Канал: KAIST MINT Lab

2023 Top 10 나노 기술 선정

2023 Top 10 나노 기술 선정

Spherical Micro/Nano Hierarchical Structures for Energy and Water Harvesting Devices

Spherical Micro/Nano Hierarchical Structures for Energy and Water Harvesting Devices

Spherical Micro/Nano Hierarchical Structures for Energy and Water Harvesting Devices (S1)

Spherical Micro/Nano Hierarchical Structures for Energy and Water Harvesting Devices (S1)

Skin-like Omnidirectional Stretchable Platform with Negative Poisson’s Ratio for Wearable Sensor

Skin-like Omnidirectional Stretchable Platform with Negative Poisson’s Ratio for Wearable Sensor

Skin-like Omnidirectional Stretchable Platform with Negative Poisson’s Ratio for Wearable Sensor

Skin-like Omnidirectional Stretchable Platform with Negative Poisson’s Ratio for Wearable Sensor

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S4)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S4)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S3)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S3)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S2)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S2)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S1)

All-Recyclable Triboelectric Nanogenerator for Sustainable Ocean Monitoring Systems (S1)

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Irregular Microdome Structure-Based Sensitive Pressure Sensor Using Internal Popping of Microspheres

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S9)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S9)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S8)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S8)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S7)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S7)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S6)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S6)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S5)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S5)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S4)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S4)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S3)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S3)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S2)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S2)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S1)

Biomimetic, Programmable, and Part-by-part Maneuverable Single-body Shape Morphing Film (S1)

Customizable, Conformal, and Stretchable 3D Electronics via Pre-distorted Pattern Generation and

Customizable, Conformal, and Stretchable 3D Electronics via Pre-distorted Pattern Generation and

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #4

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #4

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #3

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #3

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #2

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #2

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #6

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #6

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #1

Self-Powered Strain Sensor based on the Piezo-Transmittance of a Mechanical Metamaterial #1

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #6

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #6

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #5

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #5

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #4

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #4

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #3

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #3

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #2

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #2

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #1

119 Ultra-Wide Range Pressure Sensor based on Microstructured Conductive Nanocomposite #1

122 Morphology-Controllable Wrinkled Hierarchical Structure and its Application to Superhydrophobic

122 Morphology-Controllable Wrinkled Hierarchical Structure and its Application to Superhydrophobic

122 Morphology-Controllable Wrinkled Hierarchical Structure and its Application to Superhydrophobic

122 Morphology-Controllable Wrinkled Hierarchical Structure and its Application to Superhydrophobic

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 5

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 5

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 4

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 4

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 3

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 3

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 2

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 2

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 1

100 Wearable Self-Powered Pressure Sensor by Integration of Piezo-transmittance Microporous 1

98 Microscale biosensor array based on flexible polymeric platform toward lab-on-a-needle: Real-time

98 Microscale biosensor array based on flexible polymeric platform toward lab-on-a-needle: Real-time

94 Wearable Strain Sensor Using Light Transmittance Change of CNT Embedded Elastomer with Microcrack

94 Wearable Strain Sensor Using Light Transmittance Change of CNT Embedded Elastomer with Microcrack

94 Wearable Strain Sensor Using Light Transmittance Change of CNT Embedded Elastomer with Microcrack

94 Wearable Strain Sensor Using Light Transmittance Change of CNT Embedded Elastomer with Microcrack

96 Ultrathin, Biocompatible, and Flexible Pressure Sensor with a Wide Pressure Range

96 Ultrathin, Biocompatible, and Flexible Pressure Sensor with a Wide Pressure Range

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

91 Heterogeneous conductance based locally shape morphable soft electrothermal actuator

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Porous Elastomer and Carbon Nanotube towards High Performance Capacitive Pressure Sensors

Highly sensitive and wearable liquid metal-based pressure sensor for health monitoring applications

Highly sensitive and wearable liquid metal-based pressure sensor for health monitoring applications

사람처럼 감각 느끼는 '로봇 피부' 개발

사람처럼 감각 느끼는 '로봇 피부' 개발

초소형 유해가스 감지 센서 개발

초소형 유해가스 감지 센서 개발

10배 이상 민감하게 수소 찾는 센서 개발

10배 이상 민감하게 수소 찾는 센서 개발

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

83 Low hysteresis and low interference soft tactile sensor using a conductive coated porous elastome

83 Low hysteresis and low interference soft tactile sensor using a conductive coated porous elastome

39 Focused energy field FEF method for the localized synthesis and direct integration of 1D nanomate

39 Focused energy field FEF method for the localized synthesis and direct integration of 1D nanomate

39 Focused energy field FEF method for the localized synthesis and direct integration of 1D nanomate

39 Focused energy field FEF method for the localized synthesis and direct integration of 1D nanomate

61 Micropatterning of metal oxide nanofibers by electrohydrodynamic EHD printing towards highly inte

61 Micropatterning of metal oxide nanofibers by electrohydrodynamic EHD printing towards highly inte

58 Soft Nanocomposite Based Multi point, Multi directional Strain Mapping Sensor Using Anisotropic E

58 Soft Nanocomposite Based Multi point, Multi directional Strain Mapping Sensor Using Anisotropic E

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

77 A flexible comb triboelectric electret nanogenerator with weparated microfibers for self powered

77 A flexible comb triboelectric electret nanogenerator with weparated microfibers for self powered

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

81 Wearable, ultrawide range, and bending insensitive pressure sensor based on carbon nanotube netwo

60 3D Continuous Conductive Nanostructure for Highly Sensitive and Stretchable Strain Sensor”, ACS A

60 3D Continuous Conductive Nanostructure for Highly Sensitive and Stretchable Strain Sensor”, ACS A

54 Extremely Robust and Patternable Electrodes for Copy Paper Based Electronics 2

54 Extremely Robust and Patternable Electrodes for Copy Paper Based Electronics 2

30Highly Stretchable and Sensitive Strain Sensor based on silver nanowire Elastomer Nanocomposite 2

30Highly Stretchable and Sensitive Strain Sensor based on silver nanowire Elastomer Nanocomposite 2

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

53 Highly Sensitive, Flexible and Wearable Pressure Sensor Based on a Giant Piezocapacitive Effect o

54 Extremely Robust and Patternable Electrodes for Copy Paper Based Electronics 1

54 Extremely Robust and Patternable Electrodes for Copy Paper Based Electronics 1

68 “Biopsy Needle Integrated with Electrical Impedance Sensing Microelectrode Array towards Real tim

68 “Biopsy Needle Integrated with Electrical Impedance Sensing Microelectrode Array towards Real tim

42 “Ultra Stretchable and Skin Mountable Strain Sensors Using CNTs Ecoflex Nanocomposite”, Nanotechn

42 “Ultra Stretchable and Skin Mountable Strain Sensors Using CNTs Ecoflex Nanocomposite”, Nanotechn

30 Highly Stretchable and Sensitive Strain Sensor based on silver nanowire Elastomer Nanocomposite 1

30 Highly Stretchable and Sensitive Strain Sensor based on silver nanowire Elastomer Nanocomposite 1

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

68 “Biopsy Needle Integrated with Electrical Impedance Sensing Microelectrode Array towards Real tim

68 “Biopsy Needle Integrated with Electrical Impedance Sensing Microelectrode Array towards Real tim

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

80 Biomimetic turbinate like artificial nose for hydrogen detection based on 3D porous laser induced

72 “High sensitivity and Low power Flexible Schottky Hydrogen Sensor based on Silicon Nanomembrane”,

72 “High sensitivity and Low power Flexible Schottky Hydrogen Sensor based on Silicon Nanomembrane”,