| Image | Part Number | Description / PDF | Quantity | Rfq |
|---|---|---|---|---|
 |
CH Products |
FLIGHTSTICK PRO |
31 |
|
 |
CH Products |
FLIGHT SIM YOKE |
28 |
|
 |
CH Products |
THROTTLE QUADRANT |
2 |
|
 |
CH Products |
PRO THROTTLE |
46 |
|
 |
CH Products |
ECLIPSE YOKE |
11 |
|
 |
CH Products |
PRO PEDALS |
86 |
|
 |
CH Products |
COMBATSTICK |
13 |
|
 |
CH Products |
FIGHTERSTICK |
28 |
|
 |
CH Products |
MULTI FUNCTION PANEL |
0 |
|
Desktop joysticks and simulation products are input devices designed to convert human motion into digital signals for controlling computer-based systems. These devices are widely used in gaming, flight simulation, industrial control, and virtual reality applications. By mimicking real-world controls, they enhance user immersion and precision in virtual environments. Their importance in modern technology lies in their ability to bridge physical interaction with digital systems, enabling advanced training, entertainment, and human-machine interface development.
| Type | Functional Features | Application Examples |
|---|---|---|
| Fly-by-Wire Joysticks | High-precision analog sensors, programmable buttons | Flight simulators, combat training |
| Racing Wheels | Force feedback, pedal integration | Automotive simulation, racing games |
| 6-DOF Control Sticks | Multi-axis movement (X/Y/Z, pitch/yaw/roll) | Industrial robotics, VR control |
| Modular Gamepads | Customizable button layouts, hot-swappable modules | Spacecraft simulation, military training |
Typical desktop joysticks consist of: - Mechanical Base: Aluminum alloy housing with vibration damping - Motion Sensors: Hall-effect encoders (rotary) or linear potentiometers (position) - Actuation System: Spring-loaded centering mechanism or motorized force feedback - Input Interface: USB 3.0/Bluetooth 5.0 with HID-class drivers - Control Elements: Rubberized grips, mechanical switches (10M+ click rating) - Embedded Processor: 32-bit microcontroller for sensor data processing
| Parameter | Importance |
|---|---|
| Axis Resolution (12-16 bit) | Determines positional accuracy (0.01 -0.1 precision) |
| Force Feedback Torque (0.5-5 Nm) | Affects realism in resistance simulation |
| Sampling Rate (100-1000 Hz) | Impacts response latency and motion smoothness |
| Button Actuation Force (0.5-2.5N) | Influences tactile feedback and fatigue reduction |
| Operating Voltage (5-24V DC) | Determines power requirements and thermal management |
Primary industries: - Aviation: Boeing 737NG flight simulators (e.g., CAE TruFlite) - Automotive: Formula 1 racing simulators with 900 steering rotation - Medical: Surgical robotics training platforms - Military: UAV ground control stations (e.g., Lockheed Martin GCS) - Entertainment: VR motion control for Unreal Engine-based simulations
| Manufacturer | Flagship Product |
|---|---|
| Logitech G | Pro Flight Simulator Yoke System |
| Thrustmaster | TCA Quadrant Airbus Edition |
| CH Products | Pro Pedals USB Rudder System |
| Virpil Controls | MCG Top Plate with 32 programmable switches |
Key considerations: 1. Determine degrees of freedom (DOF) requirements (minimum 3-DOF for basic flight simulation) 2. Verify software compatibility (DirectInput/XInput/DualShock support) 3. Assess ergonomic needs (adjustable tension controls, hand size compatibility) 4. Prioritize sensor type (optical vs. Hall-effect for dust resistance) 5. Check expandability options (modular add-ons like throttle quadrants) Example: Flight simulator setups often require combined joystick/throttle systems (HOTAS configuration) with 16+ programmable controls.
Emerging developments: - Integration of AI-driven adaptive force feedback systems - Adoption of haptic feedback gloves for combined control schemes - Wireless systems with sub-1ms latency (e.g., Logitech LIGHTSPEED technology) - Modular "universal" controllers supporting multiple simulation profiles - Cloud-based calibration systems using machine learning algorithms Market projections indicate 12.3% CAGR through 2028, driven by VR/AR expansion and remote operation training demands.