Research Highlight

Figure 1 from the MMT inverse kinematics paper showing the AI-assisted IK solver development workflow.

Large Language Model Assisted Human-AI Collaborative Development of Analytical Inverse Kinematics Solvers for Robot Manipulators

This recent highlight, accepted for publication in Mechanism and Machine Theory, presents a human-AI collaborative workflow for deriving analytical inverse kinematics solvers for industrial robot manipulators. The approach combines human intuition, mathematical decomposition, AI-assisted coding, symbolic reasoning, and validation.

The method was demonstrated on spherical-wrist and parallel-joint 6R robot architectures and achieved strong robustness across large validation sets while reducing solver-development time from weeks to minutes.

Research Focus

We study how intelligent algorithms can synthesize engineering concepts, geometric structures, and mechanically valid designs from high-level objectives, physical constraints, and performance targets.

A current emphasis is the use of AI as a collaborative engineering partner for difficult analytical problems in robotics and mechanism design, where the goal is not just code generation but dependable derivation, implementation, and verification.