The rise of flexible high-temperature electronics 2026

References

[1] Pradhan DK,Francis AM.Materials for high-temperature digital electronics.Nat Rev Mater2024;9:790-807

[2] Qi D,Tian G,Huang Y.Stretchable electronics based on PDMS substrates.Adv Mater2021;33:e2003155

[3] Wang J,Wu N.Intrinsically stretchable organic photovoltaics by redistributing strain to PEDOT:PSS with enhanced stretchability and interfacial adhesion.Nat Commun2024;15:4902 PMCID:PMC11162488

[4] Hazarika D,Wu J.Ion dipole interaction and directional alignment enabled high piezoelectric property polyvinylidene fluoride for flexible electronics.npj Flex Electron2025;9:393

[5] Bai Y,Wu X.Flexible strain sensors with ultra-high sensitivity and wide range enabled by crack-modulated electrical pathways.Nanomicro Lett2024;17:64 PMCID:PMC11570575

[6] Li Y,Fan K.High‐temperature flexible piezoelectric sensors based on PZM composite nanofiber mats for structural health monitoring in extreme environments.Adv Funct Mater2026;36:e20608

[7] Yin L,Li J.Flexible, all-polyimide sensing skin for cryogenic engineering.Engineering2026;

[8] Yu G,Xie C.Transverse tensile mechanical experimental method and behavior of ceramic matrix mini-composites.Compos Struct2022;297:115923

[9] Yin G,Huang T.Effects of the metal-ceramic continuous transition region on the tensile strength and crack propagation behavior of 8YSZ/CoNiCrAlY coating.Surf Coat Technol2024;481:130630

[10] Liu H,Yang Z,Jiang S.High temperature static and dynamic strain response of PdCr thin film strain gauge prepared on Ni-based superalloy.Sens Actuators A Phys2019;298:111571

[11] Yang M,Hu Y.A strain‐temperature integrated polymer‐derived SiCN ceramic high temperature sensor with wide‐range and ultra‐short response time.Adv Funct Mater2024;34:2400400

[12] Tan J,Wang N,Zhang J.All-sapphire-based high-temperature pressure sensor system with in situ temperature compensation: innovative cavity design, fabrication, and APSC-FFT algorithm.Microsyst Nanoeng2026;12:159 PMCID:PMC13125206

[13] Su L,Jia S.Highly stretchable, crack-insensitive and compressible ceramic aerogel.ACS Nano2021;15:18354-62

[14] Wang H,Yu J.Self-adaptable mechanical ceramic fibrous aerogels from prestressed topology and multistable constraints.Nat Commun2025;16:6885 PMCID:PMC12297415

[15] Guo J,Deng Y.Hypocrystalline ceramic aerogels for thermal insulation at extreme conditions.Nature2022;606:909-16 PMCID:PMC9242853

[16] Cheng X,Si Y,Ding B.Direct synthesis of highly stretchable ceramic nanofibrous aerogels via 3D reaction electrospinning.Nat Commun2022;13:2637 PMCID:PMC9098874

[17] Dang S,Deng Y.Highly-buckled nanofibrous ceramic aerogels with ultra-large stretchability and tensile-insensitive thermal insulation.Adv Mater2025;37:e2415159

[18] Liu Z,Jiang Z.Flexible temperature sensor with high sensitivity ranging from liquid nitrogen temperature to 1200 °C.Int J Extrem Manuf2023;5:015601

[19] Huang Y,Zhuang Q.High-temperature flexible heat flux sensors.Chem Eng J2025;504:158986

[20] Li W,Xu M.Highly customizable, ultrawide-temperature free-form flexible sensing electronic systems based on medium-entropy alloy paintings.Nat Commun2025;16:7351 PMCID:PMC12335504

[21] Guo Y,Jiang F,Wu J.Large‐scale synthesis of flexible cermet interdigital electrodes with stable ceramic‐metal contact for fire‐resistant pressure tactile sensors.Adv Funct Mater2024;34:2313645

[22] Xiao W,Xu Z.A superelastic ceramic aerogel for flexible pressure sensor in harsh environment.Compos Part B Eng2025;292:112110

[23] Peters AB,Chen S.Materials design for hypersonics.Nat Commun2024;15:3328 PMCID:PMC11026513

[24] Peng R.Thick-panel origami structures forming seamless surfaces.Nat Commun2025;16:3881 PMCID:PMC12022054

[25] Xu X,Hao M.Double-negative-index ceramic aerogels for thermal superinsulation.Science2019;363:723-7

[26] Dou L,Cheng X.Hierarchical cellular structured ceramic nanofibrous aerogels with temperature-invariant superelasticity for thermal insulation.ACS Appl Mater Interfaces2019;11:29056-64

[27] Zhang X,Dou L.Ultrastrong, superelastic, and lamellar multiarch structured ZrO₂-Al₂O₃ nanofibrous aerogels with high-temperature resistance over 1300 °C.ACS Nano2020;14:15616-25

[28] Jia S,Li W.Bioinspired interfacial stabilization for ultrahigh‐temperature wide‐range conformal thin‐film strain sensors.Adv Funct Mater2026;36:e76808

[29] Pang K,Liu X.Dome-celled aerogels with ultrahigh-temperature superelasticity over 2273 K.Science2025;389:290-4

[30] Yuan Z,Zhou D.Carbon nanostructure–enabled high‐performance thermal insulation for extreme‐temperature application.Adv Funct Mater2026;36:e14142

[31] Zeng Y,Yao Y,Hu L.Thermally conductive reduced graphene oxide thin films for extreme temperature sensors.Adv Funct Mater2019;29:1901388

[32] Yang T,Zhao Y.Strong yet flexible TiC-SiC fibrous membrane with long-time ultrahigh temperature resistance for sensing in extreme environment.Nanomicro Lett2026;18:177 PMCID:PMC12765755

[33] Li W,Xu M.Microsecond-scale transient thermal sensing enabled by flexible Mo_1-xW_xS₂ alloys.Research2024;7:0452 PMCID:PMC11337116

[34] Li Y,Xu M.Flexible and thermally regulable high-temperature sensing electronics.Nano Lett2026;26:5720-30

[35] Wang H,Wang B.Stability enhancement of the platinum thin-film temperature detector up to 1400 °C by printing Al₂O₃ protective layer.IEEE Sensors J2024;24:17433-40

[36] Shi Y,Gao C.Multiple neutral axes in bending of a multiple-layer beam with extremely different elastic properties.J Appl Mech2014;81:114501