UAV platform engineering
Multirotor, plant-protection UAV, VTOL fixed-wing, folding structures, power systems, telemetry, and mission configuration.
UAV payload integration / stabilized optical tracking
Browser-verifiable optical tracking for low-altitude UAV payloads.
AeroOptic links real aircraft, optical benches, gimbal control, fast-steering mirror dynamics, and field validation into one engineering stack for UAV sensing missions.
Founded2019 / Chengdu
Delivery modePrototype to small-batch rollout
Software proofInteractive Three.js simulator
Engineering chain
From aircraft structure to optical control, each layer is built to be tested.
Mechanical and optical integration
Payload mounts, battery bays, cable routing, gimbal brackets, sensor interfaces, and trial manufacturing with CNC, 3D printing, and composites.
Stabilized vision software
Disturbance modeling, dual-axis gimbal control, FSM residual correction, simulation, logging, and embedded verification workflow.
Outdoor validation and handover
Flight-control tuning, remote sensing workflows, inspection trials, delivery checks, documentation, and customer demonstration support.
FIELD LOOP
Outdoor payload trials and mission preparation
AeroOptic control line
Stabilization is treated as a complete system, not a single gimbal.
The technology path connects carrier motion, servo-frame compensation, fine mirror correction, data logging, and browser-based visualization. That makes the software credible before it reaches embedded hardware.
Carrier layerWind, vibration, target range, and aircraft attitude.
Servo layerAzimuth/elevation gimbal behavior and coarse pointing.
Fine layerFast steering mirror residual correction and RMS metrics.
Lab validation
Real benches, optical targets, and tracking software keep the demo grounded.
The lab evidence is part of the product story: physical motion platforms, control equipment, optics, and data displays are used to verify the same behavior shown in the online simulator.
Closed-loop tracking bench
Integrated target, optical payload, control unit, and display for disturbance rejection experiments.
Payload alignment
Mechanical, optical, and sensor-interface validation before field deployment.
Portable staging
Movable experiment hardware for fast iteration and outdoor preparation.
Field work
Aircraft are assembled, flown, checked, and delivered in real operating conditions.
Agriculture operations
Plant-protection UAVs and low-altitude sensing missions tested on outdoor sites.
Small-batch delivery
Assembly, checks, and handover support for 50-unit-level UAV projects.
Software evidence
Control results and simulation views used to explain payload behavior.
Live technical demo
AeroOptic Tracker Simulator
Click once to run a 3D optical tracking simulation in this page. The demo combines carrier motion, gimbal dynamics, fast steering mirror behavior, disturbance sources, and real-time metrics.
Contact
Build the next low-altitude sensing payload with us.
Suitable for UAV manufacturers, system integrators, industry customers, and research teams that need prototypes, payload adaptation, flight-control tuning, remote sensing, or optical payload validation.
CompanyAeroOptic
OfficeWest Chengdu Hi-Tech Zone, Sichuan, China