LOADING THE JOURNEY

CT UAV
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CT UAV MANUFACTURING

FROM COMPONENTS TO COMPLETE AIRCRAFT.

See how CT UAV connects engineering, component production, system integration and verification in one manufacturing process.

A CONTROLLED PRODUCTION PROCESS.

Each build moves through defined design, material, assembly and verification steps. Records at every stage support consistency and traceability.

CT UAV manufacturing complex
CT UAV manufacturing complexFacility · Exterior
  1. 01

    Engineer

    Convert operating requirements into a controlled design.

  2. 02

    Fabricate

    Produce parts to documented dimensions and processes.

  3. 03

    Integrate

    Combine the airframe, electronics, propulsion, software and payload.

  4. 04

    Verify

    Inspect and review the build before release.

  5. 05

    Improve

    Use test and field feedback in the next design cycle.

THE PRODUCTION PROCESS

FACILITY

A defined environment for each process.

Production instructions, materials and work areas are prepared before fabrication begins.

PRECISION MACHINING

Parts produced to repeatable dimensions.

Machining controls the interfaces that affect fit, alignment and later assembly.

ELECTRONICS

Boards and connections checked before integration.

Electronic assemblies are prepared and inspected before installation in the aircraft.

AUTOMATION

Automation supports consistent work.

Automated equipment handles repeatable steps while technicians monitor the process.

SYSTEM INTEGRATION

Aircraft systems assembled and checked together.

Structure, electronics, propulsion, software and payload are integrated before system-level verification.

Loading the production sequence

ONE AIRCRAFT. SIX ENGINEERING AREAS.

The interactive model shows how the main engineering areas connect within an aircraft.

CT UAV aircraft in the assembly hall

Drag to inspect · Select an area

  1. Material selection, structural design, tooling and fabrication are balanced for weight, strength, durability and production.

  2. Propulsion and power components are arranged for balance, cooling, access and maintenance.

  3. Flight computers, control software and configurations are integrated and reviewed before system testing.

  4. Antennas, radios and data paths are positioned to support aircraft control and mission data transfer.

  5. Payload mounting, power, data and field configuration are considered as part of the aircraft design.

  6. Onboard electronics connect sensing, control and data processing with traceable production records.

THE FACILITY SUPPORTS THE PRODUCT.

Manufacturing spaces, equipment and working practices show how aircraft move from parts to completed systems.

FROM FACTORY TO FIELD

BUILT IN THE FACTORY. TESTED IN OPERATION.

Completed aircraft move from production checks to field evaluation. Results are recorded and returned to the engineering team.

  1. 01

    Design release

  2. 02

    Process planning

  3. 03

    Controlled build

  4. 04

    System integration

  5. 05

    Verification record