Robotics Software Engineer, Motion Planning - Logistics Division
Summary
Develops real-time motion control and planning software for Telexistence's self-developed robot manipulator (TX Phantom), including inverse kinematics, collision avoidance, trajectory generation, and compliance control, plus actuator driver and ROS framework integration. Core stack: C++ on Linux, ROS2, MoveIt, Gazebo.
Responsibilities
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Develop real-time motion control software to control robot manipulators using Inverse Kinematics, collision avoidance, trajectory generation, time parameterization, and active compliance control algorithms
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Develop TX's custom-made robot control software, such as actuator driver integration and ROS framework integration
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Integrate the entire software components to make the robotic solution ready for enterprise-level production
Requirements
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Master's degree or above in a relevant field
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Expert in C++ software development on Linux/Ubuntu platform with 3 years of work experience.
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Expert in ROS2 framework and MoveIt Motion Planning. If we gave you URDF, you should be able to create a ROS environment with MoveIt to control the robot in the Gazebo environment from scratch
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Experience in developing software to control robot manipulator (e.g., UR series of Universal Robots)
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Hands-on experience with motor control and PID algorithms
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Knowledge of robotics control theory (Kinematics, Dynamics, Motion Planning, and Control)
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Passion to develop a product used in real operations (product mindset)
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Good communication skills and proactive collaboration
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Business level of English
Desired Skills
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Japanese language skill to communicate with internal/external stakeholders
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Experience in developing force/torque control software, such as compliance control
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Experience with Docker, CI/CD, and automated robotics software deployment
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Experience with CAN/CANopen, CiA 402, EtherCAT, or other industrial servo-control protocols
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Creative in solving issues; data-driven debugging and iteration
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Autonomous problem-solver: proactively identifies and breaks down issues, investigates logs/metrics, designs experiments, proposes options, and delivers fixes/features end-to-end with minimal oversight—while communicating progress and escalating when truly blocked
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Experience simulating robotic systems and their interactions with physics-based environments
