flexible thermistor Search Results


90
Ellab GmbH indwelling flexible thermistor
Indwelling Flexible Thermistor, supplied by Ellab GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/indwelling+flexible+thermistor/nct05021523-158-16-22
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indwelling flexible thermistor - by Bioz Stars, 2026-09
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90
BioMimetic Therapeutics flexible thermistor epidermal electronics
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermistor Epidermal Electronics, supplied by BioMimetic Therapeutics, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor+epidermal+electronics/pmc09617538-7-3-48
Average 90 stars, based on 1 article reviews
flexible thermistor epidermal electronics - by Bioz Stars, 2026-09
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90
YSI Inc flexible thermal probe
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermal Probe, supplied by YSI Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor/10__2307_slash_3676908-40-55-50
Average 90 stars, based on 1 article reviews
flexible thermal probe - by Bioz Stars, 2026-09
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90
YSI Inc flexible thermistor yellow springs ele-thermometer
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermistor Yellow Springs Ele Thermometer, supplied by YSI Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor+yellow+springs+ele+thermometer/pm15936622-35-7-12
Average 90 stars, based on 1 article reviews
flexible thermistor yellow springs ele-thermometer - by Bioz Stars, 2026-09
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90
Ellab GmbH skin thermistor mhd flexible plast foil
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Skin Thermistor Mhd Flexible Plast Foil, supplied by Ellab GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/skin+thermistor+mhd+flexible+plast+foil/10__1249_slash_mss__0000000000001068-148-12-18
Average 90 stars, based on 1 article reviews
skin thermistor mhd flexible plast foil - by Bioz Stars, 2026-09
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90
YSI Inc flexible vinyl-covered rectal thermistor ysi precisions 4400 series
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Vinyl Covered Rectal Thermistor Ysi Precisions 4400 Series, supplied by YSI Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+vinyl+covered+rectal+thermistor+ysi+precisions+4400+series/pm18565834-97-8-13
Average 90 stars, based on 1 article reviews
flexible vinyl-covered rectal thermistor ysi precisions 4400 series - by Bioz Stars, 2026-09
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90
Pharmaseal Laboratories flexible vinyl-covered rectal thermistor pharmaseal apc 400 series
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Vinyl Covered Rectal Thermistor Pharmaseal Apc 400 Series, supplied by Pharmaseal Laboratories, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+vinyl+covered+rectal+thermistor+pharmaseal+apc+400+series/pm11641344-112-8-9
Average 90 stars, based on 1 article reviews
flexible vinyl-covered rectal thermistor pharmaseal apc 400 series - by Bioz Stars, 2026-09
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90
Ellab GmbH disposable muscle thermistor model flexible probe, mac -0.7
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Disposable Muscle Thermistor Model Flexible Probe, Mac 0.7, supplied by Ellab GmbH, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/disposable+muscle+thermistor+model+flexible+probe++mac++0+7/pm36152058-81-6-17
Average 90 stars, based on 1 article reviews
disposable muscle thermistor model flexible probe, mac -0.7 - by Bioz Stars, 2026-09
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90
Delta OHM flexible thermistor (hd 8464s-thermocouple k
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermistor (Hd 8464s Thermocouple K, supplied by Delta OHM, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor++hd+8464s+thermocouple+k/10__1210_slash_en__134__5__2072-110-6-11
Average 90 stars, based on 1 article reviews
flexible thermistor (hd 8464s-thermocouple k - by Bioz Stars, 2026-09
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YSI Inc flexible thermistor model 555
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermistor Model 555, supplied by YSI Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor+model+555/10__1213_slash_01__ane__0000061221__23197__ce-45-28-15
Average 90 stars, based on 1 article reviews
flexible thermistor model 555 - by Bioz Stars, 2026-09
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YSI Inc flexible thermistor tele-thermometer yellow springs instrument model 43 td
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Flexible Thermistor Tele Thermometer Yellow Springs Instrument Model 43 Td, supplied by YSI Inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/flexible+thermistor+tele+thermometer+yellow+springs+instrument+model+43+td/10__2307_slash_1368215-68-27-28
Average 90 stars, based on 1 article reviews
flexible thermistor tele-thermometer yellow springs instrument model 43 td - by Bioz Stars, 2026-09
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90
OMEGA Engineering hermetic flexible thermistor sensor type hsth-44031-2 m
a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based <t>FTEE</t> reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).
Hermetic Flexible Thermistor Sensor Type Hsth 44031 2 M, supplied by OMEGA Engineering, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/flexible+thermistor/hermetic+flexible+thermistor+sensor+type+hsth+44031+2+m/10__1007_slash_s00226___020___01200___6-145-14-22
Average 90 stars, based on 1 article reviews
hermetic flexible thermistor sensor type hsth-44031-2 m - by Bioz Stars, 2026-09
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Image Search Results


a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based FTEE reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).

Journal: Nature Communications

Article Title: A biomimetic laminated strategy enabled strain-interference free and durable flexible thermistor electronics

doi: 10.1038/s41467-022-34168-x

Figure Lengend Snippet: a Illustration of TES composed of alternating laminated PTF/MXene/Fe composites, FEP encapsulation, and Cu wires, and b the seamless contact on the forearm along the curved contours without slippage/delamination throughout bending, twisting, and relaxing cycles. c The thermosensation mechanism rely on the thermally activated tunneling current passed through MXene nanosheet junctions. d The relative resistance variations and e the corresponding temperature coefficient of resistance (TCR) of TES with different MXene nanosheet concentrations (1–10 mg/mL) over a wide temperature range (20–80 °C). f Arrhenius plot depicting the linear dependence of ln ( R ) versus temperature (1000/ T ). g The negative resistance response to gradient temperature. h The infrared (IR) images of thermal energy transfer during the skin temperature detection. i The negligible temperature hysteresis in cyclic heating and cooling cycles (20–80 °C). j The stable and repeatable resistance variations with high temperature resolution (0.3 °C). k Performance comparison in terms of thermosensitivity, operating temperature range, and the strain insensitivity between the assembled TES and various nanofiller-based FTEE reported in the literatures (including carbon, graphene, PANI, Pt, and Ag nanowires, and the detailed in Supplementary Table ).

Article Snippet: By contrast, the flexible thermistor epidermal electronics (FTEE), possessing the thermoelectric and wearable characteristics, has attracted immense interest as an alternative to overcome the drawback of rigid electronics by mechanically compliant to curved skin surfaces and receives a burgeoning amount of interest in areas ranging from artificial skin, biomimetic prosthetics, to health monitoring – .

Techniques: Encapsulation, Comparison