Daniel Liang
Papers
3
Total Citations
29
H-Index
3
About
Daniel Liang is a pioneering researcher at the intersection of materials science, soft robotics, and artificial intelligence. His primary research areas include shape memory polymers (SMPs), shape memory alloys (SMAs), and the application of machine learning for advanced material characterization and actuation. Liang’s major contributions lie in developing novel, data-driven architectures that combine video analysis with scalable machine learning models—such as supervised restricted Boltzmann machines—to rapidly characterize and precisely control smart materials. His work has enabled more accurate actuation of shape memory alloys, a critical building block for next-generation soft robotic systems and cognitive robotic controllers. With his most-cited paper, “Machine learning based approach for shape memory polymer behavioural characterization,” accumulating 17 citations, and his subsequent work on vision-based SMA actuation gaining 8 citations, Liang’s research is steadily influencing the field. He has also explored the adaptation of machine learning for industrial-scale prediction within the Industry 4.0 framework, addressing key design principles like interoperability and decentralized decisions. Liang’s innovative fusion of AI with material science is paving the way for more intelligent, responsive, and autonomous soft robotic systems.
Research Focus
Key Achievements
Top Papers
- 1
- 2
- 3