Biomimetic tactile sensor inspired by the sensing principle of human skin
High-performance flexible tactile sensor capable of measurement in various extreme environments
Client / Market
- Nanofiber, fiber laminating, paper, film manufacturing site
Necessity of this Technology
- Many high-performance tactile sensors have been developed, but suffered several performance issues in the field test where they are actually used due to the impact of temperature, humidity, radiation.
- There is demand to control the pressure sensing range and sensitivity for the highperformance sensors to be used in various fields.
Technical Differentiation
- Synapse-inspired pneumatic-based remote tactile sensor: capable of measuring tactile pressure in the water, controlling the pressure range and minimizing the impact of the external temperature
- Large area skin-type multi-step tactile sensor: Low sensor manufacturing cost with simple signal processing unit required. Capable of responding various pressure range with core tactile sensing capability
Excellence of Technology
- There is no hysteresis phenomenon in the sensor performance, and it is highly reliable even when used repeatedly.
- The measurable tactile pressure range can be easily controlled, and it can be used in various environments.
Current Intellectual Property Right Status
PATENT
- Tactile Sensor Using Magnetic Field Focusing (KR2017-0081311)
- Tactile Sensor Based Air Pressure (KR2017-0030232)
- Tactile Sensor for Shear Force (KR2016-0100578)
- Reliable Tactile Sensor of Interlocking Structure with Hybrid Stiffness (KR2016-0096895)
- Tactile Sensor Having 3D structures (KR1684918)
- Highly Sensitive Tactile Sensor Having Flexible Metal Mesh Electrode and Manufacturing Method of the Same (KR1471639)
- Highly Sensitive Tactile Sensor using Curve-Type Conducting Nano or Micro Pillars (KR1486217)
- Highly Sensitive Tactile Sensor for Measuring Shear Stress Acting on Two-Dimensional Plane (KR1471955)
- Highly Sensitive Tactile Sensor Using Interlocking for Piezoelectric Element (KR1449407)
- Highly Sensitive Tactile Sensor Using Interlocking of Conducting Nano or Micro Pillars (KR1449410)
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