Concept Design of the Robot Using Darlox Micro Coax Cable Assemblies

 

Overall Shape and Structure:

• Base Platform: A modular, compact robot with a flexible chassis made of lightweight, durable material (such as aluminum alloy or high-strength plastic). The chassis is rectangular or cylindrical, designed for mobility, and is equipped with wheeled locomotion or tracked wheels for ground movement. For smaller robots, such as drones, a drone-like body with lightweight frames and carbon fiber components might be used.
• Size: The robot is medium to small in size (approximately the size of a small vacuum robot or miniature drone), allowing it to move in tight spaces and handle precise tasks.

Camera and Vision System:

• High-Definition Camera: On the front of the robot, you’d find a small, high-definition camera or stereo camera system mounted on a flexible neck or gimbal for pan-tilt movement. This system would be responsible for object detection, navigation, and image processing.
  • Darlox micro coax cables would connect the camera system to the robot's central processor. These cables are run through small cable conduits along the body, ensuring minimal interference and signal degradation.

Antenna for RF Communication:

• Antennas: The robot could have a small RF antenna (like a compact omnidirectional antenna) mounted on the top or rear for wireless communication. This antenna connects to the robot’s communication module via Darlox micro coax cables, ensuring strong signal transmission and reception.
• Design: The antenna might be foldable or retractable for compact storage when the robot is not in operation.

Sensors (LIDAR, GPS, Ultrasonic):

• Sensors: The robot would be equipped with various sensors—like LIDAR for 3D mapping, ultrasonic sensors for obstacle avoidance, or infrared sensors for environmental sensing.
  • These sensors are placed on the sides or top of the robot, often in positions where they can detect objects or map surroundings effectively.
  • The GPS antenna for outdoor navigation is positioned on top, connected by micro coaxial cables to the navigation system. These cables ensure that the GPS module receives clear, interference-free signals.

Processor and Control Unit:

• Central Processor: At the heart of the robot is a compact computing unit (like a Raspberry Pi, NVIDIA Jetson, or custom PCB). This unit processes all incoming data from the camera, sensors, and communication systems.
  • The processor could be housed inside the chassis with access points for power, data input/output, and cooling. Darlox micro coax cables would connect various high-frequency devices (like the camera or RF systems) to the processor via ports.

Power Supply:

• Battery: The robot is powered by a rechargeable lithium-polymer battery integrated into the base platform. The battery is connected to the main processor and motor systems to power the entire robot, including the RF modules and camera systems.

Exposed Micro Coax Cables:

• You could show micro coax cables running between different modules of the robot, typically housed in protective tubing to prevent damage while ensuring flexibility. These cables could be visible along the robot’s sides or running into connectors at the back of each module.
  • Color and Material: The cables would likely be thin and dark-colored, with a metallic shield layer visible at the ends, where they connect to devices like antennas or camera systems. The shield ensures that there is no interference, allowing for high-quality signal transmission.

User Interaction:

• Voice Interface: The robot could also have a small speaker and microphone for user interaction. The microphone could be used for voice recognition, and the speaker would play responses.
  • These components could be positioned near the top of the robot or integrated into the chassis, along with micro coax cables for audio signal transmission.