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Ziele und Hardware

Was gebaut werden soll, mit welcher Ausrüstung und auf welcher Drohne.

Originaltitel im Repository: Hardware inventory and project objective

This is a stable inventory and requirements summary, not a live-state record or operating procedure. Check the newest capture under state/ and parameter dump under params/ before hardware, configuration, motor, or flight work.

Objective

Develop an indoor aircraft that can eventually:

  1. hold altitude and horizontal position using ArduPilot, downward range, and optical flow;
  2. detect floor-mounted AprilTags with the Pi camera;
  3. approach a selected tag using calibrated geometry;
  4. release a payload through a guarded servo mechanism; and
  5. search a bounded space only after suitable localization and obstacle sensing have been integrated.

Disarmed sensing and software implementation do not establish flight readiness. Follow the staged procedures in MAVLink control and the AprilTag mission architecture.

Aircraft

Item Model/details
Frame SpeedyBee BEE35 Pro 3.5-inch CineWhoop
Flight controller Flywoo GOKU GN745 AIO / STM32F745 / 45 A AM32 ESC
Firmware target Custom FlywooF745 build of official ArduCopter 4.7.1, commit dbe79216; see the dated state record for installed status
Motors Four Emax Eco II 2004, 3000 KV
Propellers Gemfan D90-5, 3.5-inch ducted five-blade
GPS/compass HGLRC M100
Receiver Radiomaster XR4 Gemini Xrossband ELRS
FPV camera RunCam Phoenix 2 analog, removed according to the user on 2026-09-07
Video transmitter Historical SpeedyBee TX800; its FC cable was reused for the forward sensor

Radio binding credentials are intentionally not stored in the repository.

Companion computing and sensing

Item Intended role
Raspberry Pi Zero 2 WH MAVLink companion computer
Raspberry Pi IMX500 AI Camera AprilTag detection and recording
MicoAir MTF-01P Downward range and optical flow
MicoAir MT-15 Forward lidar, ArduPilot MAVLink at 115200 baud; verified on FC T3 with UART3 RX/TX swap, rangefinder instance 2
MacroSilicon MS210x USB grabber Optional analog FPV capture
CP2102 USB-UART adapter Sensor configuration

The mission camera should be rigidly mounted downward, focused at the intended working range, strain-relieved, and calibrated at its operating resolution. Camera mounting and calibration are live-state facts and must be confirmed rather than inferred from this inventory.

The HGLRC M100 contains both GPS and an external compass. The GPS uses FC UART6; the compass uses I2C. Indoor optical-flow operation leaves GPS disabled while retaining the compass as the EKF heading source. See the latest dated state record for sensor health and any remaining calibration problems.

Payload mechanism

Two micro servos are available for a custom release mechanism. The maintained utility targets Pi BCM12 directly. Before actuation, remove propellers, secure the aircraft, verify regulated power and common ground, establish safe pulse limits, clear the linkage, and use the CLI's exact confirmation gate.

The historical MS18-F reference range was 900–2100 µs with 1500 µs neutral, but datasheet values are not a substitute for cautious mechanism-specific calibration. Never drive a loaded servo from a supply that can brown out the Pi.

Ground equipment and tools

Category Equipment
Pilot/video Radiomaster GX12 transmitter, Skyzone Cobra X goggles
Batteries Three flight packs; 18650 cells for controller/goggles
Charging SkyRC B6neo+, 27 W USB-C supply, 20,000 mAh power bank
Fabrication Tinkercad, UltiMaker Cura, 3D printer access
Fasteners M3×9 mm and M3×12 mm screws/standoffs
Safety/service Smoke stopper, SpeedyBee Adapter V3, hand tools
Spares/storage Replacement props, 32 GB microSD, card reader, carry case

Printable airframe assets are indexed in hardware/README.md.

Integration rules

Diese Seite wird aus dem Repository erzeugt.Quelle: docs/drone-project.md