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- Ukraine’s 79th Air Assault Brigade demonstrated how inexpensive drones can destroy Russian armored vehicles after conventional weapons immobilize them. Combat footage released by the brigade shows three Russian T-72B3M tanks disabled before drones were sent to finish them off.
- The Russian T-72B3M is a modernized version of a Soviet-era tank. Russia has relied heavily on these refurbished Cold War vehicles during its invasion of Ukraine.
- The three tanks were initially stopped using conventional weapons. One struck an anti-tank mine, while the other two were hit by what appeared to be anti-tank missiles or similar weapons. The precise circumstances surrounding the second tank's initial immobilization were unclear.
- Immobilizing a tank does not necessarily destroy it permanently. The brigade achieved three mobility kills, meaning the tanks could no longer move under their own power. Russian forces might still have recovered them for repairs or spare parts.
- Explosive drones were used to prevent the tanks from returning to service. Rather than expend additional artillery shells or risk soldiers approaching the vehicles, Ukrainian operators directed small explosive-laden drones into vulnerable parts of the disabled tanks.
- Drones also allowed Ukrainian forces to pursue retreating Russian soldiers without sending troops after them. The footage showed aircraft, apparently including grenade-equipped quadcopters, tracking soldiers attempting to escape or conceal themselves.
- A more sophisticated military reconnaissance drone provided the surveillance needed for the operation. It helped identify approaching Russian forces, monitor the engagement, and record footage for the brigade's subsequently published video.
- The brigade's combat video lasted 1 minute and 27 seconds. Although edited as a military highlight reel, it illustrated the combined use of traditional anti-tank weapons, reconnaissance aircraft, and low-cost attack drones.
- The 79th Air Assault Brigade is highly trained but significantly outgunned. The unit's reliance on drones reflects Ukraine's broader need to compensate for shortages of soldiers, artillery ammunition, and expensive military equipment.
- The fighting took place near Marinka in Ukraine's Donetsk region. The 79th had spent years defending the surrounding area against Russian attacks.
- Marinka was once home to approximately 9,000 residents but was reduced to a largely destroyed ghost town. Few structures remained standing after prolonged fighting.
- Russia captured Marinka in late 2023 following approximately 20 months of fighting. Its capture raised concerns that Russian forces would gain better access to Ukrainian territory farther west.
- Kurakhove became an important potential target following Marinka's fall. The city lies approximately 10 miles, or 16 kilometers, west of Marinka along the O0510 road, making it a possible route for a Russian breakthrough.
- Russian forces reportedly failed in 14 coordinated breakthrough attempts over more than six months following Marinka's capture. The account attributes Ukraine's ability to resist these attacks partly to trained defenders and their extensive use of drones.
- The 79th repeatedly used similar drone-assisted tactics against Russian assaults. The brigade published other combat videos 11 days and 20 days before the three-tank footage, suggesting that the engagement was part of an established operational pattern rather than an isolated experiment.
- Ukraine's drone strategy evolved substantially from the opening phase of Russia's full-scale invasion. Early operations emphasized larger military-grade aircraft, while subsequent fighting increasingly relied on inexpensive commercial drones and expendable attack aircraft.
- The Turkish-manufactured Bayraktar TB2 was one of Ukraine's most prominent early-war weapons. It could remain airborne for up to 27 hours and carry approximately 330 pounds, or 150 kilograms, of payload.
- Ukraine purchased six Bayraktar TB2 drones and three control stations in 2019 for approximately $69 million. The acquisition represented a substantial investment in unmanned military aviation before Russia's full-scale invasion.
- Bayraktar TB2 drones were operating in Donbas by 2021. Ukrainian forces used them for patrols and carried out at least one strike against a separatist position before the February 2022 invasion.
- The TB2 achieved prominent battlefield successes during the invasion's early months. Ukrainian forces used the drones against Russian tanks, fuel trains, armored fighting vehicles, and missile systems.
- By April 2022, Bayraktar drones were also being credited with strikes against Russian vessels. Their battlefield reputation expanded beyond land targets.
- The Bayraktar became a symbol of Ukrainian resistance. Ukrainian troops and radio stations celebrated the aircraft in a song, while international media coverage included a New Yorker article titled The Turkish Drone That Changed the Nature of Warfare.
- Russia eventually reduced the Bayraktar's effectiveness by strengthening its air defenses. As Russian forces established more defensive positions, they increasingly targeted the relatively slow, low-flying, expensive drones with surface-to-air missiles.
- Bayraktar drones were consequently pushed away from their original frontline attack role. According to the account, they became more useful for relatively limited observation missions as the danger of losing them increased.
- Expensive military drones exposed Ukraine to an unfavorable economic exchange with Russia. Even when successful, losing costly aircraft threatened to exhaust resources that Ukraine could not replace as easily as its larger opponent.
- Ukraine responded by shifting toward inexpensive commercial quadcopters. These aircraft were easier to operate, acquire, produce, and replace than multimillion-dollar military drones.
- DJI became an important supplier of drone technology used by Ukrainian forces, despite not manufacturing military-grade aircraft. The company did not intend its consumer products to become weapons, but its quadcopters were extensively repurposed for warfare.
- Ukrainian Prime Minister Denys Shmyhal claimed in October 2023 that Ukraine had obtained approximately 60% of DJI's global Mavic quadcopter output. The figure was presented as his claim, illustrating the reported scale of Ukrainian demand rather than an independently established production statistic.
- Some of the commercial drones used in the conflict retailed for less than $1,000. Their relatively low purchase price made it possible for Ukraine to deploy and replace aircraft in quantities that would be impractical with traditional military systems.
- Small reconnaissance drones gave Ukrainian defenders a significant surveillance advantage. Operators could observe troop movements, vehicle concentrations, preparations for assaults, and disturbances along the front without exposing themselves directly.
- Persistent drone surveillance made it harder for Russia to concentrate large formations undetected. Russian forces increasingly had to move in smaller groups and at greater speed to reduce their exposure.
- The shift toward smaller, faster movements complicated Russia's traditional reliance on numerical superiority. The account argues that these tactics demanded coordination and organizational flexibility from a force already affected by logistical and command difficulties.
- Commercial drones helped Ukraine conserve scarce artillery ammunition. Instead of firing at every possible target, Ukrainian operators could inspect potential targets at close range and determine whether they justified the expenditure of valuable shells.
- Small quadcopters offered a different intelligence capability from larger military drones. A Bayraktar could identify activity from miles away, whereas a commercial quadcopter could approach closely enough to provide more detailed confirmation.
- Ukraine's civilian population helped supply the military with drones. Citizens donated privately owned hobby aircraft, while supporters in Western countries also contributed equipment.
- The ability to crowdsource drones became a logistical advantage for Ukraine. Consumer aircraft could be acquired through ordinary civilian supply channels, reducing dependence on specialized military procurement.
- Ukraine subsequently expanded the use of purpose-built first-person-view attack drones. These aircraft, commonly called FPV or kamikaze drones, increasingly came from domestic Ukrainian manufacturers rather than being adapted exclusively from consumer products.
- FPV attack drones differ from ordinary reconnaissance quadcopters in their design and purpose. Many use fixed camera systems that provide pilots with a first-person view, some have fixed wings, and an increasing proportion are manufactured specifically for combat.
- A kamikaze drone delivers its explosive payload by striking the target itself. Unlike a reusable drone that drops a grenade or other munition, the attack aircraft is normally destroyed during the strike.
- An FPV attack drone was estimated to cost approximately $400. This made it possible to threaten vehicles worth hundreds or thousands of times more than the aircraft attacking them.
- A Soviet-era T-72 cost several million dollars to manufacture, according to the account's approximate figures. Modernizing such a tank for contemporary combat could require an additional expenditure exceeding $200,000.
- The cost difference between drones and tanks transformed the economics of armored warfare. Even allowing for unsuccessful attacks and multiple drones per target, an inexpensive aircraft could inflict disproportionate financial losses on an opponent.
- Attack drones also reduced Ukraine's need to expose soldiers during dangerous operations. Aircraft could search for retreating troops, attack armored vehicles, and complete destruction missions that otherwise might require personnel to approach enemy positions.
- The manpower advantage mattered particularly around Marinka. Ukrainian troops defending the eastern front were described as heavily outnumbered, making technologies that reduced direct exposure especially valuable.
- Drones became part of the 79th Brigade's permanent military organization. The brigade established a dedicated attack-drone company alongside more conventional formations, including its tank company and attack battalions.
- The brigade began openly recruiting drone pilots. Its published vacancies offered compensation competitive with other military positions, indicating that drone operation had become a recognized military specialization.
- The brigade's public presentation also reflected drones' growing importance. Its website featured drone imagery alongside more traditional representations of military power, including soldiers and helicopters.
- Ukrainian units continued requesting additional drones through public channels. Brigade members used YouTube to communicate their equipment needs and attract support.
- American nonprofit organizations helped facilitate drone donations to Ukraine. Groups such as Ukrainian Defense Support, operating within the US 501(c)(3) nonprofit framework, published guidance explaining how American consumers could help deliver drones to Ukrainian soldiers.
- Russia responded to Ukraine's drone advantage with physical defenses. Among the simplest and most effective were nets designed to entangle the exposed propellers of incoming quadcopters.
- Anti-drone netting was installed around important Russian frontline infrastructure. These barriers could stop commercially derived aircraft before they reached their intended targets.
- Russian forces also experimented with protective metal cages around armored vehicles and other valuable equipment. The cages were intended to keep exploding drones farther from vulnerable components, reducing the damage caused by direct impacts.
- Commercial drone limitations made operators vulnerable to counterattack. Many inexpensive aircraft could remain airborne for only 20–30 minutes and had communication ranges sometimes as short as one mile.
- Short operating ranges forced many drone pilots to work close to the front. Although aircraft could be flown from concealment, their operators still faced significant risks because they needed to remain near the area of combat.
- Russia developed its own substantial drone capabilities, supported by expanding domestic manufacturing. This reduced Ukraine's early advantage and turned the conflict into a contest between increasingly capable drone forces.
- Drone-on-drone warfare became an important part of frontline fighting. Russian and Ukrainian operators began using aircraft to locate and attack one another's positions rather than focusing exclusively on infantry and vehicles.
- Drone pilots on both sides increasingly operated from makeshift bunkers. They briefly exposed themselves to launch aircraft before attempting to remain concealed while conducting their missions.
- Destroying an enemy drone operating base became a high-value objective. Eliminating a location housing operators and equipment could disable an entire group of drones, potentially producing greater tactical value than destroying one tank or truck.
- Electronic warfare emerged as one of the most effective defenses against drones. Rather than physically intercepting an aircraft, opposing forces could disrupt the signals required for its navigation or remote control.
- GPS-dependent drones were vulnerable because satellite navigation signals are relatively weak. Interference could prevent reliable positioning, while deceptive signals could cause an aircraft to calculate an incorrect location.
- Commercial drones were especially vulnerable when their communication frequencies were predictable. Russian electronic warfare equipment could transmit interference on those frequencies, disrupting communication between Ukrainian operators and their aircraft.
- Loss of the control link could cause drones to fail their missions or crash. This made radio interference a relatively inexpensive way to defeat equipment that might otherwise threaten valuable targets.
- Drone manufacturers and electronic warfare units entered a continuous technological contest. When one side developed effective jammers, the other adapted its aircraft to different communication frequencies, prompting further changes in countermeasures.
- Electronic warfare progressively reduced drone attack effectiveness on both sides. The account reports that the likelihood of an individual aircraft successfully destroying an enemy asset declined as countermeasures improved.
- The economic advantage of low-cost kamikaze drones consequently began to weaken. Their low purchase prices remained attractive, but additional failed attacks meant more drones were required to achieve the same battlefield result.
- Autonomous targeting emerged as a potential response to electronic warfare. If an aircraft could navigate, recognize targets, and perform its mission independently, it would become less dependent on vulnerable communication links.
- Ukrainian startup Saker developed drones capable of identifying possible military targets through computer vision. Demonstration footage showed software placing boxes around objects it recognized as potential targets.
- Saker's targeting interface displayed both object classifications and confidence scores. Labels identified what the software believed it was observing, while numerical indicators represented its confidence in those classifications.
- Computer vision allowed drones to interpret visual information rather than relying entirely on a human operator to identify objects. This was presented as an early step toward aircraft making more battlefield decisions independently.
- Autonomy could eventually allow drones to navigate toward and strike targets without continuous operator communication. Such a capability would directly address the vulnerability created by Russian signal jamming.
- The degree of human authorization required for autonomous attacks remained an unresolved question. The account distinguished between drones independently carrying out an approved mission and drones independently selecting targets and deciding whether to attack.
- Saker drones reportedly destroyed Russian targets while operating autonomously. The account treated these reports as evidence that autonomous weapons were beginning to be used in actual combat.
- Fully autonomous attack drones had not achieved widespread deployment in Ukraine at the time described. The account acknowledged that available evidence did not establish large-scale battlefield adoption.
- Early autonomous drones remained technically unreliable, expensive, and dependent on human involvement. Their added complexity made them less practical than some conventional FPV drones delivering comparable destructive effects.
- The continued need for human operators limited the scale of early autonomous systems. Even with automated target recognition, requiring substantial human oversight prevented militaries from fully exploiting large numbers of aircraft simultaneously.
- Anduril Industries was presented as an American company attempting to overcome those limitations. Based in an industrial area of Costa Mesa, California, the company was developing autonomous military systems intended to operate together rather than as isolated aircraft.
- Anduril was founded by Palmer Luckey, the entrepreneur behind Oculus virtual-reality headsets. Luckey developed Oculus while young and sold the company to Facebook for approximately $2 billion when he was 21.
- Anduril's founding team drew experience from SpaceX and Palantir. These companies influenced its approach to software, engineering, military procurement, and government contracting.
- SpaceX and Palantir had previously challenged aspects of US government procurement through legal action. Both believed established contractors benefited from bidding arrangements that made it unnecessarily difficult for newer companies to compete.
- Traditional defense contractors such as Raytheon and launch providers such as United Launch Alliance represented the established procurement system Anduril intended to challenge. The account characterized this system as favoring incumbent suppliers over disruptive competitors.
- Cost-plus government contracts were identified as a major source of weak incentives for efficiency. Under such arrangements, a contractor receives reimbursement for allowable costs plus an agreed profit component, which can reduce incentives to lower the underlying costs of a project.
- United Launch Alliance's Atlas V program was used as an example of the established procurement model. The account argued that long-running government support for existing launch infrastructure reduced pressure to develop cheaper alternatives.
- SpaceX pursued a different commercial strategy by financing technological development itself. Rather than wait for a government contract to pay for innovation, it invested in a more efficient launch system and then competed to provide launch services at lower prices.
- SpaceX's strategy ultimately helped it secure government business and become a dominant US launch provider. The account presented this as evidence that privately financed technological improvements could challenge established government contractors.
- Anduril adopted a similar strategy of developing products before selling them to government customers. Its approach was to bear much of the innovation risk itself and offer completed capabilities attractive enough to win procurement decisions.
- Anduril differed from SpaceX and Palantir by concentrating directly on military products. Whereas launch services and data analytics can serve substantial civilian markets, Anduril positioned its technology primarily for the United States and allied defense customers.
- Artificial intelligence became central to Anduril's product strategy. The company sought to reduce reliance on separate human operators by making multiple autonomous devices operate within a common system.
- Anduril's flagship software platform, Lattice, was described as an operating system for military operations. Its purpose was to connect sensing, decision-making, electronic warfare, and physical interceptors into a coordinated network.
- Lattice's significance lies in coordinating different military devices rather than simply controlling one drone. The platform aims to allow surveillance equipment, autonomous vehicles, and defensive weapons to share information and respond as parts of one system.
- Anduril's Sentry system provides surveillance and automated detection capabilities. One of the company's earlier products, it was originally deployed along the US–Mexico border through a contract with US Customs and Border Protection.
- A company demonstration showed Sentry detecting an approaching hostile drone. The simulated detection triggered an alert for a human operator through the wider Lattice system.
- In the demonstration, a human operator chose to activate Anduril's Pulsar electronic warfare system. Pulsar was presented as capable of interfering with communications to and from hostile drones.
- The same demonstration showed Anduril deploying its Anvil interceptor drone. Anvil is designed to physically collide with an opposing aircraft, destroying or disabling it through direct impact.
- The Sentry, Pulsar, and Anvil demonstration illustrated a coordinated detection-and-response system. Surveillance detected the threat, an operator authorized a response, electronic warfare attempted to disrupt it, and an autonomous interceptor was deployed.
- The Lattice demonstration was promotional and simulated rather than direct evidence of a particular combat engagement. It illustrated the integrated capabilities Anduril intended to provide.
- Anduril was also developing jet-powered interceptors, infrared surveillance equipment, and other unmanned aircraft. These products could become additional components of its integrated military technology platform.
- Coordinated autonomy addresses the high cost of human drone operators. Although small drones can be inexpensive to manufacture, assigning a dedicated trained person to every aircraft limits how many can be deployed effectively.
- The central economic opportunity is to reduce both aircraft costs and operating costs. Lattice-style coordination could allow a smaller number of people to oversee larger groups of autonomous systems.
- Traditional weapons involve trade-offs between cost, range, and destructive capability. A grenade can be inexpensive and powerful but requires proximity to a target, while a precision-guided missile offers greater reach and accuracy at a substantially higher manufacturing cost.
- Individual kamikaze drones are inexpensive and capable of reaching valuable targets, but their effectiveness is uncertain. The account illustrated this with a hypothetical average in which one drone might destroy only one-tenth of a tank when unsuccessful attacks are taken into account.
- Coordinated drone swarms could overcome the limitations of individual expendable aircraft through volume. Instead of relying on one attack succeeding, a military could deploy multiple autonomous weapons against the same target or group of targets.
- Large autonomous swarms could potentially consist of dozens, hundreds, or thousands of aircraft. Removing the need for one operator per drone would make such deployments more practical than conventional remote-piloted operations.
- The account predicted that large numbers of inexpensive autonomous drones could be deployed for less than the cost of some advanced precision-guided missiles. This was presented as a potential future capability, not an established cost comparison demonstrated in combat.
- Autonomous swarms could allow an attacking force to deliver substantial destructive power while exposing fewer of its own personnel. Their economic and tactical appeal comes from combining replaceable machines, large deployment volumes, and reduced human participation near targets.
- The overall cost of carrying out lethal attacks could fall sharply as autonomous systems mature. The account argued that the combination of cheap aircraft, automated operation, and coordinated attacks could change the economics of warfare more profoundly than individual drones already had.
- Autonomous weapons raise a separate question about who makes lethal decisions. Traditional warfare generally requires a person to decide whether to use a weapon, while future AI systems could identify targets and potentially initiate strikes with far less direct human involvement.
- A distinction exists between authorizing a drone's deployment and authorizing a specific lethal strike. An operator might approve the launch of an autonomous system without personally selecting every subsequent target.
- The narrator argued that delegating lethal decisions to algorithms could weaken personal moral responsibility. If no individual directly decides to fire at a particular person, the psychological burden traditionally associated with killing may become less immediate.
- The reduction of human involvement was presented as an ethical risk, not merely a technical achievement. The account argued that decisions involving human life should retain meaningful friction, responsibility, and accountability.
- The potential efficiency of autonomous warfare was described as unusually dangerous. Although new military technologies have often inspired exaggerated fears, the narrator suggested autonomous drone swarms might represent an exception because they combine scale, low cost, and reduced human oversight.
- Existing US military drone operations were cited as a warning about remote warfare. The narrator argued that the availability of long-range remotely piloted aircraft had already made lethal operations outside conventional battlefields easier to conduct.
- US drone strikes outside formally declared wars were criticized for civilian casualties and weak accountability. The account claimed that military operations conducted in countries without an active formal state of war had blurred the distinction between wartime and peacetime.
- The narrator argued that remote warfare had contributed to a condition of near-continuous military engagement. The ability to strike distant targets without deploying large forces was presented as one reason military action could become easier to sustain.
- Commercial drone technology creates risks beyond conventional armies. Aircraft capable of carrying small explosive payloads can now be acquired through civilian markets rather than exclusively through specialized defense manufacturers.
- Terrorist organizations, criminal cartels, and other non-state groups were identified as potential beneficiaries of inexpensive drone technology. The concern was that they could deliver explosives to distant targets while facing relatively low costs and reduced personal exposure.
- Miniaturization could spread capabilities once restricted to wealthy national militaries. Technologies associated with expensive military aircraft are becoming accessible through consumer hardware and increasingly sophisticated software.
- State militaries could also become more willing to use force if autonomous systems reduce operational risk. The narrator questioned whether governments would exercise the same restraint when attacks require fewer personnel, less money, and less direct human decision-making.
- The implications of autonomous drones extend beyond Ukraine's battlefield. Ukraine demonstrated the practical value of inexpensive remotely operated aircraft, while companies such as Saker and Anduril were pursuing systems capable of progressively greater independence and coordination.
- Artificial intelligence was identified as a foundational technology for the next generation of military drones. Neural networks and computer vision can already assist with object recognition and target identification, while integrated autonomy could eventually allow substantially larger numbers of aircraft to operate with limited supervision.
- The central unresolved issue is how much lethal authority humans will retain as autonomous weapons improve. The technologies described promise cheaper surveillance, defense, and attack capabilities, but their development also creates the possibility of machines making increasingly consequential decisions about human lives.