ScholarWorks@Soongsil University: Kim, Joo yong

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Kim, Joo yong (김주용)

College of Engineering (Department of Organic Materials and Fiber Engineering)

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Electrospinning:8||electrospinning:7||deep learning:5||fabrication:5||neural network:5||wearable sensor:4||전기근육자극:4||inspection system:4||uniformity:4||stretch sensor:3||루어낚시:3||image analysis:3||전자섬유:3||porosity:3||pressure drop:3||subjective evaluation:3||etextiles:3||singlewalled carbon nanotube:3||SWCNT:3||electrotextile:3||함침공정:3||capacitive pressure sensor:3||conductive fabric:3||HAuCl₄solution:3||Shape memory alloy:3||Metaaramid:3||Hysteresis:3||filter efficiency:3||filter simulation:3||전기 근육 자극:3||Shape memory effect:3||전기자극:3||스트레치 센서:3||손목터널증후군:3||PVP:2||biascut fabric:2||Coaxial air blown:2||rotary rubbing:2||s mat:2||Peltier effect:2||Surface tension:2||scalefrequency analysis:2||flying laser spot scanning:2||복압벨트:2||fuzzy logic:2||LureFishing:2||MLP artificial neural network:2||3D cutting:2||Screen printing:2||single jersey:2||carpet:2||hemming:2||skin sensorial comfort:2||Conducting fibers:2||Elasticity:2||charge decay time:2||손목보호대:2||charging:2||smart socks:2||스마트 양말:2||smart textile:2||스마트 웨어러블:2||image processing:2||스마트 장갑:2||스마트 헬스케어:2||smart wearable sensors:2||스마트폰:2||smart wearables:2||Shape memory polymers:2||clinginess:2||4D printing:2||Filter efficiency:2||coefficient of friction:2||Thermal bonding method:2||comfort evaluation system:2||conducting polymers:2||conductive thread:2||machine learning:2||sports wear:2||standard deviation:2||conductive yarn:2||Capacitive pressure sensor:2||steady state:2||3D printing:2||Montecarlo simulation:2||Power loss of conducting fibers:2||Silk breast prosthesis:2||CNT dispersion solution:2||subband exchange:2||submat:2||Digital textile:2||UV irradiation:2||Multilayered nonwovens:2||covariance function:2||UVvis:2||multiattribute model:2||tactile properties:2||Electrotextile:2||dampness:2||data acquisition:2||data synthesis:2||decision tree:2||Singlewalled carbon nanotubes (SWCNT):2||textile electrodes:2||nano gold particles:2||nanofiber web:2||textile stretch sensor:2||dendrite:2||정적 균형:2||Forward Head Syndrome:2||Pressure drop:2||Smart Healthcare:2||종아리:2||textiles:2||thermophysiological comfort:2||nonslip:2||Volume:2||nonwovens:2||timeseries1. IntroductionIn an earlier study:2||dielectric:2||digital textile printing(dTP):2||triboelectricity:2||trimming:2||Smart Textile Sensor:2||Processing parameters:2||pain scale:2||paired comparison:2||Smart clothing:2||user:2||variancelength curve:2||텍스타일형 센서:2||Muscle Pattern:2||vehicle&apos:2||Wearable devices:2||Smart wearable:2||통증 척도:2||Ntype:2||Closed Loop:2||Softness:2||wavelet:2||CIC:2||Nanofiber:2||Wrist Guards:2||Biological Signal Monitoring:2||Wrist Tunnel Syndrome:2||point of subjective equality(PSE):2||Neurofuzzy logic:2||Reliability:2||Fused deposition modeling:2||polyethylene terephthalate:2||embroiderytype sensor:2||KESFB4:2||yarn densities:2||Open Loop:2||yarn thickness measurement:2||감성 평가:2||polyvinyl chloride:2||거북목증후군:2||pore size measurement:2||Optimization analysis:2||Ptype:2||environmental:2||Stickiness:2||exercise classification:2||근육모양:2||Fuzzy logic:2||Abdominal Pressure Belt:2||psychophysical methods:2||quad analysis:2||Strain sensor:2||quality control:2||quick response:2||quick sweat absorbency and high speed drying fabric:2||fabric imaging:2||Gauge Factor:2||realtime:2||Stretch Sensor:2||PU nanoweb:2||autocorrelation function analyses were performed to identify hidden periodicities in the signals captured from the Zweigle G580 tester1). I:2||fashion trend:2||SMA textile actuator:2||Pregnant Women:1||Pressure Sensor:1||Pressure Textile Sensor:1||Pressure touch sensor:1||Pyralux copperclad laminate:1||ROM/range of ankle motion:1||Radiating Painr:1||Radiation:1||Recycled  Fiber:1||Recycled  Pet  Fiber:1||Renewable Energy:1||Resistance training:1||Resistive type:1||Respiration Activation:1||Respiratory data:1||Respiratory rate estimation:1||Stwist:1||Stwist yarn:1||SIC1 model:1||SIC2 model:1||SMP/CNT composites:1||SNR (signal to noise ratio):1||SNR(signal to noise ratio):1||SVM:1||Salts:1||Saturation magnetization:1||SavitzkyGolay Flitering:1||Seat Offering:1||Selfassembly:1||Shape:1||Shape memory textile actuator:1||Shape stiffness feedback:1||Shapememory alloy:1||Shear rate:1||Shearing flow:1||Shot peening:1||Silicon breast prosthesis:1||Silver paste:1||Simulation:1||Singlelayertextile pressure sensor:1||Singlewall carbon nanotube (SWCNT):1||Smart  Wearable  Healtcare:1||Smart Glove:1||Smart Healthcare Wearable:1||Smart Wear:1||Smart textile:1||Soft electronics:1||Soft textile actuator:1||Solgel:1||Solar Panel Energy Harvesting:1||Solvent system:1||Spacer fabric:1||Spandex fabric:1||Sparse autoencoder:1||Spinnability:1||Sputtering:1||Stable jet voltage model:1||Static Balance:1||Strain Sensor:1||Strain Textile Sensor:1||Stress mode:1||Stretchable silver paste:1||Structure:1||Subjective sensation:1||Superhydrophobicity:1||Surface energy:1||Surface resistance:1||Textile:1||Textile Layers:1||Textile Senso:1||Textile Sensor:1||Textile Sensor Electrode:1||Textile Sensors:1||Textile Strain Sensor:1||Textile Type Sensor:1||Textile actuator:1||Textile electrode design:1||Textile sensor:1||Textile touch sensor:1||Textilestructure:1||Textronics:1||Thermal property:1||Thermoplastic polyurethane (TPU):1||Thoracic Respiration:1||TiO2 nanorod:1||Tirgger Point:1||Transmission parameters of conducting fibers:1||UHF RFID tag:1||UV sensor:1||Upper Crossed Syndrome:1||VAS/visual analogue scale:1||VR gloves:1||Viscosity:1||Viscosity ratio:1||WBLT/weightbearing lunge test:1||Waterproof:1||Wear:1||Wearable Energy Harvesting:1||Wearable device:1||Wearable electronics:1||Wearable embroidered RFID antenna:1||Wearable sensor:1||Wearable sensors:1||Wearable sensors and actuators:1||Wireless communications:1||Wrist Pain:1||Ztwist:1||Ztwist yarn:1||ZnO thin film:1||abrasion test:1||acetyl acetone:1||active vibration cancellation:1||active vibration cancellation system (AVC system):1||algorithm:1||alternately feeding sequence:1||analysis of the supporting power:1||arm workout classification:1||artificial intelligence:1||artificial neural network:1||atmosphere air plasma:1||balance:1||balanced twisting:1||bioengineering:1||biomedical applications:1||breathing classification:1||calf:1||capacitance:1||capacitivetype sensor:1||car seat covers:1||carbonization:1||carbonized cotton fabric (CCF):1||cascaded algorithms:1||cationization:1||ceramics:1||choline chloride:1||circuit CAD maximum power point tracking(MPPT):1||circuit training:1||clothingtype  wearable  products:1||clothingtype wearable products:1||coaxial air blown electrospinning:1||coil spring sensors:1||contact angle:1||control function:1||convergence:1||convolutional neural network (CNN):1||convolutional neural network model:1||cooling fabrics:1||correlation model:1||cotton spun yarn:1||course skewness:1||cylinder rotation direction:1||damping property:1||deformation induced martensite:1||denier:1||design of experimient:1||detection of human movement:1||detection of unsafe posture:1||dipcoating:1||dumbbell biceps curl exercise:1||dust emission rate:1||dyesensitized solar cells (DSSC):1||dynamic balance:1||econtrol:1||ehealthcare:1||eskins:1||etextile:1||elastic band:1||electrical properties:1||electrotextiles:1||electronic muscle simulation:1||electrospun nanofibers:1||electrostatic charge:1||embroidered antenna:1||embroidered capacitance respiration sensor:1||embroidered sensor:1||ems:1||ems/electronic muscle simulation:1||energy harvesting:1||energy storage:1||epsilon martensite:1||exercise feedback system:1||exercise performance assessment:1||fabric design:1||fabric sensor:1||farinfrared ray:1||farinfrared ray emission power:1||farinfrared ray emissivity:1||fastfourier transformation:1||feeder skewness:1||flexible electronic composites:1||flexible sensor:1||flexible sensors:1||flexible solar cell:1||flexural rigidity:1||forearm muscle:1||functionality:1||gas sensor:1||gauge factor:1||generative model:1||gold particles:1||handdrawing:1||high damping material:1||high sensitivity sensor:1||human activity recognition:1||human motion monitoring:1||hybrid TiO2SiO2:1||indoor air quality:1||interfacial adhesion:1||interior seat covers:1||internal friction:1||interwrap:1||ion exchange:1||jacket:1||knee band:1||laser grid:1||long shortterm memory recurrent neural network (LSTM RNN):1||lowpass filter:1||luminous:1||lurefishing:1||machine learning algorithm:1||macro fiber composite:1||macrofiber composite (MFC):1||magnetic resonance:1||marquage:1||measurement of thigh Motor skills:1||mechanical
property:1||mechanical strength:1||metallic yarns:1||microcurrent wrist guard:1||mitigating driving vibrations:1||modulus:1||multilayer perceptron:1||multiresolution analysis:1||multilayer perception (MLP):1||multiple linear regression analysis:1||muscle activating:1||muscle activation:1||muscle volume expansion:1||nanofibers:1||nanomaterials:1||nanopattern:1||nickel:1||nonlinear regression:1||offshore mooring:1||optic fiber:1||optimization:1||optimization design:1||organicinorganic:1||palladiumactivation:1||paraaramid fiber:1||particle counter:1||particletemplate method:1||passive gel:1||peak detection:1||periodate oxidation:1||photocatalyst:1||photovoltaic power system:1||piezoresistive sensor:1||piezoelectric composite material:1||piezoresistive sensor:1||plantar pressure:1||plantar pressure mat:1||plied yarn:1||poly(styreneblockethyleneoxide):1||poly(vinylidene fluoride):1||1D ResNet:1||polyethyleneimine:1||polypyrrole:1||polyurethane nanoweb:1||porous dielectric layer:1||precrack generation:1||pressing methods:1||pressure sensor:1||pressure textile sensor:1||printingline direction:1||productfocused process design system(PFPDS):1||quadriceps:1||random forest:1||range  of  ankle  motion:1||range of motion:1||realtime image processing:1||reducing agent:1||renewable energy source:1||resistance:1||resistance sensor:1||resistive stretch sensor:1||resistive stretch textile sensor:1||respiration sensor:1||respiratory monitoring:1||respiratory sensor:1||rubber fiber sensor:1||saving on energy:1||sawing:1||selfcorrection the plantar pressure:1||sensors and actuators:1||sensory evaluation:1||shape memory alloy:1||shape memory effect:1||silver pastes:1||similarity:1||simultaneously feeding:1||singlewalled carbon nanotubes (SWCNTs):1||skewness:1||smart  socks:1||smart bag:1||smart clothing:1||smart gloves:1||smart knee brace:1||smart phone:1||smart textiles:1||smart wear:1||smart wearable:1||smart windows:1||smartphone:1||soccer socks:1||soft pressure sensor:1||soft robotics:1||solgel:1||solgel process:1||solar cell fiber:1||solar energy conversion:1||solvent resistance:1||spacer fabric:1||sparse autoencoder:1||sports science:1||standardization:1||static balance:1||steam set:1||strain sensor:1||stretch  sensor:1||stretchable sensors:1||stretching:1||superhydrophobic:1||supination movement:1||supporter:1||surface electromyography:1||surface energy:1||surface modification:1||tactility:1||telematics technology:1||tension:1||tetraethyl orthosilicate:1||textile PCB substrate:1||textile actuator:1||textile coil:1||textile floor coverings:1||textile sensors:1||textile stretch sensors:1||textile touch sensor:1||textile type sensor:1||textilebased electrode:1||textilestructure:1||thermoplastic polyurethane:1||thoracic support harness:1||tilted air gaps:1||tote bag:1||touchsensing:1||towel:1||tunable transparency:1||twist multiplier:1||underwater applications:1||uniformity analysis:1||upper trapezius muscle:1||variational autoencoder:1||vibration control:1||vibration prediction algorithms:1||visual notification:1||wale skewness:1||wappen:1||water resistance:1||wearable electronics:1||wearable healthcare:1||wearable pressure sensor:1||wearable smart device:1||wearable technology:1||wearables:1||wetchemical reduction:1||wetting behavior:1||wheatstone bridge:1||wireless power transfer:1||woven fabric:1||wrist angle:1||wrist pain:1||yard meter:1||yarn thickness:1||객관적 인체 생리 반응:1||검단기:1||게이지팩터:1||고감성 원단:1||광섬유:1||구현방식:1||굽힘 각 텍스타일 센서:1||균형:1||균형능력:1||기계적 물성:1||기능성 원단:1||끈끈한 정도:1||내장재:1||노이즈 필터링:1||논슬립 카매트:1||뉴럴 네트워크:1||다속성모델:1||다층 퍼셉트론:1||대퇴사두:1||동적 균형:1||동적 특성 측정:1||디지털 라이브러리:1||디지털 프린팅:1||레이저 그리드:1||마이크로 니들링:1||마찰특성평가:1||마카쥬:1||무릎밴드:1||미세전류 손목 보호대:1||바이어스 컷 직물:1||발광:1||발목  가동  범위:1||발목 가동 범위:1||방사통:1||배려:1||배려석:1||보호대:1||복식호흡:1||봉제:1||부드러움:1||사비츠키골레이 필터:1||사용자:1||상부교차증후군:1||상부승모근:1||생채신호 모니터링:1||생체 신호 측정:1||생체신호 모니터링:1||생체신호 분석:1||서킷트레이닝:1||소재기획:1||소프트 일렉트로닉스:1||소프트 텍스타일 액추에이터:1||손목 통증:1||손목 활동 신호:1||손목통증:1||스마트  양말:1||스마트 무릎 보호대:1||스마트 웨어:1||스마트 웨어러블 헬스케어:1||스마트 직물 센서:1||스마트 텍스타일 센서:1||스마트백:1||스트레인 센서:1||스트레치  센서:1||스트레치센서:1||스트레칭:1||스포츠 과학:1||스포츠웨어:1||시각적 알림:1||신속 생산:1||신재생 에너지:1||실리콘 인조유방:1||실크 인조유방:1||압력 및 인장 직물 센서:1||압력 센서:1||압전 저항식 센서:1||압통점:1||야드미터:1||엉덩이:1||엘이디:1||엠블럼:1||역학적 특성:1||요추안정화:1||운동 수행 능력 평가:1||움직임 범위:1||원단의 물성:1||원단화:1||웨어러블 에너지 하베스팅:1||유사성:1||융합:1||의류형  웨어러블  제품:1||의류형 웨어러블 제품:1||이동평균 필터:1||이엠에스:1||임산부:1||임신 분기:1||자동차:1||자수 전극:1||자수용 전도사:1||재생 PET사:1||재킷:1||재활용 섬유:1||저항 센서:1||전기 근육 자극 원단:1||전도사의 자수:1||전도성 원단:1||전력 전달 효율:1||전자 섬유:1||전자 섬유 텍스타일:1||제어 기능:1||족저압:1||족저압 매트:1||족저압 자가교정:1||종아리 보호대:1||주관적 감촉:1||주관적 평가:1||중간값 필터:1||직물 디자인:1||체중 부하 런지 테스트:1||촉감:1||축구 양말:1||코로나19:1||타월:1||태양광 패널 에너지 하베스팅:1||탱글탱글함:1||텍스타일 레이어:1||텍스타일 센서:1||텍스타일 스트레인 센서:1||텍스타일 전극 디자인:1||텍스타일 터치 센서:1||텍스타일 터치센서:1||텍스타일센서:1||텍스타일형 스트레치 센서:1||토트백:1||통증 완화:1||통증 자각도 검사:1||트리밍:1||패션트렌드:1||퍼지 로직:1||퍼지로직:1||표면변화:1||푹신함:1||플라즈마 표면 개질:1||허벅지 운동능력 측정:1||헤밍:1||형상기억합금:1||형상기억효과:1||호흡활성화:1||회로 설계:1||흉식호흡:1||흉추보호대:1||polyelectrolytes:1||1Dconvolution:1||2Steps Nonlinear Regression:1||2단계 비선형 회귀:1||3D compressive percolation:1||3D knit structure:1||3차원 입체 커팅:1||AI algorithms:1||Abdominal Respiration:1||Adaptive neurofuzzy inference system (ANFIS):1||Agcoated twistedyarn:1||Bagfilter:1||Balance Capability:1||Bandwidth of conducting fibers:1||Bending  Angle  Textile  Sensors:1||Biosignal Monitoring:1||Block copolymer micelle:1||Breakup frequency:1||Breast cancer patients:1||CNT:1||CNT  DipCoating:1||CNT  dispersion  solution:1||CNT  분산용액:1||CNT Dispersion Solution:1||CNT 기반 센서:1||CNT 기반 전자섬유:1||CNT 분산액:1||CNT 분산용액:1||CNT 함침:1||CNTBased Sensor:1||CNTbased Sensor:1||CNT기반센서:1||CNT분산용액:1||COVID19:1||Calf:1||Calf brace:1||Capacitive type:1||Carbon nanotube:1||Carbon nanotube (CNT):1||Carbon nanotubes (CNTs):1||Care:1||Carpal Tunnel Syndrome:1||Cellulose:1||Cellulose acetate:1||Center of gravity:1||Circuit Design:1||Clothing pressure:1||CntBased  ETextile:1||Coagulation bath:1||Composite nanofibers:1||Conducting polymer:1||Conductive Textile:1||Conductive thread:1||Conductive wool yarns:1||Contact angle:1||Contact resistance:1||Cotton fabric:1||Critical voltage:1||Currentvoltage curves (IV):1||DCDC power converters:1||DTP:1||Decomposition of muscle:1||Defect detection:1||Digital Textile Printing(DTP):1||Digital library:1||Dip coating:1||DipCoating:1||Dipcoating:1||Dipcoating Micro Needling Effect:1||ETextile:1||Efabric skin:1||Etextile:1||Etextile sensor:1||Etextiles:1||ELEXⓇ yarn:1||EMG:1||EMG (Electromyography):1||EMG (electromyography):1||EMG(Electromyography):1||EMG(electromyography):1||EMS:1||EMS/Electronic Muscle Simulation:1||EMS/Electronic Muscle Simulation (EMS):1||EMS/electronic muscle simulation:1||Electirc muscle stimulation:1||Electric Muscle Stimulation:1||Electrical Muscle Stimulation:1||Electrical Muscle Stimulation Textile:1||Electrical muscle stimulation:1||Electroless plating:1||Electronic Muscle Simulation:1||Electronic Textile:1||Electronic components:1||Electronic textile:1||Electrospraying:1||Electrostatic energy:1||Emblem:1||Embroidery Conductive Yarn:1||Embroidery of Conductie Yarn:1||Ems/Electronic Muscle Simulation:1||Energy generators:1||Equivalent circuit:1||FIS:1||FTIR analysis:1||Fabric Properties:1||Fabric sensor:1||Fabrication:1||Far infrared radiation:1||Fiber formability model:1||Fiber formation:1||Fiber formation model:1||Fibrid:1||Fibrid length:1||Filter simulation:1||Finite element analysis:1||Flexible wearable sensors:1||Force mode:1||Force sensitive resistance (FSR) sensors:1||Fractal designs:1||Frequency:1||Functional Textile:1||GSP model:1||Gauge factor:1||Geodict:1||HAR:1||HEPA:1||Heating layer:1||Hierarchical nanostructures:1||High sensitivity:1||HighSensitivity Textile:1||Hip:1||Human motion classification:1||Human motion monitoring:1||Hybrid sensors:1||Hybrid structure yarn:1||IMU:1||Implementation method:1||Inductive strain/compress sensors:1||Jacquard processing:1||KNN:1||Keywords: PET:1||Keywords: electroless nickel plating:1||LED:1||Lumbar Stabilization:1||MPPT converter:1||MWNT:1||Magnetic material:1||Measuring dynamic properties:1||Median Filtering:1||Mercury cadmium telluride:1||Metallized fabric:1||Monte Carlo simulation:1||Motion sensing:1||Moving Average Filtering:1||Multiwalled carbon nanotube (MWCNT):1||Multilayer Perceptron:1||Multiwalled carbon nanotube:1||Na2SO3:1||Nanoparticle filtration:1||Natural rubber (NR):1||Noise Filtering:1||Objective physiology responses:1||PARA Taekwondo:1||PARA 태권도:1||PSE:1||PVP nanofiber:1||Pain relief:1||Physiological Signal:1||Piezoelectric Resistance Sensor:1||Plasma Surface Modification:1||Poly(ethylene terephthalate):1||Poly(tetrafluoroethylene):1||PolyJet:1||Polyaniline:1||Polyethylene terephthalate (PET):1||Polyethyleneimine:1||Polypyrrole:1||Porosity:1||Power Transfer Efficiency:1||Precipitation:1||Pregnant Level:1||

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