Yueci Deng

Yueci Deng (邓岳慈)

Ph.D. Student, School of Data Science, CUHK-SZ

I am a Ph.D. student at the Chinese University of Hong Kong, Shenzhen (CUHK-SZ), supervised by Prof. Kui Jia. I build high-performance simulation systems and learning infrastructure for embodied intelligence, connecting 3D perception, synthetic data generation, and Sim2Real robot learning.

Previously, I led the core engine team at DexForce Technology (Aug 2022 – Aug 2025), building robot simulation, synthetic data, and model training and deployment infrastructure. I hold an M.Sc. in Signal Processing from NTU, Singapore, and joint B.Eng. degrees from UESTC and the University of Glasgow, with First Class Honours from Glasgow.

Research

I build high-performance, scalable systems that connect generative worlds, hybrid simulation, and Sim2Real learning, enabling embodied agents to continually learn from their own rollouts in both simulated and real-world environments.

Closed-loop Sim2Real research agenda: generate executable worlds, combine physics-based and neural world simulation, learn from verified experience, deploy to real robots, evaluate results, and feed failures back into world generation and calibration.
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Background & Experience

Full CV →

Education

  • 2025 – Present CUHK-Shenzhen Ph.D. in Computer Science
  • 2018 – 2019 NTU, Singapore M.Sc. in Signal Processing
  • 2014 – 2018 UESTC / University of Glasgow Joint B.Eng. programme · First Class Honours (Glasgow)

Industry & Research

Head of Core Engine Team · DexForce
Aug 2022 – Aug 2025
Led core engine development for a Sim2Real embodied AI platform, spanning robot simulation and large-scale synthetic data generation.

Industry experience at Pudu, RVBUST, Appotronics, and Panasonic R&D.

Principal Investigator · RMB 4 million
Dec 2024 – Dec 2026
Lead simulator-based data generation, Real2Sim mapping, and multimodal dataset and skill database development for robot learning.

Grants & open-source contributions →

Collaborations & Opportunities

I welcome research or open source project collaborations on Embodied Intelligence and Simulation Infrastructure. If you’re interested in joint projects, code sharing, student internships, or industry partnerships, please contact me at yuecideng@link.cuhk.edu.cn.

Projects

Publications

* Equal contribution; † Corresponding author

APG vs PPO

Backpropagating Through Simulation: Analytic Policy Gradients for Sample and Learning Efficient Differentiable Continuous Control

A differentiable-control benchmark and training framework that compares Analytic Policy Gradients with PPO across continuous control tasks, using backpropagation through simulation to study sample-efficient policy optimization.

FTC

Focus-Then-Contact: Speeding Up Robotic Contact-Rich Task Learning with Affordance-Guided Real-World Residual Reinforcement Learning

Guanren Qiao, Ruixiang Ouyang, Sheng Xu, Ruixing Jin, Yueci Deng, Yunxin Tai, Kui Jia, Guiliang Liu†
International Conference on Machine Learning (ICML), 2026

A lightweight real-world RL method that uses residual RL and affordance-guided rewards to speed up contact-rich robot manipulation learning with minimal human-in-the-loop effort.

AgentChord

From Reaction to Anticipation: Proactive Failure Recovery through Agentic Task Graph for Robotic Manipulation

Sheng Xu, Ruixing Jin, Huayi Zhou, Bo Yue, Guanren Qiao, Yunxin Tai, Yueci Deng, Kui Jia, Guiliang Liu†,
Robotics: Science and Systems (RSS), 2026

A recovery-aware task-graph system that helps real robots anticipate disturbances, switch to prepared recovery branches, and keep long-horizon manipulation moving.

YOTO++

YOTO++: Learning Long-Horizon Closed-Loop Bimanual Manipulation from One-Shot Human Video Demonstrations

Transactions on Pattern Analysis and Machine Intelligence (TPAMI), 2026

YOTO++ (extended from the conference version You Only Teach Once) enables cross-embodiment deployment (from the contralateral to humanoid dual-arm setups), and facilitates diverse bimanual tasks including asynchronous, synchronous and tool-using scenarios, with closed-loop control under dynamic disturbances during pre-grasping.