RoboArm for Efficient Item Capture and Task Automation

by alaa dwikat mohammad tami n.w
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"Explore the innovative RoboArm project designed to capture items with precision and control, perfect for tasks in quarantine environments. This advanced machine allows users to manipulate the robotic arm wirelessly using a special glove. Discover the use of PVC, DC and servo motors in the 4-degree-of-freedom robotic arm for efficient operations. Enhance your understanding of mechanical parts, sensors, communication, and controllers integrated into this cutting-edge system."

  • RoboArm
  • Automation
  • Robotics
  • Mechanical Parts
  • Task Control

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Presentation Transcript


  1. By Alaa Dwikat Mohammad tami By Supervised by Dr. Samer Arandi Supervised by

  2. Overview Mechanical part Sensors Communication Controller part Conclusion

  3. RoboArm is a machine which allows the user to capture items (stuffed toys, balls ) that are placed in a round. The player wears a special glove and moves his hand left right, forward - backward and closes his fist in order to control wirelessly the moving arm that ends with a gripper.

  4. Our project can be used to control a group of components coordinated together to complete a specific tasks. Quarantine Environments (e.g. Chemical laboratories)

  5. Overview Mechanical part Sensors Communication Controller part Conclusion

  6. Material Design Motors

  7. We used PVC It s very light can be easily clipped

  8. 4-degree-of-freedom robotic arm

  9. Two types of motors used DC motor Servo motor

  10. DC used for rotating the structure

  11. Servo motors It s an angular position controlled

  12. Servo motors

  13. Overview Mechanical part Sensors Communication Controller part Conclusion

  14. Player hand act as a main controller of all mechanical part components. Two type of sensors are used: Flex Sensor. Accelerometer Sensor.

  15. Accelerometer Sensor

  16. Accelerometer Sensor

  17. Flex Sensor

  18. Overview Mechanical part Sensors Communication Controller part Conclusion

  19. Wireless XBee

  20. Wireless XBee Send results of sensors (located on the glove ) to microcontroller that control the mechanical part. Frequency 2.4 GHz ( 16 channel) Data rate 250 Kbps Range 30 meters in door, and can reach up to 90 m outdoor. Point-to-point, point-to-multipoint and peer-to-peer topologies supported.

  21. Overview Mechanical part Sensors Communication Controller part Conclusion

  22. Sender Circuit Receiver circuit

  23. Overview Mechanical part Sensors Communication Controller part Conclusion

  24. We are able to simulate user hand movement by sending sensors data to the microcontroller that controls arm robot.

  25. Provide an additional degree of freedom by add more axes. Using another module for wireless connection, so that the cost be cheap Finally we can design five-fingers hand instead of a gripper.

  26. Demo Demo Time Time

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