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Technology explained / 03

AI drones explained: autonomy, guidance and human control

The short answer

“AI drone” is an incomplete description. A system may use machine vision to navigate, recognise an object or follow a target selected by a person. The crucial question is which function runs autonomously. Autonomous flight and autonomous selection and engagement of targets are different capabilities.[6][8]

Ask which task is autonomous

Remote piloting · Route navigation · Terminal guidance · Autonomous target selection + engagement · Functions, not a universal autonomy rating1234
  1. 1 Remote piloting
  2. 2 Route navigation
  3. 3 Terminal guidance
  4. 4 Autonomous target selection + engagement

Functions, not a universal autonomy rating

Original schematic by DroneLedger editorial team · not to scale[1][6][8][9]

Autonomy does not necessarily require machine learning. The ICRC notes that some autonomous systems use simple rule-based software. Conversely, a weapon using AI only for navigation is not necessarily an autonomous weapon in the targeting sense. An “AI” label cannot settle the classification.[6]

GNSS means global navigation satellite systems, including GPS. Navigation without those signals can draw on inertial sensors, visual odometry, terrain matching or simultaneous localisation and mapping. RUSI lists these alternatives. They are a family of techniques; identifying the technique matters more than the headline label.[9][10]

CSIS describes last-mile guidance as the final approach after an operator has visually confirmed a target. The operator activates lock-on; the onboard system then guides the approach. This can reduce reliance on a continuous manual command link during that phase without proving independent selection of a new target.[8]

Recognition and permission to attack should be read separately. Reporting on Saker Scout relays the Ukrainian ministry’s claim that the system detects equipment and sends coordinates to a command post. Detecting an object, classifying it as equipment and authorising force are not interchangeable descriptions.[6][11]

A sourced timeline

  1. DARPA’s OFFSET programme reports experiments in swarm autonomy and human–swarm teaming. Here, “swarming” is a question about coordination and allocation of tasks among vehicles. Footage showing many drones at once is insufficient to establish what coordination was automatic or who authorised their actions.[1]

  2. The January 2023 edition of US DoD Directive 3000.09 requires appropriate levels of human judgment over the use of force and sets review procedures, with specified exceptions and a waiver route. That dated US policy is not a global ban or proof that all autonomous engagement is prohibited.[2]

  3. The 2023 Nature paper on Swift demonstrates autonomous drone racing using learning-based and traditional algorithms. It is peer-reviewed evidence for a specific perception-and-control task. Winning a defined race is not evidence that the same system can distinguish lawful targets in an uncontrolled combat environment.[14]

  4. Ukrinform reported Ukraine’s approval of Saker Scout on 4 September 2023, citing the defence ministry. The claimed recognition and coordination functions are official claims relayed by the agency. Approval for use is not an independently published accuracy test across camouflage, weather and different target classes.[11]

  5. CSIS describes last-mile guidance as the final approach after an operator has visually confirmed a target. The operator activates lock-on; the onboard system then guides the approach. This can reduce reliance on a continuous manual command link during that phase without proving independent selection of a new target.[8]

  6. The UN Convention on Certain Conventional Weapons (CCW) process scheduled expert-group sessions on lethal autonomous weapons for March and August–September 2026. The ICRC’s 2026 FAQ distinguishes autonomous navigation from autonomous targeting. Negotiating sessions, proposed rules and existing obligations are different things; none is a performance test of a named drone.[6][16]

What is established, and what is claimed?

Evidence and limits
How to read itEvidence and limits
Demonstrated in the stated research task

The 2023 Nature paper on Swift demonstrates autonomous drone racing using learning-based and traditional algorithms. It is peer-reviewed evidence for a specific perception-and-control task. Winning a defined race is not evidence that the same system can distinguish lawful targets in an uncontrolled combat environment.[14]

Attributed party claim

Ukrinform reported Ukraine’s approval of Saker Scout on 4 September 2023, citing the defence ministry. The claimed recognition and coordination functions are official claims relayed by the agency. Approval for use is not an independently published accuracy test across camouflage, weather and different target classes.[11]

Reported evidence; limits explicit

Reporting that cites Ukrainian defence intelligence describes a recovered Shahed variant with an infrared camera and an Nvidia Jetson Orin computer. That supports a reported hardware change. The presence of an AI-capable processor does not, on its own, establish which software ran or whether targets were selected autonomously.[12]

Manufacturer claim; no independent test here

AeroVironment says Switchblade 600 operators can wave off an attack and re-engage. That is a named manufacturer claim about an operator-control feature. The fact that a munition has onboard guidance does not tell you that human supervision or an abort option is absent.[15]

Historical assessment; not a current blanket verdict

Lancet’s autonomy claims have a history. A May 2022 CSIS analysis distinguished Kalashnikov’s marketing of autonomous target-finding from evidence of actual use in that mode. It is a dated warning about proof standards, not a current verdict that later Lancet versions lack autonomous functions.[7]

Named systems, carefully bounded evidence

Ukrinform reported Ukraine’s approval of Saker Scout on 4 September 2023, citing the defence ministry. The claimed recognition and coordination functions are official claims relayed by the agency. Approval for use is not an independently published accuracy test across camouflage, weather and different target classes.[11]

Lancet’s autonomy claims have a history. A May 2022 CSIS analysis distinguished Kalashnikov’s marketing of autonomous target-finding from evidence of actual use in that mode. It is a dated warning about proof standards, not a current verdict that later Lancet versions lack autonomous functions.[7]

Reporting that cites Ukrainian defence intelligence describes a recovered Shahed variant with an infrared camera and an Nvidia Jetson Orin computer. That supports a reported hardware change. The presence of an AI-capable processor does not, on its own, establish which software ran or whether targets were selected autonomously.[12]

AeroVironment says Switchblade 600 operators can wave off an attack and re-engage. That is a named manufacturer claim about an operator-control feature. The fact that a munition has onboard guidance does not tell you that human supervision or an abort option is absent.[15]

The US Army’s HAROP reference describes an operator selecting one loitering munition for target search and attack while monitoring others. This illustrates why the label “loitering munition” does not by itself specify who chooses a target or how much control is delegated to software.[4]

In a CSIS interview, Shield AI described V-BAT transitioning from GPS to an alternative navigation solution. Treat this as the manufacturer’s explanation of its system. It does not independently verify every advertised autonomy feature or establish autonomous authority to use force.[13]

A swarm claim needs more than a crowd

DARPA’s OFFSET programme reports experiments in swarm autonomy and human–swarm teaming. Here, “swarming” is a question about coordination and allocation of tasks among vehicles. Footage showing many drones at once is insufficient to establish what coordination was automatic or who authorised their actions.[1]

The 2023 Nature paper on Swift demonstrates autonomous drone racing using learning-based and traditional algorithms. It is peer-reviewed evidence for a specific perception-and-control task. Winning a defined race is not evidence that the same system can distinguish lawful targets in an uncontrolled combat environment.[14]

Failure modes and countermeasures

An August 2024 CSIS commentary relays Ukrainian accounts of vision-equipped US drones struggling over dense forests. This is a context-specific report of navigation failure. It is a reason to ask about realistic test conditions, rather than assuming a successful demonstration proves reliability in every landscape.[3]

The countermeasure question depends on the function. Removing dependence on a radio or GNSS signal can reduce the effect of jamming that signal. It does not remove the need for functioning sensors and navigation, and CSIS reporting shows vision-based systems can struggle over dense forest.[3][9]

Human control and the policy debate

The January 2023 edition of US DoD Directive 3000.09 requires appropriate levels of human judgment over the use of force and sets review procedures, with specified exceptions and a waiver route. That dated US policy is not a global ban or proof that all autonomous engagement is prohibited.[2]

The ICRC’s 2021 position calls for new binding rules, including prohibitions on unpredictable autonomous weapons and autonomous weapons targeting people. This is a humanitarian policy position advocating legal change. It must not be presented as a treaty already adopted by all states.[5]

The UN Convention on Certain Conventional Weapons (CCW) process scheduled expert-group sessions on lethal autonomous weapons for March and August–September 2026. The ICRC’s 2026 FAQ distinguishes autonomous navigation from autonomous targeting. Negotiating sessions, proposed rules and existing obligations are different things; none is a performance test of a named drone.[6][16]

What we do not know

Questions left open by this source review:

  • For each fielded version, which exact functions run without operator input?
  • What are the false-positive and failure rates in independent tests, including weather, camouflage and civilians?
  • When a communications link is lost, does the system continue, abort or choose another target, and who set that behaviour?
  • Which swarm demonstrations establish coordination in combat rather than coordination in a prepared test?
Swift: autonomous racing research demonstrationWatch at the source · UZH Robotics and Perception Group ↗

The video opens only when you follow this link. No third-party video resources load here.[14]

Original schematic by DroneLedger editorial team · not to scale

Frequently asked questions

What is an AI drone?

“AI drone” is an incomplete description. A system may use machine vision to navigate, recognise an object or follow a target selected by a person. The crucial question is which function runs autonomously. Autonomous flight and autonomous selection and engagement of targets are different capabilities.[6][8]

Are autonomous drones the same as autonomous weapons?

Autonomy does not necessarily require machine learning. The ICRC notes that some autonomous systems use simple rule-based software. Conversely, a weapon using AI only for navigation is not necessarily an autonomous weapon in the targeting sense. An “AI” label cannot settle the classification.[6]

Can a drone navigate without GPS?

GNSS means global navigation satellite systems, including GPS. Navigation without those signals can draw on inertial sensors, visual odometry, terrain matching or simultaneous localisation and mapping. RUSI lists these alternatives. They are a family of techniques; identifying the technique matters more than the headline label.[9][10]

An August 2024 CSIS commentary relays Ukrainian accounts of vision-equipped US drones struggling over dense forests. This is a context-specific report of navigation failure. It is a reason to ask about realistic test conditions, rather than assuming a successful demonstration proves reliability in every landscape.[3]

What is last-mile or terminal guidance?

CSIS describes last-mile guidance as the final approach after an operator has visually confirmed a target. The operator activates lock-on; the onboard system then guides the approach. This can reduce reliance on a continuous manual command link during that phase without proving independent selection of a new target.[8]

Does an AI chip prove a Shahed selects its own targets?

Reporting that cites Ukrainian defence intelligence describes a recovered Shahed variant with an infrared camera and an Nvidia Jetson Orin computer. That supports a reported hardware change. The presence of an AI-capable processor does not, on its own, establish which software ran or whether targets were selected autonomously.[12]

Is every mass drone attack an autonomous swarm?

DARPA’s OFFSET programme reports experiments in swarm autonomy and human–swarm teaming. Here, “swarming” is a question about coordination and allocation of tasks among vehicles. Footage showing many drones at once is insufficient to establish what coordination was automatic or who authorised their actions.[1]

Are autonomous weapons already banned worldwide?

The January 2023 edition of US DoD Directive 3000.09 requires appropriate levels of human judgment over the use of force and sets review procedures, with specified exceptions and a waiver route. That dated US policy is not a global ban or proof that all autonomous engagement is prohibited.[2]

The ICRC’s 2021 position calls for new binding rules, including prohibitions on unpredictable autonomous weapons and autonomous weapons targeting people. This is a humanitarian policy position advocating legal change. It must not be presented as a treaty already adopted by all states.[5]

The UN Convention on Certain Conventional Weapons (CCW) process scheduled expert-group sessions on lethal autonomous weapons for March and August–September 2026. The ICRC’s 2026 FAQ distinguishes autonomous navigation from autonomous targeting. Negotiating sessions, proposed rules and existing obligations are different things; none is a performance test of a named drone.[6][16]

Sources and exact excerpts

Short excerpts show what a source says; they do not independently verify its claims. Dates retain the precision available in the source. AI-assisted source reading and drafting; no independent performance testing.

  1. DARPA ↗

    Official test report · 2021-12-09

    OFFSET swarm sprints had six themes: swarm tactics, swarm autonomy, human-swarm teaming, virtual environment, application of artificial intelligence, and physical testbed.

    Public indexed excerpt; full page not verified · Sources checked

  2. US Department of Defense ↗

    Policy document · 2023-01-25

    appropriate levels of human judgment over the use of force
    may request a Deputy Secretary of Defense waiver

    Public page · Sources checked

  3. CSIS ↗

    Independent analysis · 2024-08-26

    The computer vision systems struggled to identify objects amid the dense “ocean” of green and navigate

    Public indexed excerpt; full page not verified · Sources checked

  4. US Army ODIN ↗

    Official system description · 2024-06-10

    he can select one LM for target search and attack, while the others are monitored periodically

    Public indexed excerpt; full page not verified · Sources checked

  5. International Committee of the Red Cross ↗

    Policy position · 2021-05-12

    Unpredictable autonomous weapon systems should be expressly ruled out
    use of autonomous weapon systems to target human beings should be ruled out

    Public page · Sources checked

  6. International Committee of the Red Cross ↗

    Policy position · 2026-10-08

    Not all autonomous weapons systems incorporate artificial intelligence (AI).
    selects and applies force to a target without a human choosing the specific target

    Public page · Sources checked

  7. CSIS ↗

    Independent analysis · 2022-05-26

    Kalashnikov is clearly marketing the Lancet as a capable autonomous weapon but also one that can be remotely controlled depending on user preference.

    Public indexed excerpt; full page not verified · Sources checked

  8. CSIS ↗

    Independent analysis · 2025-03-06

    once it is within visual range and the operator has confirmed the target
    Lyutyi
    mainly a manual process
    declined to comment

    Public indexed excerpt; full page not verified · Sources checked

  9. RUSI ↗

    Independent analysis · 2024-10

    GNSS, sensors such as LIDAR or optical terrain contour-matching, inertial navigation, simultaneous localisation and mapping, optical flow or visual odometry

    Public indexed excerpt; full page not verified · Sources checked

  10. RUSI ↗

    Independent analysis · 2024-02-08

    The same technology may also be used for autonomous navigation through the use of terrain features.

    Public indexed excerpt; full page not verified · Sources checked

  11. Ukrinform ↗

    Reporting of party claims · 2023-09-04

    Дрон SAKER SCOUT зі штучним інтелектом Міноборони допустило до експлуатації у ЗСУ.

    Public page · Sources checked

  12. Mezha ↗

    Reporting of party claims · 2025-06

    it is equipped with an infrared camera and a high-speed American minicomputer Nvidia Jetson Orin

    Public indexed excerpt; full page not verified · Sources checked

  13. CSIS ↗

    Manufacturer claim · 2025-06-09

    transition to an alternative navigation solution

    Public indexed excerpt; full page not verified · Sources checked

  14. Nature ↗

    Research demonstration · 2023-08-30

    Swift uses a combination of learning-based and traditional algorithms to map onboard sensory readings to control commands.

    Public indexed excerpt; full page not verified · Sources checked

  15. AeroVironment ↗

    Manufacturer claim · 2024-05-07

    Switchblade 600’s patented wave-off and recommit capability allows operators to abort the mission and re-engage as the mission requires.

    Public indexed excerpt; full page not verified · Sources checked

  16. United Nations Office for Disarmament Affairs ↗

    Policy document · 2026

    from 2-6 March 2026 and from 31 August-4 September 2026

    Public indexed excerpt; full page not verified · Sources checked