Autonomous mission loop
Validated intent through route execution and recovery, bounded by mission authority and aircraft safety limits.
Arc-UAS turns validated operator intent into 100% autonomous mission execution—from planning and perception through recovery—inside configured mission authority and safety limits.
Open system brief*Fixed-wing endurance varies by aircraft, payload, power, and mission configuration.
Legacy UAS workflows push raw feeds and continuous control back to an operator. Arc-UAS moves the mission loop onboard, then carries the same controlled autonomy model from a 10-inch quadrotor to a five-foot fixed-wing aircraft.
Validated intent through route execution and recovery, bounded by mission authority and aircraft safety limits.
A compact Arc-UAS configuration for close-range, agile mission execution with onboard perception.
A fixed-wing Arc-UAS configuration with endurance up to two hours, depending on aircraft, payload, power, and mission profile.
Arc-UAS carries perception, mission state, planning, and recovery onboard. The operator sets intent and constraints; the aircraft executes the route, reacts to the scene, shares what matters, and continues through link loss within its configured authority.
Mission intent, bounds, and abort criteria
Routes, search patterns, and contingencies
On-aircraft detection and tracking
Re-plan as conditions change
Hold, return, land, or hand off
Configuration note / Autonomous behaviors, decision authority, and safety envelopes are selected with the program and validated on the target aircraft.
Arc-UAS connects operator intent, onboard autonomy, vehicle control, resilient communications, and qualified collaboration without blurring who is authorized to move the aircraft.
Operator intent is checked against the aircraft state, mission boundaries, recovery criteria, and authorized behaviors before motion begins. Hold, return, land, and other safety actions remain authoritative throughout execution.
Perception, mission state, route and search execution, and recovery run onboard. Arc-UAS can complete the validated mission loop without waiting on a continuous cloud or ground-control round trip.
Arc-UAS includes PX4 and ArduPilot integrations behind a consistent high-level command surface. Other MAVLink-based autopilots can be added through program-specific adapter development and validation on the target aircraft.
Build Primary, Alternate, Contingency, and Emergency pathways around a program-selected radio, tactical mesh, LTE/5G, and SATCOM. Each bearer and transition policy is an integration option validated for the selected hardware and mission.
Qualified multi-vehicle behaviors can share mission context, detections, and bounded task assignments while each aircraft retains its own safety-controlled flight authority. Swarm scale and behaviors are validated for the program configuration before field use.
Arc-UAS accepts validated mission intent, executes routes and search behaviors, reacts within approved bounds, and completes the configured hold, return, or landing recovery.
Mission-selected models detect, classify, track, and geolocate relevant observations onboard, reducing the need to move every raw sensor frame across the link.
Primary, Alternate, Contingency, and Emergency paths can combine a program-selected radio, mesh, LTE/5G, and SATCOM as validated integration options.
Both autopilot families are integrated behind the Arc command boundary. Additional MAVLink-based autopilots are extensible through adapter validation for the selected aircraft.
Multi-vehicle missions can distribute bounded tasks, share detections, and recover roles after a peer loss when those collaborative behaviors are validated for the deployed fleet.
Onboard planning, perception, state, and recovery let the aircraft continue within previously validated authority when bandwidth degrades or a link becomes unavailable.
Each deployment is bounded by the approved aircraft, payload, communications loadout, autonomy behaviors, and mission authority.
Execute validated routes and search patterns, correlate onboard detections with mission geography, and return concise observations instead of requiring constant raw-feed monitoring.
Run bounded patrol, overwatch, and alerting missions with explicit geofences, recovery criteria, and operator intervention paths.
Task compact quadrotors or longer-endurance fixed-wing aircraft to search named areas, identify mission-relevant observations, and report locations over the available PACE path.
When paired with the appropriate Arc-RF payload, collect and correlate spectrum observations while the aircraft executes the approved flight plan.
Use program-qualified swarm behaviors to share mission context, distribute bounded tasks, and preserve local aircraft safety authority across the team.
Inspect linear and distributed assets with onboard processing, configurable endurance, and store-and-forward reporting when connectivity is constrained.
Arc-UAS executes the approved search geometry, evaluates observations onboard, and forwards mission-relevant conclusions instead of demanding a continuous raw-feed watch.
Configured nodes patrol a defined perimeter, distinguish a boundary observation, and cue the operator while hold, return, and intervention paths remain explicit.
Arc-RF can combine classified spectrum observations and calibrated bearing inputs from multiple nodes into a location estimate that retains source, confidence, and uncertainty.
Program-qualified collaborative behaviors partition work, share observations, and reassign bounded tasks while each vehicle keeps local safety and recovery authority.
Representative mission logic — aircraft, sensors, models, communications, authority, and performance are configured and validated for each program.
Arc builds on open-source foundations, including LlamaFarm and Atmosphere. Programs can deploy core workflows inside customer-controlled infrastructure, define data boundaries, and negotiate model, sensor-data, and mission-log rights in the acquisition terms. Open interfaces preserve an exit path without promising that every mission dependency is open source.
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