PHYSICAL AI / AERIAL SYSTEMS
Asaptic's Physical AI programme applies autonomous intelligence to aerial platforms engineered for genuine industrial workloads — not consumer payloads. The HK300 is the first validated platform in this programme: a 300 kg-class unmanned coaxial helicopter built for high-payload operations in environments where conventional logistics infrastructure cannot reach.
PHYSICAL AI / AERIAL
Consumer and prosumer drone platforms share a fundamental constraint: they are optimised for payload fractions measured in kilograms, operator-dependent flight models, and benign open-sky environments. Industrial logistics — offshore resupply, post-disaster response, high-altitude mountain access — demands something structurally different. Payload-to-weight ratios that justify the operational cost. Autonomy that holds in degraded GPS conditions, cluttered electromagnetic environments, and variable wind loads. Fault tolerance that means a single actuator failure does not end the mission.
Asaptic's Physical AI approach treats the aircraft as a sensing, reasoning, and decision-making agent — not a remote-controlled tool. Onboard compute handles perception, trajectory adaptation, and contingency management in real time, with the ground station as a supervisory channel rather than a primary control surface. This is the architectural difference between a drone and a Physical AI aerial system: the intelligence rides with the airframe, not with the pilot.
The commercial logic is equally grounded. Heavy-lift unmanned helicopters address supply chains where manned aviation is the current solution but is cost-prohibitive, weather-sensitive, or risk-intensive. Replacing or augmenting a crewed helicopter on routine offshore resupply, remote infrastructure inspection, or disaster-response material drops with an autonomous platform is a calculable economic case — and a safety one. That is the problem Asaptic's aerial programme is designed to solve.
Onboard AI handles perception, obstacle avoidance, trajectory replanning, and fault response without relying on continuous ground-link bandwidth. Supervision, not remote control.
The HK300 occupies the payload class where fixed-wing UAS cannot hover and multirotor efficiency collapses. Coaxial rotor architecture delivers lift density without the mechanical complexity of traditional helicopter tail rotors.
Designed for offshore platforms, post-disaster access corridors, mountain logistics, and remote industrial inspections — environments where the alternative is crewed aviation, high cost, or no supply at all.
THE HK300 PLATFORM
The HK300 is Asaptic's primary aerial development platform: a ~300 kg-class unmanned coaxial helicopter configured for autonomous flight with AI-assisted mission planning. The coaxial rotor layout — counter-rotating upper and lower rotor discs sharing a common mast — eliminates the conventional tail rotor entirely, delivering a mechanically compact airframe with inherently balanced torque and a smaller operational footprint than a single-main-rotor equivalent at the same thrust class.
Autonomous flight capability is built into the base configuration. The HK300 carries its own flight management computer, sensor suite for state estimation, and the communications architecture needed for beyond-line-of-sight supervisory operation. AI-assisted mission planning means that operators define objectives and constraints — destination, payload priority, weather envelope, no-fly corridors — and the system computes and validates the flight plan, flagging conflicts before departure rather than during execution.
The HK300 is a validated development platform. It exists to prove the architecture, accumulate flight data, and mature the autonomy stack under real operating conditions. Asaptic does not characterise it as a commercially available product. Engineering partners, logistics operators, and research institutions interested in the programme are welcome to engage directly.
Enquire about the HK300 programme →~300 kg-class unmanned coaxial helicopter. Counter-rotating rotor discs, no tail rotor, mechanically compact for confined deployment zones.
Autonomous flight with AI-assisted mission planning. Onboard flight management computer handles state estimation, navigation, and contingency response.
Validated development platform. Not commercially available. Engagement open to engineering partners, logistics operators, and research institutions.
AVIONICS & AUTONOMOUS NAVIGATION
Industrial autonomous flight is an avionics problem as much as an airframe one. Consumer drone autonomy assumes GPS lock, clear airspace, and a pilot ready to intervene. Industrial deployment assumes none of those. The HK300 autonomy architecture is designed around three engineering principles: redundancy at every critical layer, active environmental awareness, and supervisory BLOS operation without single-point failure modes.
Critical flight systems — power, navigation, communication, and flight control computation — are architected with redundant pathways. A single component failure should degrade gracefully, not terminate the mission. The coaxial rotor configuration itself contributes mechanical redundancy: torque balance is maintained symmetrically, and rotor-disc separation provides an additional failure-isolation layer that single-main-rotor designs cannot match.
Multi-modal perception — fusing data from radar, optical, and inertial sources — feeds a continuously updated environmental model. The autonomy stack uses this model to identify and route around obstacles in real time, handling both static terrain features and dynamic intrusions such as bird flocks or unexpected aircraft in the operating corridor.
Beyond-line-of-sight operation removes the pilot from the execution loop without removing accountability. The ground station receives telemetry, health status, and mission-progress data through a resilient link architecture. Operators can issue high-level mission amendments — return, hold, reroute — without needing to fly the aircraft in the traditional sense.
GPS-denied or GPS-degraded environments — urban canyons, offshore electromagnetic interference, post-disaster RF congestion — are handled through sensor fusion. Inertial navigation, barometric altitude, and optical flow combine to maintain state estimation when satellite signals are unreliable or spoofed.
Pre-flight AI-assisted planning ingests terrain data, weather forecasts, airspace restrictions, and payload parameters to generate and validate a mission profile before the rotors spin. Conflicts are surfaced at the planning stage, not discovered mid-flight.
Every flight generates structured telemetry that feeds back into the development programme. Anomalies, edge-case encounters, and performance deltas become training data for the autonomy stack — the platform improves with operational exposure rather than only with laboratory testing.
SECTION 05 / MARKET CONTEXT
Several converging industry and regulatory shifts are accelerating procurement consideration for heavy-lift unmanned rotorcraft in 2026. Operators who engage early can influence platform development priorities and secure programme-partner positioning ahead of commercial availability.
SECTION 06 / BUYER FAQ
The questions engineering teams and logistics operators ask most often about engaging with Asaptic's heavy-lift UAV programme and the sourcing gateway that supports it.
| Buyer concern | Asaptic's answer |
|---|---|
| Is the HK300 available for purchase or deployment? | The HK300 is a validated development platform, not a commercial product. Asaptic engages with engineering partners, logistics operators, and research institutions at the technical and commercial level. If you have a mission profile that the HK300 class addresses, engage directly at [email protected] — we will assess fit with the current development programme. |
| Export-control compliance for UAV components sourced from China | Asaptic conducts technology-origin screening for all aerial-system components that may fall under EAR, ITAR adjacency, or equivalent controls — including advanced actuators, imaging sensors, and compute modules. Every engagement includes a written compliance assessment and destination-country export documentation. Buyers with internal legal requirements receive a per-shipment screening summary. |
| Component sourcing lead times for coaxial rotor and avionics components | Lead times depend on component type and current foundry capacity. Standard ruggedized compute and sensor modules can typically be confirmed within 3–6 weeks of deposit receipt. Precision actuators, coaxial gearbox assemblies, and custom avionics integrations require 8–16 weeks depending on specification. A 30% deposit on proforma invoice secures the production slot. [UNVERIFIED: specific timelines vary by supplier] |
| What documentation accompanies component deliveries? | Every delivery includes lot certificates, foundry provenance documentation, and a compliance summary. For export-sensitive components, a written technology-origin screening assessment is included. Third-party inspection and metrology are arranged on request. Documentation is calibrated to the component type and the buyer's incoming-goods inspection requirements. |
| What export-control framework applies to UAV avionics and components sourced from China? | Asaptic conducts technology-origin screening for all aerial-system components that may fall under EAR (Export Administration Regulations), ITAR adjacency, or equivalent controls, including advanced actuators, imaging sensors, and compute modules. Every engagement includes a written compliance assessment and destination-country export documentation. Buyers with internal legal requirements receive a per-shipment screening summary. TFLN/LNOI wafers are typically classified EAR99, meaning no export licence is required for most Western destinations. Advanced GaN for defence, radar, or high-power microwave applications receives technology-origin review as standard. |
| What airworthiness or BVLOS certification framework exists for the HK300? | The corpus is silent on a specific HK300 airworthiness certification timeline or BVLOS approval pathway. The site notes that regulatory frameworks in several Western jurisdictions are developing BVLOS certification pathways for the heavy-lift UAV category, but Asaptic's own certification schedule is not documented on-site. This gap cannot be answered from the on-disk corpus and needs Raymond's development roadmap input. |
| What certifications accompany UAV component deliveries? | Every delivery includes lot certificates, foundry provenance documentation, and a compliance summary. For export-sensitive components, a written technology-origin screening assessment is included. Third-party inspection and metrology can be arranged on request. Documentation is calibrated to component type and the buyer's incoming-goods inspection requirements. |
| What are the lead times for UAV components? | Standard ruggedized compute and sensor modules are typically 3-6 weeks from deposit receipt. Precision actuators, coaxial gearbox assemblies, and custom avionics integrations are 8-16 weeks depending on specification. These timelines are flagged as UNVERIFIED and subject to current foundry capacity. Confirmed lead times are provided at the proforma invoice stage after factory engagement. |
ENGAGE
Asaptic engages with engineering partners, logistics operators, research institutions, and industrial organisations exploring autonomous aerial logistics. Describe the mission profile, operating environment, payload class, and timeline. We will assess fit with the current programme and discuss how the sourcing gateway can support component and avionics procurement alongside platform development.
[email protected]