AO-63Late Cold War (Project Abakan, 1980s)Prohibitive complexity and production cost due to its double-barreled design 35A brute-force solution, even if effective, can be logistically and economically impractical for mass issue.
AN-94Post-Cold War (Project Abakan winner)Extreme mechanical complexity, poor ergonomics, high cost, and difficult maintenance made it unsuitable for general issue 35Over-optimizing for a single performance metric at the expense of holistic practicality results in a failed service weapon.

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Sources Used

  1. The Soviet Union’s Philosophy Of Weapons Design – Quintus Curtius, accessed August 15, 2025, https://qcurtius.com/2016/09/15/the-soviet-unions-philosophy-of-weapons-design/
  2. Developmental History of the AK with Max Popenker – Forgotten Weapons, accessed August 15, 2025, https://www.forgottenweapons.com/developmental-history-of-the-ak-with-max-popenker/
  3. AVS-36 – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/AVS-36
  4. Из-за каких недостатков АВС-36 так и не прижилась в Красной армии | – Novate.ru, accessed August 15, 2025, https://novate.ru/blogs/260623/66759/
  5. Автоматическая винтовка Симонова (АВС-36) – Беларусь сегодня, accessed August 15, 2025, https://www.sb.by/articles/avtomaticheskaya-vintovka-simonova-avs-36.html
  6. 7,62-мм опытный автомат ТКБ-517 – Статьи об оружии и …, accessed August 15, 2025, https://weaponland.ru/publ/7_62_mm_opytnyj_avtomat_tkb_517/5-1-0-1493
  7. TKB-517 – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/TKB-517
  8. Experimental: TKB-517 by German Korobov – Kalashnikov Group, accessed August 15, 2025, https://en.kalashnikovgroup.ru/media/panoptikum/panoptikum-tkb-517-germana-korobova
  9. My 10th favorite – Imgur, accessed August 15, 2025, https://imgur.com/gallery/10th-favorite-wGiWAdJ
  10. Автомат ТКБ-09 (СССР) | DogsWar.ru – Всё о стрелковом оружии …, accessed August 15, 2025, http://www.dogswar.ru/oryjeinaia-ekzotika/strelkovoe-oryjie/3506-avtomat-tkb-09-ross.html
  11. Korobov’s Guns: Strange Soviet weapon prototypes – Imgur, accessed August 15, 2025, https://imgur.com/gallery/korobovs-guns-strange-soviet-weapon-prototypes-lKl1x
  12. Автомат Коробова ТКБ-517 был одним из основных конкурентов АКМ на конкурсе в 1950-х годах. Несмотря на то, что по ряду.. 2025 | ВКонтакте, accessed August 15, 2025, https://m.vk.com/wall-58907206_131072
  13. Indeed! By accounts Korobov’s 1946 rival ( the TKB-408 ) was technically more so… | Hacker News, accessed August 15, 2025, https://news.ycombinator.com/item?id=6955455
  14. Korobov’s Guns: Strange Soviet weapon prototypes – Imgur, accessed August 15, 2025, https://imgur.com/gallery/lKl1x/comment/566596113
  15. Коробов Герман Александрович (16.06.1913 – 27.12.2006) – Тульский государственный музей оружия, accessed August 15, 2025, https://www.museum-arms.ru/about/tula-armory/detail.php?ELEMENT_ID=4682
  16. автомат ТКБ-03, ТКБ-09 2020 – Оружие Коробова – ВКонтакте, accessed August 15, 2025, https://vk.com/@modernfirearms-oruzhie-korobova-avtomat-tkb-03-tkb-09
  17. Korobov and his firearm designs : r/ForgottenWeapons – Reddit, accessed August 15, 2025, https://www.reddit.com/r/ForgottenWeapons/comments/95g3cw/korobov_and_his_firearm_designs/
  18. TKB-022PM – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/TKB-022PM
  19. Bullpup – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/Bullpup
  20. TKB-022PM: full disassembly & assembly – YouTube, accessed August 15, 2025, https://www.youtube.com/watch?v=U163InEeDVo
  21. TKB-022: Keeping with the theme of weird Russian prototype bullpup rifles, this was a forward ejecting 7.62×39 assault rifle. It used a vertically sliding breechblock with a U-shaped ejector/extractor. It ejected the spend casing out from the tube under the front sight assembly. : r/ForgottenWeapons – Reddit, accessed August 15, 2025, https://www.reddit.com/r/ForgottenWeapons/comments/fi0cdd/tkb022_keeping_with_the_theme_of_weird_russian/
  22. Экспериментальный автомат ТКБ-022ПМ: masterok — LiveJournal, accessed August 15, 2025, https://masterok.livejournal.com/7302522.html
  23. TKB-022PM experimental Soviet bullpup rifle and its variants. : r/WeirdWeapons – Reddit, accessed August 15, 2025, https://www.reddit.com/r/WeirdWeapons/comments/aca55g/tkb022pm_experimental_soviet_bullpup_rifle_and/
  24. Picture: TKB-022PM Korobov assault rifle : r/LessCredibleDefence – Reddit, accessed August 15, 2025, https://www.reddit.com/r/LessCredibleDefence/comments/24xow9/picture_tkb022pm_korobov_assault_rifle/
  25. Экспериментальный автомат ТКБ-022ПМ – Мастерок.жж.рф – LiveJournal, accessed August 15, 2025, https://masterok.livejournal.com/10970140.html’
  26. The most unusual Soviet pistol – Irish Sun, accessed August 15, 2025, https://www.irishsun.com/news/258370693/the-most-unusual-soviet-pistol
  27. Caseless ammunition – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/Caseless_ammunition
  28. This PISTOL holds more ammo than an M4! #shorts – YouTube, accessed August 15, 2025, https://m.youtube.com/shorts/ILkaYz-tT2w
  29. VAG-73 caseless 48 round pistol with Tandem magazine #history #war #firepower #future #tech – YouTube, accessed August 15, 2025, https://www.youtube.com/shorts/NJUDg05m_AI
  30. Exploring the VAG 73 Russian Caseless Gyrojet Weapon – TikTok, accessed August 15, 2025, https://www.tiktok.com/@scifiandswords/video/7526576786860182797
  31. AK-47’s Underrated Rival Ahead of Its Time: Korobov Rifle – YouTube, accessed August 15, 2025, https://www.youtube.com/watch?v=37ZjwxCiqsk
  32. Абакан (конкурс) — Википедия, accessed August 15, 2025, https://ru.wikipedia.org/wiki/%D0%90%D0%B1%D0%B0%D0%BA%D0%B0%D0%BD_(%D0%BA%D0%BE%D0%BD%D0%BA%D1%83%D1%80%D1%81)
  33. Simonov & Tkachev AO-63 assault rifle | Secret Projects Forum, accessed August 15, 2025, https://www.secretprojects.co.uk/threads/simonov-tkachev-ao-63-assault-rifle.5611/
  34. Simonov & Tkachev AO-63 assault rifle – Indians For Guns, accessed August 15, 2025, https://indiansforguns.com/viewtopic.php?t=6030
  35. Avtomat AO-63: The Assault Rifle that Never Was – Small Arms Review, accessed August 15, 2025, https://smallarmsreview.com/avtomat-ao-63-the-assault-rifle-that-never-was/
  36. The Secret Story of The AN-94 “Abakan” Assault Rifle – Small Arms Review, accessed August 15, 2025, https://smallarmsreview.com/the-secret-story-of-the-an-94-abakan-assault-rifle/
  37. AO-63 assault rifle – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/AO-63_assault_rifle
  38. Project Abakan – Wikipedia, accessed August 15, 2025, https://en.wikipedia.org/wiki/Project_Abakan
  39. The Abakan assault rifle trials – Military and Aviation – DCS World Forums, accessed August 15, 2025, https://forum.dcs.world/topic/29203-the-abakan-assault-rifle-trials/
  40. Russian 5.45x39mm AN-94 Nikonov Rifle: Better Than the AK-74 …, accessed August 15, 2025, https://www.firearmsnews.com/editorial/russian-545x39mm-an94-nikonov-review/383282
  41. AO-63: The Soviet Rifle That Fired 6,000 Rounds Per Minute #shorts – YouTube, accessed August 15, 2025, https://www.youtube.com/watch?v=8qS6noZ93WA
  42. AO-63 – ArtStation, accessed August 15, 2025, https://www.artstation.com/artwork/8Bllqx
  43. Why does AN-94 have higher burst fire than its cyclic rate? – Engineering Stack Exchange, accessed August 15, 2025, https://engineering.stackexchange.com/questions/2285/why-does-an-94-have-higher-burst-fire-than-its-cyclic-rate
  44. Битва за новый автомат – Военное обозрение, accessed August 15, 2025, https://topwar.ru/64203-bitva-za-novyy-avtomat.html

Directorate ‘A’: An Operational and Technical History of Russia’s Alpha Group

Directorate ‘A’ of the Federal Security Service’s (FSB) Special Purpose Center (TsSN), universally known as Alpha Group (Spetsgruppa “A”), stands as the Russian Federation’s premier Tier-One special operations unit with a primary domestic counter-terrorism (CT) mandate.1 The unit embodies a dual nature: it is both a highly specialized force for resolving hostage crises and neutralizing terrorist threats, and a potent, direct-action instrument of state power, employed in politically sensitive operations at the highest sanction of the Kremlin.2

This report provides a comprehensive, 50-year analysis of the unit’s evolution, from its inception within the Committee for State Security (KGB) of the Soviet Union to its present form within the FSB. The analysis is tripartite, examining the interconnected evolution of its operational employment, its tactical doctrine, and its small arms and technology. The methodology relies exclusively on verifiable, open-source information, explicitly excluding rumor, hearsay, and fictional portrayals.

The central argument of this report is that Alpha Group’s evolution is a direct reflection of the political and security crises faced by the Soviet Union and its successor, the Russian Federation. Its transformation from a narrowly focused anti-hijacking team into a versatile and formidable special operations force was forged in the crucibles of foreign intervention in Afghanistan, the internal political collapse of 1991 and 1993, and the brutal counter-insurgency campaigns in Chechnya. This history has produced a technologically sophisticated unit that remains doctrinally distinct from its Western counterparts, serving as the ultimate security tool of the Russian state.

Section 1: Genesis and the Soviet Crucible (1974–1991)

1.1. Forging the ‘Sword and Shield’ of the KGB

Directorate ‘A’ was formally established on July 28/29, 1974, by order of the Chairman of the KGB, Yuri Andropov.1 Its creation was a direct strategic response to the massacre of Israeli athletes by Black September terrorists at the 1972 Munich Olympics, an event that shocked the international community and spurred the formation of elite counter-terrorism units across the West, most notably West Germany’s Grenzschutzgruppe 9 (GSG 9).2 This reactive origin defined the unit’s initial mandate, which was narrowly focused on preventing and responding to high-stakes terrorist acts, with a particular emphasis on aircraft hijackings, which were a growing global concern.1 A critical secondary mission, reflecting the pervasive paranoia of the Cold War, was the protection of the senior Soviet leadership against potential attacks by enemy special forces in times of war or crisis.2

The initial cadre was a small, highly select group of 30 men drawn from existing KGB personnel.3 The selection criteria were exceptionally rigorous, demanding not only peak physical conditioning but also profound psychological stability and absolute fearlessness when confronted with extreme environments such as fire, water, or confined spaces.3 A high level of education was also a prerequisite, indicating that the KGB sought operators with analytical and problem-solving skills that went beyond simple combat prowess.3

The unit’s initial command structure provides a crucial window into its original intended purpose. Alpha was subordinated to the KGB’s Seventh Directorate, the department responsible for surveillance operations against Soviet citizens and foreign nationals within the USSR.7 This placement, rather than within a military-focused directorate like the Third (Armed Forces Counterintelligence) or the Ninth (Leadership Protection), demonstrates that Alpha was not conceived as a military commando unit. Instead, it was designed to be the ultimate enforcement arm of the KGB’s domestic security and surveillance apparatus. Its purpose was to be the surgical, kinetic tool applied when surveillance and political intimidation failed, making its primary function inherently political and internal. It was the final step in a counter-intelligence or state security operation, meant to neutralize threats the state was already monitoring.

This organizational structure, combined with its dual mandate, created a foundational tension within the unit from its inception. The counter-terrorism role, born from the lessons of Munich, demanded surgical precision, restraint, and a focus on hostage preservation. Conversely, the leadership protection mission was a pure “palace guard” function, implying a willingness to use overwhelming and decisive force for the preservation of the state and its leadership, with little regard for collateral concerns. This inherent doctrinal conflict between the imperatives to “rescue” and to “destroy” would later define the unit’s most difficult operational and moral choices during the political death throes of the Soviet Union.

1.2. From Hijackings to Palace Storming: The Afghanistan Proving Ground

While formed for domestic counter-terrorism, Alpha Group’s mission set rapidly expanded to include counter-intelligence support, direct action, and foreign intervention.6 The seminal event that defined this transformation was Operation Storm-333 on December 27, 1979, the opening act of the Soviet-Afghan War.11 A 25-man element from Alpha’s Grom (“Thunder”) unit, operating alongside 30 operators from the KGB’s Zenit group (the precursor to Directorate ‘V’ Vympel), formed the core of a combined-arms force that assaulted the heavily fortified Tajbeg Palace to assassinate the Afghan President, Hafizullah Amin.11

The operation was a textbook military special operation, not a police action. The tactics employed were deception, speed, and overwhelming violence. Alpha operators were disguised in Afghan army uniforms and embedded within a larger force that included a GRU Spetsnaz “Muslim Battalion” to create the illusion of a local military action.2 The assault itself was a brutal, close-quarters fight completed in approximately 40 minutes.11 While a stunning tactical success, it came at a high cost to the elite KGB contingent: five special forces officers were killed, including the overall KGB commander on site, and every surviving KGB participant was wounded.11 The use of early-generation body armor and helmets was noted as a critical factor in preventing even higher casualties.11 Following this decapitation strike, Alpha operators remained in Afghanistan for the next decade, conducting counter-insurgency and direct-action missions against the Mujahideen—a role far removed from their original charter.10

Operation Storm-333 was not counter-terrorism; it was a state-sanctioned assassination and regime-change mission. This event, occurring just five years after the unit’s founding, fundamentally and permanently altered Alpha’s identity and trajectory. It proved to the Soviet leadership that they had forged not just a domestic CT unit, but a versatile instrument of foreign policy and “liquid affairs,” capable of executing the most politically sensitive military special operations.10

The significant casualty rate among the elite KGB operators was a brutal lesson in the realities of direct action against a prepared, numerically superior force. This experience likely served as the catalyst for the first major evolution in their equipment and tactical doctrine. The high cost underscored the absolute necessity for better personal protective equipment (body armor, helmets), heavier organic support weapons, and more deeply integrated planning with conventional military forces (the full assault force included GRU Spetsnaz and VDV paratroopers).11 The Soviet military’s subsequent focus on mass-producing body armor during the Afghan war was a direct lesson learned from such costly early encounters.16 This marked the unit’s definitive shift from a force employing police-style SWAT tactics to one that had to master military special operations doctrine to survive.

1.3. Armament of the Cold War Operator (1974-1991)

During its formative years and through the Soviet-Afghan War, Alpha Group’s armament was largely drawn from the best available standard-issue equipment provided to elite Soviet forces, such as the VDV (Airborne Troops).1

The primary individual weapon was the AKS-74, the 5.45x39mm folding-stock variant of the newly adopted service rifle. Its compactness made it ideal for operations involving vehicles, helicopters, and close-quarters environments.1 The older 7.62x39mm AKMS, the folding-stock version of the AKM, also remained in service, valued for its heavier-hitting round and its compatibility with the effective PBS-1 suppressor for clandestine operations.21

Standard sidearms included the ubiquitous 9x18mm Makarov PM and the select-fire Stechkin APS machine pistol, the latter offering a high volume of fire in a compact package.2 For deep concealment, the ultra-thin 5.45x18mm PSM pistol, introduced in the late 1970s, was available to KGB personnel, though its terminal ballistics were limited.18 Squad-level fire support was provided by the reliable 7.62x54mmR PKM general-purpose machine gun and the SVD Dragunov designated marksman rifle.1

A significant technological and doctrinal leap occurred in the late 1980s with the introduction of specialized weapon systems developed by TsNIITochMash specifically for Spetsnaz clandestine operations. This development was a direct result of operational experience identifying a critical capability gap. While adapting existing weapons like the AKMS with suppressors was a workable solution, the proliferation of modern body armor by the 1980s rendered the subsonic 7.62x39mm round less effective.16 A new requirement emerged: a weapon system capable of defeating NATO body armor at ranges up to 400 meters with minimal acoustic signature.26 This led to the creation of the subsonic 9x39mm family of ammunition and two purpose-built platforms: the

AS Val integrally suppressed assault rifle and the VSS Vintorez integrally suppressed sniper rifle.26 The fielding of these systems marked a crucial maturation in Soviet special operations. It represented a move away from simply adapting standard military hardware to creating bespoke tools for specialized missions, signaling the increasing sophistication and unique requirements of units like Alpha.

Section 2: The Time of Troubles and Rebirth (1991–2000)

2.1. A Crisis of Loyalty: Navigating the Collapse

The political disintegration of the Soviet Union placed Alpha Group at the epicenter of the nation’s existential crises. The unit was deployed in January 1991 to Vilnius, Lithuania, to quell the secessionist movement, where its seizure of a television tower resulted in 14 civilian deaths and hundreds of injuries.6 This operation cast the unit as an instrument of political repression. However, its role was dramatically reversed during the August 1991 Soviet coup attempt. Ordered by the hardline coup plotters to storm the Russian White House and neutralize Boris Yeltsin, the operators of Alpha Group famously refused the order.3 This pivotal act of defiance, along with that of other military units, was a key factor in the coup’s collapse. Two years later, during the 1993 Russian constitutional crisis, the unit found itself in a symmetric but reversed position. This time, it was President Yeltsin ordering them to storm the same White House, now occupied by his parliamentary opponents. After initial refusals and tense negotiations, the unit eventually moved in but focused on securing the surrender of the parliamentarians rather than launching a full-scale, bloody assault, an action credited with preventing a massacre.28

The refusal to act as the armed wing of a political faction in 1991 was more than an act of defiance; it was a calculated decision for institutional self-preservation. Caught between a collapsing Soviet power structure and a rising Russian one, the operators chose to avoid perpetrating a civil massacre over blind obedience to their KGB commanders. This established an unwritten, pragmatic code: they were an instrument of the state, not of a particular political party or leader. This politically astute decision ensured the unit’s survival and relevance in the new Russia; had they obeyed the coup plotters, they would have been branded enemies of the new state and almost certainly disbanded.

This political turmoil was mirrored by organizational chaos. With the dissolution of the KGB in late 1991, its functions were fractured among several new agencies.29 A power struggle immediately ensued among the nascent Russian security services to gain control of the state’s most potent special operations asset. Alpha was shuffled from the new Main Guard Directorate (GUO) between 1991 and 1993, to the Ministry of Internal Affairs (MVD) from 1993 to 1995, before finally being placed under the command of the new Federal Security Service (FSB) in 1995.2 This constant reorganization reflected the political jockeying of the new agency heads. The unit’s eventual placement within the FSB was a decisive move that solidified the FSB’s primacy as the lead agency for internal security and counter-terrorism. It transformed the FSB from a pure intelligence and security service into an agency with its own elite military force, placing it at the apex of the Russian security hierarchy.

2.2. Forging a New Identity in Chechnya

The First Chechen War (1994-1996) was a brutal awakening for the entire Russian security apparatus, which was ill-prepared for a high-intensity counter-insurgency. The June 1995 Budyonnovsk hospital hostage crisis became a defining moment for Alpha Group and a national trauma for Russia. Chechen militants seized a hospital, taking over 1,500 hostages. Alpha Group participated in the disastrously failed attempts to storm the facility, which resulted in a high number of hostage casualties and a humiliating political settlement for Moscow.2

The failure at Budyonnovsk was a tactical and political catastrophe that directly forced Alpha’s institutional restructuring. It proved that the unit’s existing tactics were insufficient against a large, fanatical, and well-armed insurgent group in a complex urban environment. The political fallout led to the firing of the FSB director and the definitive transfer of Alpha Group into the FSB’s command structure.2 This was the catalyst for professionalization. In 1998, Alpha Group was formally integrated with its sister unit, Vympel, into the newly created FSB Special Purpose Center (TsSN), establishing a unified command for the FSB’s top-tier special operations units.2 This move was a direct response to the lessons of Budyonnovsk, an attempt to professionalize and centralize command, control, and training to prevent future failures. The brutal combat experience in Chechnya also validated the utility of specialized weapons like the AS Val and VSS Vintorez, whose effectiveness in urban combat and clandestine operations began to heavily influence the unit’s doctrine and equipment priorities.26

Section 3: The Modern Era – Trial by Fire (2000–Present)

3.1. The Crucible of Counter-Terrorism: Moscow and Beslan

The early 2000s saw Alpha Group confront two of the most horrific mass-hostage crises in modern history. These events would cement its reputation for lethality and reveal a core doctrinal tenet that starkly contrasts with Western approaches.

During the Moscow Theater Siege in October 2002, Chechen terrorists seized a crowded theater, taking over 800 hostages and rigging the main auditorium with explosives.31 After a multi-day standoff, operators from Alpha and Vympel resolved the crisis by pumping an aerosolized fentanyl-derivative chemical agent through the building’s ventilation system to incapacitate everyone inside before launching their assault.31 The tactic was successful in neutralizing the terrorists’ ability to detonate their explosives; all 40 were killed by the assault force. However, the operation resulted in the deaths of 132 hostages, primarily due to the toxic effects of the gas and a poorly coordinated and equipped medical response.31

The Beslan School Siege in September 2004 was an even more traumatic event. Militants took more than 1,100 hostages, including 777 children, in a school gymnasium that was heavily mined with improvised explosive devices (IEDs).24 The siege ended on the third day in a chaotic and apparently unplanned battle, triggered by explosions inside the gym. The responding force, including Alpha and Vympel, used overwhelming firepower to suppress the terrorists, employing heavy weapons such as T-72 tanks, armored personnel carriers, and RPO-A Shmel thermobaric rocket launchers.34 The outcome was catastrophic: 334 hostages, including 186 children, were killed. The special forces also suffered heavy losses, with ten operators killed, including Major Alexander Perov of Alpha Group.2

These two crises reveal a core tenet of Alpha’s modern counter-terrorism doctrine: the absolute prioritization of threat elimination over hostage survivability when faced with a non-negotiable, mass-casualty threat. The use of an incapacitating chemical weapon in one instance and heavy military ordnance in the other demonstrates a willingness to accept extreme collateral damage to guarantee the destruction of the terrorist cell and, crucially, to prevent the detonation of their primary explosive charges. This represents a significant doctrinal departure from the Western “hostage rescue” paradigm, which places a higher premium on minimizing harm to hostages, often accepting greater risk to the assault force. The Russian approach reflects a cold calculation that losing many hostages to friendly fire is a preferable outcome to losing all hostages to a terrorist-detonated bomb.

The traumatic outcomes of these events, despite the “successful” elimination of the terrorists in both cases, triggered the next major phase of Alpha’s evolution. The immense difficulty and high cost of resolving a large-scale, fortified hostage crisis after it has begun became painfully clear. This drove a doctrinal shift away from reactive siege-breaking and toward proactive, intelligence-led operations. The focus moved to identifying and eliminating terrorist cells before they could act, a transition from large-scale hostage rescue to the rapid, targeted raids that characterized Alpha’s operations in the North Caucasus for the next decade.37

3.2. The Post-Chechnya Operator: Modernization and Doctrine

The protracted counter-insurgency in the North Caucasus became the primary operational focus for Alpha Group throughout the 2000s and 2010s. This period involved a constant tempo of raids, ambushes, and targeted killings, providing the unit with invaluable combat experience.37 The hard lessons from the Chechen Wars spurred a broad modernization of Russian special operations forces, with a new emphasis on creating a more professional SOF capability, modeled in part on Western commands like USSOCOM.40

This period saw an acceleration in equipment modernization, with a focus on improving individual operator survivability and lethality. There was a notable adoption of Western-style gear and tactical concepts. Operators began to be seen with high-cut ballistic helmets, modern plate carriers, and a proliferation of Western-made optics (such as EOTech holographic sights and Aimpoint red dots) and laser aiming modules (like the AN/PEQ-15).3 This adoption of foreign technology signaled a tactical convergence with Western SOF doctrine, particularly in Close Quarters Battle (CQB). The use of red dot sights and lasers facilitates faster, more aggressive, and more precise shooting techniques that are the hallmark of modern CQB, suggesting a significant evolution from traditional Soviet marksmanship methods.

This convergence was most evident in their choice of sidearms. The Austrian Glock 17 pistol became a preferred weapon, prized for its reliability, high capacity, and superior ergonomics compared to the legacy Makarov PM.21 In some instances, operators have even been observed using American-made M4-pattern carbines, indicating a pragmatic willingness to adopt the best available tools for the job, regardless of origin.21

Section 4: Contemporary Armament and Technology

4.1. The Modern Operator’s Toolkit: Small Arms

The contemporary Alpha Group operator is equipped with a diverse and highly customized arsenal, blending modernized Russian platforms with Western accessories. This approach leverages the proven reliability of Russian designs while enhancing their performance with modern ergonomics and sighting systems.

  • Carbines: The primary individual weapon is the AK-105, a carbine-length version of the AK-74M chambered in 5.45x39mm.21 It is valued for its optimal balance of a compact overall length (824 mm extended) and a barrel (314 mm) long enough to maintain effective ballistics, making it a more versatile choice than the much shorter AKS-74U.46 These rifles are almost universally customized with aftermarket furniture (often from Russian manufacturer Zenitco), tactical lights, lasers, and modern optics.45
  • Submachine Guns (SMGs): For specialized CQB roles, the primary SMG is the PP-19-01 Vityaz-SN.21 Chambered in the common 9x19mm Parabellum, it is based on the AK-105 receiver, offering operators familiar ergonomics, controls, and manual of arms, which simplifies training and cross-platform proficiency.50
  • Special Purpose Rifles: For missions requiring stealth, the integrally suppressed 9x39mm weapon systems remain critical. The AS Val assault rifle and the more compact SR-3M Vikhr are used for quiet elimination of targets, particularly those wearing body armor, in urban and clandestine environments.21
  • Pistols: The Austrian Glock 17 and the compact Glock 19 have become the de facto standard sidearms for the unit.2 Their superior reliability, ergonomics, and trigger characteristics compared to Russian-designed pistols like the Yarygin PYa make them the preferred choice for a high-performance combat handgun.21
  • Sniper & Designated Marksman Rifles: The unit employs a multi-tiered system for precision fire. The 9x39mm VSS Vintorez is used for suppressed, short-to-medium range engagements.26 For standard military sniping, the bolt-action
    SV-98, chambered in 7.62x54mmR, is a common platform.56 For specialized long-range precision, Alpha Group is also known to utilize high-end Western rifles, such as those from Accuracy International and SAKO.43
  • Support Weapons: For sustained squad-level firepower, the primary weapon is the PKP Pecheneg general-purpose machine gun.21 A modernization of the venerable PKM, the Pecheneg features a fixed, forced-air-cooled heavy barrel, allowing it to fire hundreds of rounds in sustained bursts without needing a barrel change, a crucial advantage in intense firefights.60

4.2. Technological Integration and Force Multipliers

The modern Alpha operator functions as a systems-integrated soldier. Their effectiveness is derived not just from their individual weapon, but from the combination of their firearm, protective equipment, and electronic accessories. Operators are equipped with advanced Russian-made protective gear, such as FORT Defender 2 plate carriers and Altyn or Rys-T series high-cut ballistic helmets, which are designed to integrate with communications headsets.62

These Russian platforms are then heavily augmented with a mix of domestic and foreign accessories. Russian companies like Zenitco provide a wide range of railed handguards, stocks, and grips that dramatically improve the ergonomics of the AK platform.45 This is combined with the widespread use of Western optics like EOTech holographic sights and Aimpoint red dots, as well as laser aiming modules like the AN/PEQ-15.3 This hybrid approach creates a system that leverages the legendary reliability and simplicity of the Kalashnikov action with the enhanced speed, accuracy, and low-light capability afforded by modern Western accessories.

Table: Current Small Arms of Directorate ‘A’, TsSN FSB

Weapon SystemTypeCaliberCountry of OriginKey Characteristics / Tactical Rationale
AK-105Carbine5.45×39mmRussiaPrimary individual weapon. A compact version of the AK-74M, offering a balance of maneuverability for CQB and sufficient barrel length for effective range. Heavily customized with modern optics and accessories.45
PP-19-01 Vityaz-SNSubmachine Gun9×19mm ParabellumRussiaStandard SMG for CQB. Based on the AK platform, providing familiar ergonomics and controls. Uses common pistol ammunition, effective for close-range engagements with reduced over-penetration risk.50
AS ValSuppressed Assault Rifle9×39mmRussiaIntegrally suppressed weapon for clandestine operations. Fires heavy subsonic ammunition capable of defeating body armor at ranges up to 400m with a minimal sound signature.65
SR-3M VikhrCompact Assault Rifle9×39mmRussiaA compact version of the AS Val without the integral suppressor (though one can be attached). Designed for concealed carry and rapid deployment by VIP protection details or for CQB.53
Glock 17 / 19Semi-automatic Pistol9×19mm ParabellumAustriaPreferred sidearm. Valued for superior reliability, ergonomics, and higher magazine capacity compared to Russian counterparts. A global standard for elite units.43
VSS VintorezSuppressed Sniper Rifle9×39mmRussiaIntegrally suppressed designated marksman rifle for clandestine operations. Shares 70% parts commonality with the AS Val. Used for precise, silent elimination of targets at medium range.26
SV-98Bolt-Action Sniper Rifle7.62×54mmRRussiaStandard issue precision rifle for engaging targets at ranges up to 1,000 meters. A modern, bolt-action design replacing the semi-automatic SVD in the dedicated sniper role.59
PKP PechenegGeneral Purpose Machine Gun7.62×54mmRRussiaPrimary squad support weapon. A modernized PKM with a fixed, forced-air-cooled barrel, enabling high volumes of sustained suppressive fire without barrel changes.60

Section 5: The Future of Directorate ‘A’

5.1. Adapting to New Generation Warfare

The future operational environment for Directorate ‘A’ will be shaped by evolving Russian military thought and the hard lessons of modern conflict. Russian military strategists are focused on concepts of “New Generation Warfare,” which blurs the lines between peace and war, prioritizing non-military, information, psychological, and indirect actions to achieve strategic goals before the initiation of open hostilities.70 The war in Ukraine has brutally demonstrated the realities of the “transparent battlefield,” where ubiquitous intelligence, surveillance, and reconnaissance (ISR) capabilities and long-range precision fires make it nearly impossible for forces to concentrate for traditional offensive maneuvers without being detected and destroyed.72

For a direct-action unit like Alpha, this new reality presents a profound challenge. Its future role will likely expand into this “grey zone,” conducting clandestine, deniable, or plausibly deniable operations in support of broader information campaigns or to create disruptive effects during the “threatening period” preceding a conflict. On the transparent battlefield, the classic role of “kicking down the door” becomes increasingly suicidal against a peer or near-peer adversary. Consequently, Alpha’s tactical employment may evolve from being the primary assaulters to being the critical on-the-ground enablers for long-range precision strikes. Small, low-signature teams could be tasked with infiltrating contested areas to provide final target verification, laser designation, or post-strike battle damage assessment for strikes conducted by artillery, aircraft, or naval platforms. In this model, the unit’s value shifts from its own kinetic capacity to its ability to enable the precision effects of the broader combined arms force.

5.2. The Robotic and AI-Enabled Operator

The second major driver of future evolution is technology. Russia is aggressively pursuing military robotics and artificial intelligence (AI), a process massively accelerated by the war in Ukraine, which has become a laboratory for drone warfare and human-machine teaming.73 The current Russian approach emphasizes a “human-in-the-loop” system, where autonomous platforms enhance, rather than replace, the human decision-maker.76

In the near-term, this will manifest as the integration of organic unmanned systems at the squad level within Directorate ‘A’. This will include small reconnaissance unmanned aerial vehicles (UAVs) for immediate ISR and unmanned ground vehicles (UGVs) for high-risk tasks like breaching, route clearance, and initial entry into fortified structures. The use of such systems to conduct assaults and even secure the surrender of enemy troops without direct human involvement has already been demonstrated in Ukraine, providing a clear blueprint for future SOF tactics.78

In the long-term, this trend points toward a fundamental restructuring of the special operations team itself. A future Alpha “squad” may consist of fewer human operators who act as mission commanders for a suite of semi-autonomous aerial and ground systems. This requires a new type of soldier, one who is not only a master of fieldcraft and combat skills but also a skilled systems director capable of managing complex data flows and commanding robotic assets under extreme pressure. This aligns with a global trend in special operations, which sees the ideal operator evolving from the “warrior athlete” of the 20th century to the “cognitive operator” of the 21st, whose primary weapon is their ability to process information and make rapid, effective decisions on a networked battlefield.81

Conclusion

Over its 50-year history, Directorate ‘A’ of the TsSN FSB has evolved from a small, reactive anti-hijacking unit into a sophisticated, battle-hardened special operations force. Its history is a direct reflection of Russia’s own turbulent journey, with each major crisis—Afghanistan, the Soviet collapse, Chechnya, and the rise of global terrorism—acting as a catalyst for doctrinal and technological change. The unit has proven to be a pragmatic and adaptable organization, willing to adopt foreign technology and tactics when necessary, yet retaining a distinct operational doctrine forged in the brutal realities of its most difficult missions. This doctrine, particularly in mass-hostage scenarios, prioritizes the absolute elimination of the threat, accepting a level of collateral damage that is often unpalatable to its Western counterparts.

Today, the unit stands as a hybrid force, fielding the best of Russian and Western technology to create a highly effective operator system. However, Directorate ‘A’ now faces its greatest challenge: adapting its core competency of direct action to a future battlefield dominated by the transparency of persistent ISR, long-range precision fires, and the proliferation of AI-enabled unmanned systems. Its ability to transition from a force that storms the target to one that enables effects across domains, and to evolve its operators from pure warriors into human-machine team leaders, will determine its continued relevance and effectiveness as the Kremlin’s ultimate instrument of security and state power in the 21st century.


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Sources Used

  1. The Alpha Group – Russia’s Elite and Secretive Special Forces – SOFX Report, accessed September 6, 2025, https://www.sofx.com/the-alpha-group-russias-elite-and-secretive-special-forces/
  2. Alpha Group – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Alpha_Group
  3. FSB Alpha Group: Russia’s Elite A Team – Grey Dynamics, accessed September 6, 2025, https://greydynamics.com/fsb-alpha-group-russias-elite-a-team/
  4. Today in History, July 29 – The Moscow Times, accessed September 6, 2025, https://www.themoscowtimes.com/archive/today-in-history-july-29
  5. Alpha Group (Ukraine) – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Alpha_Group_(Ukraine)
  6. Moscow’s Alpha Group Is One of the World’s Most Vicious Commando Teams | by War Is Boring – Medium, accessed September 6, 2025, https://medium.com/war-is-boring/moscows-alpha-group-is-one-of-the-world-s-most-vicious-commando-teams-7f59d42793a4
  7. KGB Functions and Internal Organization – Russia / Soviet Intelligence Agencies, accessed September 6, 2025, https://irp.fas.org/world/russia/kgb/su0515.htm
  8. KGB: History, Structure and Operations – Grey Dynamics, accessed September 6, 2025, https://greydynamics.com/kgb-history-structure-and-operations/
  9. Spetsgruppa “A” also known as Alpha Group, Russia’s elite counter terrorism special task force is founded in 1974 on the orders of KGB Chairman Yuri Andropov, in response to the Munich massacre of Israeli athletes. : r/Russianhistory – Reddit, accessed September 6, 2025, https://www.reddit.com/r/Russianhistory/comments/w9yzcn/spetsgruppa_a_also_known_as_alpha_group_russias/
  10. The KGB’s Alpha Group left terrorists in fear of the Soviet Union – We Are The Mighty, accessed September 6, 2025, https://www.wearethemighty.com/articles/the-kgbs-alpha-group-left-terrorists-in-fear-of-the-soviet-union/
  11. Operation Storm-333 – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Operation_Storm-333
  12. Storm-333: KGB and Spetsnaz seize Kabul, Soviet-Afghan War 1979, accessed September 6, 2025, https://inmoscowsshadows.wordpress.com/2021/03/18/storm-333-kgb-and-spetsnaz-seize-kabul-soviet-afghan-war-1979/
  13. What is Operation Storm-333, and how did Spetsnaz assassinate Afghan President Hafizullah Amin? – Quora, accessed September 6, 2025, https://www.quora.com/What-is-Operation-Storm-333-and-how-did-Spetsnaz-assassinate-Afghan-President-Hafizullah-Amin
  14. The history of the KGB and its legendary methods – Big Think, accessed September 6, 2025, https://bigthink.com/politics-current-affairs/kgb/
  15. Spetsnaz GRU – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Spetsnaz_GRU
  16. Soviet KGB Alfa officers in Afghanistan (1980s) [4096×3292] : r/MilitaryPorn – Reddit, accessed September 6, 2025, https://www.reddit.com/r/MilitaryPorn/comments/1gzgbd7/soviet_kgb_alfa_officers_in_afghanistan_1980s/
  17. Top 7 weapons used by Soviet paratroopers during Soviet-Afghan war? – WW2 Weapons, accessed September 6, 2025, https://www.ww2-weapons.com/top-7-weapons-used-by-soviet-paratroopers-during-soviet-afghan-war/
  18. List of equipment of the Soviet Ground Forces – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/List_of_equipment_of_the_Soviet_Ground_Forces
  19. What was the standard weapon of a Russian soldier in Afghanistan? – Quora, accessed September 6, 2025, https://www.quora.com/What-was-the-standard-weapon-of-a-Russian-soldier-in-Afghanistan
  20. Russian Spetsnaz in the mountains during the Soviet – Afghan War, 1979 – 1989. (1764 x 1348) : r/MilitaryPorn – Reddit, accessed September 6, 2025, https://www.reddit.com/r/MilitaryPorn/comments/10t6ikq/russian_spetsnaz_in_the_mountains_during_the/
  21. Weapons of the Russian Special Forces | Navy SEALs, accessed September 6, 2025, https://navyseals.com/5283/weapons-of-the-russian-special-forces/
  22. Putting together a 1980’s Cold War kgb Spetsnaz inspired loutdout. Just waiting on my stuff from Russia to be cleared : r/airsoft – Reddit, accessed September 6, 2025, https://www.reddit.com/r/airsoft/comments/k857kq/putting_together_a_1980s_cold_war_kgb_spetsnaz/
  23. Soviet PSM Pistol History: Really a KGB Assassination Gun? – YouTube, accessed September 6, 2025, https://www.youtube.com/watch?v=XaMR66HRx30&pp=0gcJCf8Ao7VqN5tD
  24. Soviet PSM Pistol History: Really a KGB Assassination Gun? – Forgotten Weapons, accessed September 6, 2025, https://www.forgottenweapons.com/soviet-psm-pistol-history-really-a-kgb-assassination-gun/
  25. Guns of the Spetsnaz: Specially-Designed Silenced Long Guns – Small Arms Defense Journal, accessed September 6, 2025, https://sadefensejournal.com/guns-of-the-spetsnaz-specially-designed-silenced-long-guns/
  26. AS Val and VSS Vintorez – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/AS_Val_and_VSS_Vintorez
  27. Keeping Its Place in Russian Battle Space The AS Val 9×39 Special Purpose Assault Rifle, accessed September 6, 2025, https://sadefensejournal.com/keeping-its-place-in-russian-battle-space-the-as-val-9×39-special-purpose-assault-rifle/
  28. FSB “Alfa” member lay down their arms, refusing to fire on their countrymen, Russian Constitutional Crisis 1993 – Reddit, accessed September 6, 2025, https://www.reddit.com/r/MilitaryPorn/comments/cybpi0/fsb_alfa_member_lay_down_their_arms_refusing_to/
  29. KGB | Origins, Functions, Significance, Meaning, & Facts – Britannica, accessed September 6, 2025, https://www.britannica.com/topic/KGB
  30. KGB – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/KGB
  31. Moscow theater hostage crisis – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Moscow_theater_hostage_crisis
  32. Moscow theater hostage crisis of 2002 | Description & Facts – Britannica, accessed September 6, 2025, https://www.britannica.com/event/Moscow-theater-hostage-crisis
  33. The Moscow Theater Hostage Crisis: The Perpetrators, their Tactics, and the Russian Response – ResearchGate, accessed September 6, 2025, https://www.researchgate.net/publication/233509130_The_Moscow_Theater_Hostage_Crisis_The_Perpetrators_their_Tactics_and_the_Russian_Response
  34. Beslan school siege – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Beslan_school_siege
  35. Beslan: How Tragedy Unfolded At School No. 1 – RFE/RL, accessed September 6, 2025, https://www.rferl.org/a/beslan-massacre-tragedy-timeline/27218740.html
  36. Beslan school attack | Siege, Massacre, & Aftermath – Britannica, accessed September 6, 2025, https://www.britannica.com/event/Beslan-school-attack
  37. Second Chechen War – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Second_Chechen_War
  38. What changes did the Russian army do between the first and second Chechen war? : r/WarCollege – Reddit, accessed September 6, 2025, https://www.reddit.com/r/WarCollege/comments/1023d1g/what_changes_did_the_russian_army_do_between_the/
  39. Spetsnaz: Operational Intelligence, Political Warfare, and Battlefield …, accessed September 6, 2025, https://www.marshallcenter.org/en/publications/security-insights/spetsnaz-operational-intelligence-political-warfare-and-battlefield-role-0
  40. The Fall from Grace of Russian SOF: The Danger of Forgetting …, accessed September 6, 2025, https://irregularwarfarecenter.org/wp-content/uploads/Insights_8_The-Fall-from-Grace-of-Russian-SOF.pdf
  41. FSB Vympel: Russia’s Secretive Unit – Grey Dynamics, accessed September 6, 2025, https://greydynamics.com/fsb-vympel-russias-secretive-unit/
  42. Dam Toys – Russian Spetsnaz FSB Alpha Group Classic Version – Urban Samurai Hobbies, accessed September 6, 2025, https://www.urbansamuraihobbies.com/dam-toys-russian-spetsnaz-fsb-alpha-group-classic-version/
  43. BANG: These are the Russian Military’s Favorite Guns – The National Interest, accessed September 6, 2025, https://nationalinterest.org/blog/reboot/bang-these-are-russian-militarys-favorite-guns-178428/
  44. Russian FSB Alpha Group Loadout : r/GhostRecon – Reddit, accessed September 6, 2025, https://www.reddit.com/r/GhostRecon/comments/95hhtw/russian_fsb_alpha_group_loadout/
  45. The AK-105. The Russian Alpha AK. – YouTube, accessed September 6, 2025, https://www.youtube.com/watch?v=ki_uE34Akl0
  46. AK105 capabilities || Kalashnikov Media, accessed September 6, 2025, https://en.kalashnikovgroup.ru/media/ttkh-2019/ttkh-ak-105
  47. AK-105 – Kalashnikov Group, accessed September 6, 2025, https://en.kalashnikovgroup.ru/catalog/boevoe-strelkovoe-oruzhie/avtomaty/avtomat-kalashnikova-ak105
  48. AK-105 – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/AK-105
  49. Scale Military Action Figures from BlackOpsToys, accessed September 6, 2025, https://www.blackopstoys.com/
  50. PP-19-01 Vityaz – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/PP-19-01_Vityaz
  51. PP-19 Submachine Gun – Kalashnikov Group, accessed September 6, 2025, https://en.kalashnikovgroup.ru/catalog/boevoe-strelkovoe-oruzhie/pistolety-pulemyety/pistolet-pulemet-pp-19-vityaz
  52. Vityaz | Weaponsystems.net, accessed September 6, 2025, https://weaponsystems.net/system/195-Vityaz
  53. SR-3 Vikhr – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/SR-3_Vikhr
  54. Glock 17 Review: Specification, Performance, and Price – Craft Holsters, accessed September 6, 2025, https://www.craftholsters.com/glock/guides/17
  55. Glock – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/Glock
  56. These Are the Small Arms Used by Russian Special Forces – 24/7 Wall St., accessed September 6, 2025, https://247wallst.com/special-report/2024/04/10/these-are-the-small-arms-used-by-russian-special-forces/
  57. russian sv-98 – Sniper Central, accessed September 6, 2025, https://snipercentral.com/russian-sv-98/
  58. SV-98 Sniper Rifle – Kalashnikov Group, accessed September 6, 2025, https://en.kalashnikovgroup.ru/catalog/boevoe-strelkovoe-oruzhie/neavtomaticheskie-vintovki/snayperskaya-vintovka-sv-98
  59. SV-98 – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/SV-98
  60. PKP Pecheneg machine gun – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/PKP_Pecheneg_machine_gun
  61. PKP Pecheneg Russian 7.62mm General-Purpose Machine Gun – ODIN, accessed September 6, 2025, https://odin.tradoc.army.mil/WEG/Asset/PKP_%20Pecheneg_Russian_7.62mm_General_Purpose_Machine_Gun
  62. The A-Group: History And Details Of The New Alpha Legendary Outfit | News – Caliber, accessed September 6, 2025, https://playcaliber.com/en/news/385/the-a-group-history-and-details-of-the-new-alpha-legendary-outfit/
  63. Fsb Russia – Etsy, accessed September 6, 2025, https://www.etsy.com/market/fsb_russia
  64. Russian Spetsnaz–FSB Alfa Group 3.0 (Black Version) – MC Toys 1/6 Scale Accessory Set, accessed September 6, 2025, https://www.timewalkertoys.com/Russian-Spetsnaz-FSB-Alfa-Group-3-0-Black-Versio-p/mcm-m069a.htm
  65. AS VaL Basic Information Guide, accessed September 6, 2025, https://omninesia.wordpress.com/2020/05/16/as-val-basic-information-guide/
  66. AS Val – Weaponsystems.net, accessed September 6, 2025, https://weaponsystems.net/system/373-AS+Val
  67. Guns of the Spetsnaz: Specially Designed CQB Rifles – Small Arms Defense Journal, accessed September 6, 2025, https://sadefensejournal.com/guns-of-the-spetsnaz-specially-designed-cqb-rifles/
  68. VSS Vintorez – Simple English Wikipedia, the free encyclopedia, accessed September 6, 2025, https://simple.wikipedia.org/wiki/VSS_Vintorez
  69. SV-98 Russian 7.62mm Sniper Rifle – ODIN, accessed September 6, 2025, https://odin.tradoc.army.mil/WEG/Asset/4a1628052f94de01def7d289a1c661c7
  70. New generation warfare – Wikipedia, accessed September 6, 2025, https://en.wikipedia.org/wiki/New_generation_warfare
  71. Russian Forecasts of Future War – Army University Press, accessed September 6, 2025, https://www.armyupress.army.mil/Journals/Military-Review/English-Edition-Archives/May-June-2019/Thomas-Russian-Forecast/
  72. Russian Concepts of Future Warfare Based on Lessons from the Ukraine War | CNA, accessed September 6, 2025, https://www.cna.org/analyses/2025/08/russian-concepts-of-future-warfare-based-on-lessons-from-the-ukraine-war
  73. The age of robotic warfare has arrived | Arab News, accessed September 6, 2025, https://www.arabnews.com/node/2613208/%7B%7B
  74. Russia Capitalizes on Development of Artificial Intelligence in Its Military Strategy, accessed September 6, 2025, https://jamestown.org/program/russia-capitalizes-on-development-of-artificial-intelligence-in-its-military-strategy/
  75. The Role of AI in Russia’s Confrontation with the West | CNAS, accessed September 6, 2025, https://www.cnas.org/publications/reports/the-role-of-ai-in-russias-confrontation-with-the-west
  76. Russian Military Robotics and Artificial Intelligence Developments: An Assessment – NSI, accessed September 6, 2025, https://nsiteam.com/social/russian-military-robotics-and-artificial-intelligence-developments-an-assessment/
  77. Russia’s Asymmetric Response to 21st Century Strategic Competition: Robotization of the Armed Forces – RAND, accessed September 6, 2025, https://www.rand.org/content/dam/rand/pubs/research_reports/RRA1200/RRA1233-5/RAND_RRA1233-5.pdf
  78. Ukraine Pulled Off the First Robotic Capture in Combat – YouTube, accessed September 6, 2025, https://www.youtube.com/watch?v=jnx31gmpoSM
  79. Ukraine’s Uncrewed Air And Ground Systems Teaming Marks A Watershed Moment | TRADOC G2 Operational Environment Enterprise, accessed September 6, 2025, https://oe.tradoc.army.mil/product/ukraines-uncrewed-air-and-ground-systems-teaming-marks-a-watershed-moment/
  80. Ukraine claims first capture of Russian troops with drones, robots; expert underscores unmanned systems’ roles in modern warfare – Global Times, accessed September 6, 2025, https://www.globaltimes.cn/page/202507/1338313.shtml
  81. How Special Operations Forces Stay Ahead of the Fight – UF PRO, accessed September 6, 2025, https://ufpro.com/blog/special-operations-forces-future-training
  82. Senior Official Outlines Future Priorities for Special Ops – DoD, accessed September 6, 2025, https://www.defense.gov/News/News-Stories/Article/Article/4179258/senior-official-outlines-future-priorities-for-special-ops/