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Suction Cup Manipulation & Path Planning

Investigation of robotic manipulation using suction cups in unstructured environments. Motion planning algorithms for unknown spaces and enhanced robot autonomy.

πŸ“… Sep 2023 - Oct 2023
🏫 Polytech Sorbonne
πŸ‘₯ Research Project
C Programming Robotics Path Planning Automation Manipulation

Project Overview

This project involved an exploration of robotic manipulation using suction cups within an unknown environment. The primary focus areas were suction cup characterization and motion planning in unstructured spaces.

The research aimed to enhance robot dexterity and improve robot autonomy by developing algorithms that allow robots to operate effectively in dynamic, real-world scenarios where obstacles and unforeseen circumstances may be present.

Technical Approach

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Suction Cup Characterization

Investigated the properties of suction cups, including their adherence capabilities under varying conditions. This understanding is crucial for reliable object grasping and manipulation by robots.

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Motion Planning in Unknown Spaces

Explored strategies for planning robot movements within environments that lack prior mapping or complete information. Addressed challenges of navigating through intermediary checkpoints.

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Enhanced Robot Dexterity

Investigated the use of suction cups to expand the robot's manipulation capabilities, enabling it to grasp and interact with a wider range of objects in unstructured environments.

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Improved Robot Autonomy

Developed path planning algorithms that allow robots to operate effectively in unstructured environments, where obstacles and unforeseen circumstances may be present.

Project Demonstration

This video demonstrates the investigation of suction cup manipulation and path planning algorithms in unstructured environments:

Key Insights & Contributions

Research Outcomes

  • Suction Cup Performance: Characterized adherence capabilities under varying environmental conditions, establishing baseline performance metrics for reliable object manipulation.
  • Path Planning Algorithms: Developed strategies for robot navigation in unmapped environments, addressing challenges of reaching seemingly inaccessible configurations.
  • Intermediary Checkpoint Navigation: Implemented solutions for robots to traverse through intermediary waypoints when direct paths are not available.
  • Real-World Applications: Findings contribute to the development of more adaptable and versatile robots capable of functioning in dynamic, unstructured scenarios.

Impact on Robotics Field

This exploration provided valuable insights into the complexities of robotic manipulation and path planning in dynamic settings. The research contributes to advancing robot autonomy and adaptability in real-world applications where environmental conditions are unpredictable.

Skills & Technologies

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Programming

C Programming Language, Algorithm Development, Control Systems Programming

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Research Methods

Experimental Design, Data Analysis, Performance Characterization, Scientific Documentation

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Collaboration

Teamwork, Project Management, Technical Communication, Problem-Solving

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Automation Systems

Robotics Engineering, Motion Planning, Manipulation Control, System Integration

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