Research · Three platforms

Toward Energy AUTONOMY.

We engineer materials, devices, and mechanical systems that turn ambient motion into autonomous electrical functions—from usable power and real-time sensing to precisely controlled microscale stimulation.

01

Ambient motion → usable power

Mechanical Energy Harvesting

We harvest mechanical energy from human movement, wind, vibration, waves, and droplets, converting it into usable electricity. Our work spans materials, devices, mechanical systems, and real-world applications across triboelectric, electromagnetic, droplet-electricity-generating, and magnetoelastic mechanisms.

  • Triboelectric
  • Electromagnetic
  • Droplet electricity
  • Magnetoelastic
Mechanical energy from human motion, vibration, wind, and water converging into usable electrical power
02

Physical interaction → intelligent signals

Self-powered Sensors

We develop self-powered sensor platforms that translate contact, separation, pressure, sliding, and tactile interactions into measurable signals without an external power source. These materials and devices enable continuous monitoring in smart mechanical systems, machine components, and robotic platforms.

  • Tactile
  • Contact & separation
  • Mechanical monitoring
  • Robotics
Self-powered tactile sensing for smart mechanical systems, components, and robots
03

Local energy → precise stimulation

Autonomous Microelectrical Stimulation Platforms

We create materials, devices, and mechanical systems that deliver tunable electrical stimulation on demand in microscale environments without an external power supply. These platforms are designed to stimulate cells, inactivate bacteria, and precisely shape local bioelectrical conditions when and where they are needed.

  • Cell stimulation
  • Bacterial inactivation
  • Tunable pulses
  • Power-free operation
Autonomous microelectrical stimulation platform for cell stimulation and bacterial inactivation