Triboelectric discharge based self-powered wireless sensing system for smart home application

Abstract

The Internet of Things (IoT) holds significant potential for advancing smart home development. However, the challenge of maintaining a sustained power supply from batteries limits the widespread deployment of IoT systems. To address the critical issue of frequent battery replacement or recharging in IoT nodes, this work proposes a self-powered wireless sensing system (SWSS) that integrates graphene sharp-tip electrodes with a triboelectric nanogenerator. The non-metallic graphene electrodes, fabricated using laser-induced graphene technology, enable the system’s signal strength to match or even surpass that of similar self-powered systems employing metal electrodes. This facilitates efficient conversion and transmission of mechanical energy into electrical energy and wireless signals. The electrode distance, which affects signal quality, is optimized through COMSOL simulations; reducing the tip distance enhances signal generation up to a critical threshold. Experimental results demonstrate reliable signal transmission over distances exceeding five meters. A capacitance modulation method is developed to stabilize multi-frequency signal generation by making the modulation capacitance inversely proportional to signal frequency. Furthermore, the system operates stably for over 20,000 cycles, equivalent to a lifespan of more than 5.5 years. By integrating Braille into the sliding modules of four SWSS units, blind individuals can successfully control multiple devices in smart homes, highlighting the system’s potential for smart home and related applications.

Keywords

Self-powered / wireless sensing system / triboelectric nanogenerator / sharp-tip electrodes / smart home

References

[1] Yang W,Gong W.Single body-coupled fiber enables chipless textile electronics.Science2024;384:74-81

[2] Cao X,Sun J,Sun Q.Multidiscipline applications of triboelectric nanogenerators for the intelligent era of Internet of Things.Nanomicro Lett2022;15:14 PMCID:PMC9768108

[3] Zhang Q,Shen F.Human body IoT systems based on the triboelectrification effect: energy harvesting, sensing, interfacing and communication.Energy Environ Sci2022;15:3688-721

[4] Xia K,Li W.A self-powered bridge health monitoring system driven by elastic origami triboelectric nanogenerator.Nano Energy2023;105:107974

[5] Zeadally S,Talpur A.Design architectures for energy harvesting in the Internet of Things.Renew Sustaina Energy Rev2020;128:109901

[6] Tang W,Wang ZL.Self-powered sensing in wearable electronics - a paradigm shift technology.Chem Rev2023;123:12105-34 PMCID:PMC10636741

[7] Zhang B,Ren T,Zhang R.Recent advances in nature inspired triboelectric nanogenerators for self-powered systems.Int J Extrem Manuf2024;6:062003

[8] Xie B,Chen Y.Advances in graphene-based electrode for triboelectric nanogenerator.Nanomicro Lett2024;17:17 PMCID:PMC11448509

[9] Tian Z,Tang YM,Tang CY.Additive manufacturing for nanogenerators: fundamental mechanisms, recent advancements, and future prospects.Nanomicro Lett2025;18:30 PMCID:PMC12339862

[10] Gui D,Mi X.Advancements in enhancement strategies for piezoelectric nanogenerator output performance and their applications in self-powered sensors.ACS Sens2025;10:6292-315

[11] Gotte M.Integrating artificial intelligence with piezoelectric nanogenerators: a review on advancements in smart energy harvesting technologies.J Mater Sci2025;60:8253-84

[12] Choi D,Lin ZH.Recent advances in triboelectric nanogenerators: from technological progress to commercial applications.ACS Nano2023;17:11087-219 PMCID:PMC10312207

[13] Du T,Dong F.Advances in green triboelectric nanogenerators.Adv Funct Mater2024;34:2313794

[14] Li Y,Deng H.Advanced dielectric materials for triboelectric nanogenerators: principles, methods, and applications.Adv Mater2024;36:e2314380

[15] An J,Jiang T.Achieving zero leakage, ultralong lifespan, and intrinsic opening sensing in microvalves through structural superlubrication and triboelectric nanogenerator technologies.Adv Mater2025;37:e2416132

[16] Li G,Wang P.Transverse-asymmetric electrode structure design to eliminate charge transfer loss for enhancing output performance of sliding mode TENG.Adv Funct Mater2025;35:2413359

[17] Xuan N,Cheng G.Advanced triboelectric nanogenerator based self-powered electrochemical system.Chem Eng J2024;481:148640

[18] Rani GM,Motora KG,Jose CRM.Acoustic-electric conversion and triboelectric properties of nature-driven CF-CNT based triboelectric nanogenerator for mechanical and sound energy harvesting.Nano Energy2023;108:108211

[19] Rani GM,Motora KG.Waste-to-energy: utilization of recycled waste materials to fabricate triboelectric nanogenerator for mechanical energy harvesting.J Clean Prod2022;363:132532

[20] Gao S,Wang J.Self-powered system by a suspension structure-based triboelectric-electromagnetic-piezoelectric hybrid generator for unifying wind energy and vibration harvesting with vibration attenuation function.Nano Energy2024;122:109323

[21] Wang J,Kang X,Dai S.Soft-soft contact TENG using nonlinear coupling galloping phenomenon for harvesting wind energy.Nano Energy2025;133:110471

[22] Jiang Y,Jiang T.Advances in triboelectric nanogenerators for blue energy harvesting and marine environmental monitoring.Engineering2024;33:204-24

[23] Shan C,Wu H.Dual mode TENG with self-voltage multiplying circuit for blue energy harvesting and water wave monitoring.Adv Funct Mater2023;33:2305768

[24] Umapathi R,Han S.Designing smart anti-theft alarm system via lead-free BSFO-PDMS composite based triboelectric nanogenerator.Chem Eng J2025;511:161799

[25] Umapathi R,Kakani V.Hexagonal boron nitride composite film based triboelectric nanogenerator for energy harvesting and machine learning assisted handwriting recognition.Nano Energy2025;136:110689

[26] Shen D,Dong F.Advances of wearable silicone rubber-based triboelectric nanogenerators: from manufacturing to application.Int J Extrem Manuf2025;7:032004

[27] Shi A,Liu W.A facile strategy for textile-based highly sensitive and water-resistant triboelectric nanogenerator.Adv Mater2025;37:e2420459

[28] Wang H,Yao K.A paradigm shift fully self-powered long-distance wireless sensing solution enabled by discharge-induced displacement current.Sci Adv2021;7:eabi6751 PMCID:PMC8457664

[29] Si J,Wang R,Guo M.Long-distance multifunctional wireless sensing platform for identifying and ranging.Nano Energy2023;109:108267

[30] Fu J,Wang H.Deep-learning assisted biomimetic self-powered wireless electronic noses system enabled by triboelectric discharge.Nano Energy2024;121:109156

[31] Gao Z,Wei Y.Holistic and localized preparation methods for triboelectric sensors: principles, applications and perspectives.Int J Extrem Manuf2024;6:052002

[32] Li Y,Lin Q.Artificial intelligence motivated flexible single-electrode mode multilayer triboelectric sensor for smart mobility systems.Nano Energy2024;125:109515

[33] Zhang H,Xin M.Thermoelectric composites based on porous laser-induced graphene and ion hydrogel.ACS Appl Mater Interfaces2025;17:21773-84

[34] Fu X,Ma C,Jiang H.Self-assembled MXene-graphene oxide composite enhanced laser-induced graphene based electrodes towards conformal supercapacitor applications.Appl Surf Sci2023;631:157549

[35] Bayoumy AM,Osman A,Hessein A.Functionalized co-doped microporous carbon spheres for eco-friendly, high-performance and flexible supercapacitors.J Power Sources2025;645:237233

[36] Guo W,Zhu Y,Li Q.Laser-induced graphene based triboelectric nanogenerator for accurate wireless control and tactile pattern recognition.Nano Energy2023;108:108229

[37] Pradhan GB,Shrestha K,Park JY.A wearable, self-sustainable, and wireless plantar pressure and temperature monitoring system for foot ulceration prognosis and rehabilitation.Sens Actuators A Phys2024;379:115985

[38] Mu M,Yu W.In situ growth of laser-induced graphene on flexible substrates for wearable sensors.ACS Appl Nano Mater2024;7:3279-88

[39] Wang W,Zhang Y.Laser-induced graphene tapes as origami and stick-on labels for photothermal manipulation via marangoni effect.Adv Funct Mater2021;31:2006179

[40] Ma Z,Xia J.Experimental study on corona onset characteristics of small curvature electrode under combined AC–DC voltages.IEEE Trans Dielect Electr Insul2022;29:1785-94

[41] Dong K,Li S.Wireless bubble detection enabled by triboelectric discharge.Nano Energy2025;142:111159

[42] Liu F,Qi Y.Self-powered wireless body area network for multi-joint movements monitoring based on contact-separation direct current triboelectric nanogenerators.InfoMat2023;5:e12428