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Thanana Nuchkrua, Ph.D.
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Robotics & Control Researcher | Compliant Intelligence
Independent PI in Control and Robotics group
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Highlights:
09.2019: \(''\)Contouring Control Consensus for Robot Manipulators\(''\) won the
best young paper award, finalist at The 58th Annual Conference of the Society of Instrument and Control Engineers of Japan
(SICE), Japan.
01.2019: \(''\)Sparse Bayesian Learning-based Adaptive Impedance Control in Physical
Human-robot-interaction\(''\) won the best paper award at The 2019 International Symposium on Instrumentation, Control,
Artificial Intelligence, and Robotics.
Research Interests
Data-driven and learning-enabled control of complex robotic and cyber-physical systems.
Safe human–robot interaction and decision-making under uncertainty.
Soft robotics and compliant actuation (e.g., pneumatic artificial muscles, Deep SSSM for HRI).
Research Vision
My long-term goal is to build robots that can learn to feel and decide — machines that not only control motion but also interpret and adapt to uncertainty through touch.
I call this idea Compliant Intelligence: the ability of a robot to maintain stability not by resisting disturbances, but by adapting to them.
This principle integrates tactile sensing, deep stochastic modeling, and Bayesian / Deep MPC to enable dexterous and human-compatible manipulation.
→ Tactile Intelligence Loop Project
Professional Services
Reviewer Board
Program Committee
The 2025 International Conference
on Automation and Intelligent Technology (ICAIT 2025), China.
The 2019 IEEE International Conference on Robotics and Biomimetics (ROBIO 2019), Yunnan, China.
Session Chair
\(''\)Model Learning for Control\(''\), 14th IEEE International Conference on Automation Science and Engineering (CASE 2018),
August 20-24, 2018, TU München, Germany.
\(''\)Robotic and Automation Systems II\(''\), The 58th Annual Conference of the Society of Instrument and Control Engineers of Japan (SICE),
September 10-13, 2019, Hiroshima, Japan.
Selected Talk
Control, Learning, and Optimization: from physic-based to data-driven
Learning-based Non-linear Adaptive Robust Control Framework: Dual-arm Robot
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