Executive Summary
Russia has learned an expensive maritime lesson: dismissing uncrewed boats as “toys” does not stop them from sinking ships.
Ukraine’s success in the Black Sea forced Moscow to scrape the barnacles of tradition from its naval thinking. Russia is now moving beyond improvised responses and building a domestic ecosystem of uncrewed surface and underwater platforms, supported by Russian-made hulls, propulsion systems, sonar, sensors, and software.
That progress should not be underestimated.
But it should not be exaggerated either.
Russia may be developing the boat and its payload, but it has not yet fully integrated the nervous system that connects them to the operator. Its apparent dependence on foreign satellite communications exposes the difference between building an autonomous-looking platform and fielding a genuinely sovereign autonomous capability.
The hull may be Russian.
The sonar may be Russian.
The communications umbilical cord may still lead somewhere else.
Ukraine Changed the Procurement Conversation
The Russian Black Sea Fleet once dominated the region through mass, missiles, and intimidation.
Then comparatively inexpensive Ukrainian drone boats helped push major Russian warships away from Sevastopol and forced them to operate more cautiously from Novorossiysk.
Watching billion-dollar naval assets retreat from expendable boats is not merely embarrassing.
It is doctrinally educational, and I think it surprised everyone.
Russia’s response has moved from dismissal to imitation and now toward institutionalization. Russian industry is presenting multiple USV families, while the navy is establishing dedicated unmanned formations and integrating uncrewed systems into wider maritime operations.
The “mosquito fleet” is no longer being treated as an irritation.
It is becoming part of the fleet.
Why I Take Russian Sonar Seriously
When I served in the Royal Swedish Navy, I visited the Central Research Institute Morfizpribor in St. Petersburg several times. This was during a very different period, when professional engagement with Russian organizations was both possible and acceptable.
Morfizpribor was one of Russia’s principal centers for hydroacoustic research and naval sonar development. Those visits gave me a firsthand view of some of the work taking place inside the Russian underwater-technology establishment.
Russia’s technical capabilities have always been uneven. It is not equally good at everything, and glossy claims from its defense industry deserve the same scrutiny as those from any other supplier.
But underwater technology is one area in which Russia has genuine and longstanding expertise.
It builds highly capable submarines.
It also knows how to build sonar, espcially active sonars.
That experience shapes how I view Russia’s current USV sprint. The communications weaknesses are real, but they should not tempt us into dismissing the payloads, or the people developing them.
Russia may be learning some lessons from Ukraine.
It is not starting from zero underwater.
The Domestic Payload Sprint
Western sanctions have made dependence on imported maritime technology increasingly dangerous. A foreign component is not merely a supply-chain inconvenience when it can be blocked, unsupported, or remotely constrained.
It can become a mission failure waiting to happen.
Russia’s answer has been localization.
The compact Orkan USV is intended for hydrographic, research, and patrol missions and is presented with domestic sonar equipment.
The heavier Vizir and Vizir-2M, developed by the Kingisepp Machine-Building Plant, illustrate the value of modular payload architecture. Depending on configuration, the platform can reportedly carry Russian anti-submarine sonars, multibeam echo sounders, and side-scan sonars for seabed mapping, object detection, and target classification.
The small MPA ROV from JSC GIPP Region follows the same logic below the surface. Its modular search configuration is intended for locating and classifying underwater objects, with a search package reported to include side-scan sonar.
These platforms represent an effort to control more of the capability chain domestically.
That distinction matters.
A USV is not a capability simply because it can leave the pier without a crew.
The useful capability comes from what it can sense, how it interprets the environment, how reliably it communicates, and what decision or action its payload enables.
The boat is transportation.
The payload is the mission.
The Communications Umbilical Cord
Russia appears increasingly capable of producing hulls, engines, waterjets, navigation systems, and conventional sonar payloads domestically.
Long-range, high-bandwidth satellite communications remain a more difficult problem.
The Murena-300S exposed that weakness rather publicly. Imagery of the platform showed what analysts identified as a possible Starlink antenna concealed beneath camouflage netting.
Rassvet (“Dawn”) is Russia’s emerging Starlink-style satellite-internet constellation, developed by Bureau 1440. It uses low-Earth-orbit satellites and phased-array user terminals to provide lower-latency broadband connectivity, with planned 5G non-terrestrial-network integration. Initial operational satellites launched in 2026, but coverage remains limited and the system is still in early deployment rather than a mature, global service. Russia aims to build several hundred satellites by 2027–28 and roughly 900 by 2035, leaving Rassvet well behind Starlink’s current scale and operational maturity.
Rassvet is critical, as without resilient beyond-line-of-sight communications, transmitting sonar data, updating missions, maintaining human control, and conducting terminal guidance become much harder.
Autonomy can reduce that dependence, but only by transferring more judgment onboard.
That requires processing power, reliable software, environmental understanding, target-classification confidence, and clearly defined rules for what the platform may do when communications disappear.
Removing the operator from the boat does not remove the operational decisions.
It merely moves them somewhere else.
A Warning Beyond Naval Warfare
The explosive maritime drone intercepted near Romania’s Neptun Deep gas project on 20 August demonstrated how even a drifting USV can create strategic effects. A Romanian F-16 engaged the vessel before explosive-ordnance personnel neutralized it near critical offshore infrastructure.
Such platforms do not always need to strike their targets to succeed.
They can force defensive deployments, interrupt operations, increase insurance costs, test rules of engagement, and create uncertainty around offshore energy infrastructure.
Sometimes the strategic payload is not the explosive charge.
It is doubt.
Summary
Russia’s maritime-drone sprint is real. Its domestic sonar and sensor programs demonstrate growing industrial resilience, while its unmanned formations suggest these systems are becoming permanent naval tools.
But autonomy is a chain, and the weakest link may not be the hull or even the sonar. It may be communications, integration, processing, or operator trust.
That is the lesson for every autonomous-platform program:
Do not begin by asking which boat to buy.
Begin by asking what the mission must detect, understand, communicate, and enable.
At Strategic Sonar Solutions, we help organizations translate missions into defensible payload requirements and select the sonar, sensors, processing, and supporting systems that make autonomous platforms operationally useful.
If you are designing an autonomous platform—or wondering whether its proposed payload is genuinely fit for purpose—let’s talk before an impressive technology demonstration becomes an expensive integration problem.
Originally published in the Strategic Pings ))) newsletter on LinkedIn on 2026-08-25. Subscribe there to get new editions first.