Autonomous command & control system
Take control of the digital kill chain
Overview
This command-and-control system is the layer that turns scattered sensors and effectors into one directed response. Detection, decision and engagement each sit with a different piece of equipment, and the time lost passing information between them is the time an attacker exploits. This system holds that sequence in one place: real-time decision support, adaptive mission planning and coordinated multi-agent execution across air and ground platforms, delivered over military-grade encrypted, anti-jam mesh networking so no single link failure stalls the whole picture. The operator stays in command of what is engaged and when; the automation compresses the routine steps rather than removing the human judgement. Owning this layer matters for sovereignty as much as speed, because the customer sets the rules the chain follows and holds the record of every decision it took. The manufacturer delivers and sustains it with one accountable team, so the software that runs a nation's response is not gated behind a foreign vendor's release schedule.
Take control of the digital kill chain: the control layer holds detection, decision and engagement in one place, delivered and sustained by one accountable team so a nation's response is not gated behind a foreign vendor's release schedule.
Capabilities
- Control layer that turns scattered sensors and effectors into one directed response
- AI-powered intelligence for real-time decision support and adaptive mission planning, with the operator in command
- Swarming for coordinated multi-agent execution across air and ground platforms
- Secure communications with military-grade encryption, anti-jamming and resilient mesh networking
- An auditable record of what was engaged and when, kept under the customer's own control
- Delivered and sustained in-region by one accountable team
Specifications
| Type | Command & control system |
| Role | Digital kill chain control |
| Origin | Independent / non-aligned |
| Support | In-region sustainment |
Why Unstrat: the difference
Unstrat is the authorised global representative and distributor for this capability. It is already in service with a track record behind it, so you are buying something that has done the job elsewhere, not funding a first attempt. You are not the test bed.
Independent, non-aligned origin, with no political exposure to any major-power ecosystem.
One accountable team from first briefing through delivery and in-region sustainment.
The control system is the sovereign layer: the customer sets the rules the chain follows and keeps the record of every decision it took.
Mesh networking means no single link failure stalls the whole picture, so the response degrades gracefully under attack rather than going dark.
How it reaches you
Related capability
View all →
Procurement & sustainment
Classification and the end-user-certificate chain are confirmed before this capability is represented to your market.
Sourced from an independent manufacturer: no major-power disclosure rules or political conditions.
A single team responsible from first briefing through delivery: not a chain of foreign primes to integrate yourself.
Lifecycle support and operator training delivered in-region, building capability that outlasts the initial deployment.
Questions buyers ask
What does a drone command-and-control system do?
It turns a collection of platforms into a fleet: real-time decision making, adaptive mission planning and coordinated multi-agent execution, carried over military-grade encrypted, anti-jam mesh networking. The Unmanned Systems Developer's control layer is in service above platforms that fly on task, sustained in-region by the team that delivers it. It is a working command system rather than a demonstration console.
See: Scope of the command layerAgainst Baykar MYGS and STM swarm control
Fleet management or mission autonomy: what am I actually buying?
Two different products that buyers routinely conflate. Baykar's suite watches and coordinates aircraft: air traffic deconfliction, task planning, antenna and frequency planning, live position, fuel, payload and alarm state across all flights. STM's swarm layer decides task allocation between platforms. Ours is specified for the second job across air and ground platforms. Buy the wrong one and you end up with a beautiful map and no autonomy, or autonomy with no fleet oversight.
Can one command system control drones from different manufacturers?
That is the deciding question for a mixed fleet and it deserves a demonstration rather than an answer. We do not publish supported platform counts or interface standards, and our comparison page says so; Baykar's suite is built around Baykar aircraft and STM's around STM's mini UAV family. Insist that any bidder controls a platform it did not build, in front of you, before the contract is signed.
Is the command link encrypted and jam resistant?
Ours runs military-grade encryption, anti-jamming and resilient mesh networking, with no single node whose loss takes the network down. Baykar publishes encrypted transfer of live imagery from its secure network to mobile devices; STM publishes AES-256 on its mini UAV datalink and dedicated inter-platform communication for swarm coordination. Ask each supplier which standard, at which layer, and then test it under jamming.
See: Networking row in the comparisonAnti-jam mesh links behind the command layer
Command-and-control system that runs air and ground unmanned systems together
Cross-domain tasking is the specific claim our layer makes: coordinated multi-agent execution across the air and ground fleet from one command point, rather than a separate controller per domain. Neither Turkish system in our comparison publishes cross-domain control. Because that claim is easy to overstate, require a live handover from an airborne sensor to a ground platform under one operator as part of the trial.
See: Multi-platform tasking comparedGround platforms under the same control layer
Does the command system keep a human in the loop for weapon release?
The Unmanned Systems Developer's line is operator-in-the-loop under the applicable rules of engagement, across every platform the command layer tasks. STM states that strike is performed by the operator on the man-in-the-loop principle even inside a swarm. Baykar does not publish a release-authority model for its central command layer. If your legal framework requires positive human authorisation, make each vendor show the authorisation path in a live demonstration.
How much does it cost to add a new platform type to a command system?
That is the number that governs the next decade, and it is rarely in the bid. The purchase price is the small part; integration of each new platform, software updates, operator retraining and support are the recurring costs. Baykar publishes life-cycle cost analysis and spares management as part of its logistics offer, which is the right list. Ask every bidder to price the integration of one additional platform type in writing.
Command system for a force that fuses radar, RF and optical sensors as well as drones
A command layer is only as useful as the picture underneath it, so the sensor fusion question comes first. The Unmanned Systems Developer's fusion layer brings radar, RF, optical and unmanned-platform feeds into one picture with the operator kept in the loop, and the command system tasks against that picture. Buying an autonomy layer with no fused input produces confident decisions on partial information.
What does a command system need to publish before we can compare bids?
Supported platform count, interface standards such as STANAG or MAVLink, the architecture, and the hosting model. We publish none of those four today and our comparison page records the gap; Baykar publishes a module-level description of its suite, including telemetry, route planning, intelligence and archive services. Write those four items into the tender and every bid becomes comparable.
Why does the origin of the command system matter more than the origin of the drones?
Because it outlives them and gates everything else. Airframes are replaced every few years; the control layer decides which platforms can join the fleet, who can see the imagery and how quickly a new capability is fielded. A command layer from a state-backed supplier carries that state's export approvals into every future expansion. A non-aligned supplier with in-region sustainment leaves the decision domestic.
We already run one vendor's aircraft. Should we buy their command system too, or something independent?
Buy theirs if you expect the fleet to stay single-vendor for a decade, because the integration is done and the fidelity is real. Buy independently if you expect to add platforms from other sources, and then make control of a foreign platform a contractual acceptance test rather than a roadmap item. The cost of getting this wrong is not the software, it is the platform you cannot buy in five years.
See: Platform tie for each supplierCommand layer across the unmanned fleet
What does good sustainment look like for a command-and-control system, as opposed to for an aircraft?
Software support, integration engineering and operator retraining, delivered continuously rather than at handover. Baykar publishes an integrated logistics package including spares management, life-cycle cost analysis, NATO codification and a 24/7 web interface, and documenting the unglamorous parts that way is a genuine strength. Our model is in-region sustainment by one accountable team, so the engineers who support the command layer are also the ones who support the platforms it tasks.
How do we keep imagery and mission data inside our own network when the command system distributes it?
Make it a contract clause and test it in the trial. Baykar publishes a permission-based image transfer centre with automatic archiving by date, location and operator notes, which is a well-designed distribution model and also a data path you need to understand. We do not publish an imagery distribution architecture, so require every bidder to draw the data flow, name where each store sits, and confirm that nothing leaves your infrastructure by default.
Our operators cannot watch dozens of feeds at once. What should the command layer automate?
Detection and cueing, not the decision. The useful pattern is that platforms classify what they see and the system alerts an operator to what matters, which is how STM describes its swarm behaviour, while the engagement decision stays with a person. Our layer applies AI-assisted decision support and adaptive mission planning with the operator in the loop. Measure the result in the trial: how many platforms one supervisor can hold and how many alerts were wrong.
See: Multi-agent tasking and operator loadSwarming layer under the same command point
Can a command-and-control system be procured before the platforms it will control?
It can, and there is an argument for doing so, because the control layer determines what you are able to buy next. The risk is buying autonomy you cannot exercise, so tie the purchase to a defined first fleet and to acceptance tests against a platform you already own. Then require the integration price for the second and third platform types in the same contract, before the supplier holds all the leverage.
Autonomous command & control system: questions
What is Autonomous command & control system?
Autonomous command & control system is Unstrat's Sky (Air Domain) capability: This command-and-control system is the layer that turns scattered sensors and effectors into one directed response. Detection, decision and engagement each sit with a different piece of equipment, and the time lost passing information between them is the time an attacker exploits. This system holds that sequence in one place: real-time decision support, adaptive mission planning and coordinated multi-agent execution across air and ground platforms, delivered over military-grade encrypted, anti-jam mesh networking so no single link failure stalls the whole picture. The operator stays in command of what is engaged and when; the automation compresses the routine steps rather than removing the human judgement. Owning this layer matters for sovereignty as much as speed, because the customer sets the rules the chain follows and holds the record of every decision it took. The manufacturer delivers and sustains it with one accountable team, so the software that runs a nation's response is not gated behind a foreign vendor's release schedule.
How does Autonomous command & control system work?
Autonomous command & control system delivers its effect through control layer that turns scattered sensors and effectors into one directed response, AI-powered intelligence for real-time decision support and adaptive mission planning, with the operator in command and Swarming for coordinated multi-agent execution across air and ground platforms, capabilities matched to the requirement and confirmed under briefing rather than published.
Who makes Autonomous command & control system?
Autonomous command & control system is built by The Unmanned Systems Developer, whose focus is counter-uas, loitering munitions & unmanned aircraft. Unstrat represents The Unmanned Systems Developer to government and enterprise buyers worldwide as an independent, non-aligned prime vendor.
Why choose Autonomous command & control system over a major-power alternative?
Autonomous command & control system is sourced from an independent, non-aligned manufacturer, so it carries no major-power disclosure rules, upgrade-locks or political ramifications. Concretely: the control system is the sovereign layer: the customer sets the rules the chain follows and keeps the record of every decision it took and Mesh networking means no single link failure stalls the whole picture, so the response degrades gracefully under attack rather than going dark. The capability is accountable to you, not to a foreign vendor's government and its release schedule.
How is Autonomous command & control system procured, and where can it be exported?
Take control of the digital kill chain: the control layer holds detection, decision and engagement in one place, delivered and sustained by one accountable team so a nation's response is not gated behind a foreign vendor's release schedule. Every engagement begins with a briefing, and export eligibility is confirmed per market under briefing rather than published. Where controlled capabilities are involved, the classification and end-user-certificate chain is confirmed first. Autonomous command & control system is then sustained in-region by one accountable team from briefing through long-term operation.