Navigating the future of healthcare with innovations and challenges in implantable battery technology for biomedical devices

被引:0
作者
Krishnamoorthy, Umapathi [1 ]
Lakshmipathy, Priya [2 ]
Ramya, Manohar [3 ]
Fayek, Hady H. [4 ]
机构
[1] KIT, Dept Biomed Engn, Coimbatore 641402, India
[2] Sri Eshwar Coll Engn, Dept Elect & Commun Engn, Coimbatore, India
[3] Manipal Acad Higher Educ, Manipal Inst Technol Bengaluru, Dept Biotechnol, Manipal, India
[4] Egyptian Chinese Univ, Energy & Renewable Energy Engn Dept, Cairo, Egypt
关键词
Implantable medical devices; Implantable batteries; Biocompatible electrolytes; Battery technologies; Energy harvesting; Biocompatible power sources; Battery health monitoring; USEFUL LIFE PREDICTION; LITHIUM-ION BATTERIES; CARDIOVERTER-DEFIBRILLATORS; LONGEVITY; MANUFACTURERS; STIMULATION; THERAPY; SYSTEM; ISSUES; THIN;
D O I
10.1007/s42452-024-06278-2
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
Human Machine Interfaces and biomedical prosthetics are advancing rapidly, merging human and machine capabilities. These innovations offer tremendous benefits, but the effectiveness of implantable medical devices (IMDs) hinges on the reliability of their batteries. This article explores the various battery technologies used to power IMDs. The review focuses on the unique characteristics, identifies current challenges and future opportunities in the design and enhancement of batteries for IMDs. The review delves into different battery technologies, emphasizing advancements in electrode materials, biocompatible electrolytes, innovative power delivery systems, and novel energy harvesting techniques. It explores the potential of incorporating new nanomaterials, wireless charging solutions, and bio-energy harvesting methods in battery design. Furthermore, the review discusses recent progress in AI-powered implantable battery health monitoring. The study identifies key challenges in existing battery technologies, such as issues with energy density, cycling stability, and longevity, and points out possible enhancements facilitated by introducing advanced materials and cutting-edge technologies. The review also highlights the promise of AI techniques in improving the health monitoring of implantable batteries. The review highlights the critical need to address the stringent requirements of implantable battery design to drive the advancement of healthcare technologies. By adopting novel materials, innovative charging, and energy harvesting methods, along with AI-driven health monitoring, substantial improvements in implantable battery performance can be achieved, thereby enhancing the reliability and effectiveness of biomedical prosthetics and implantable devices. New energy-harvesting techniques could power IMDs without needing frequent battery replacements.Use of novel nano materials could propel advancements in implantable batteries enabling IMDs last longer and work more efficiently.AI-powered monitoring predicts battery health, improving the reliability and safety of medical implants.
引用
收藏
页数:17
相关论文
共 87 条
  • [1] Autocharging Techniques for Implantable Medical Applications
    Abu Owida, Hamza
    Al-Nabulsi, Jamal I.
    Turab, Nidal M.
    Alnaimat, Feras
    Rababah, Hana
    Shakour, Murad Y.
    [J]. INTERNATIONAL JOURNAL OF BIOMATERIALS, 2021, 2021
  • [2] Recent Progress and Challenges of Implantable Biodegradable Biosensors
    Alam, Fahmida
    Ashfaq Ahmed, Md
    Jalal, Ahmed Hasnain
    Siddiquee, Ishrak
    Adury, Rabeya Zinnat
    Hossain, G. M. Mehedi
    Pala, Nezih
    [J]. MICROMACHINES, 2024, 15 (04)
  • [3] Battery longevity in cardiac resynchronization therapy implantable cardioverter defibrillators
    Alam, Mian Bilal
    Munir, Muhammad Bilal
    Rattan, Rohit
    Flanigan, Susan
    Adelstein, Evan
    Jain, Sandeep
    Saba, Samir
    [J]. EUROPACE, 2014, 16 (02): : 246 - 251
  • [4] In vivo flexible energy harvesting on porcine heart via highly-piezoelectric PIN-PMN-PT single crystal
    An, Jaehun
    Park, Hyewon
    Jung, Young Hoon
    Min, Seongwook
    Kim, Dong Hyun
    Joe, Daniel J.
    Lee, Sang-Goo
    Hyeon, Dong Yeol
    Je, Yub
    Seo, Hee-Seon
    Jeong, Uichang
    Hong, Seungbum
    Hwang, Geon-Tae
    Joung, Boyoung
    Lee, Keon Jae
    [J]. NANO ENERGY, 2024, 121
  • [5] Facilitated Transdermal Drug Delivery Using Nanocarriers-Embedded Electroconductive Hydrogel Coupled with Reverse Electrodialysis-Driven Iontophoresis
    An, Young-Hyeon
    Lee, Joon
    Son, Dong Uk
    Kang, Dong Hyeon
    Park, Mihn Jeong
    Cho, Kyoung Won
    Kim, Semin
    Kim, Su-Hwan
    Ko, Junghyeon
    Jang, Myoung-Hoon
    Lee, Jae Young
    Kim, Dae-Hyeong
    Hwang, Nathaniel S.
    [J]. ACS NANO, 2020, 14 (04) : 4523 - 4535
  • [6] Remaining useful life prediction for lithium-ion battery storage system: A comprehensive review of methods, key factors, issues and future outlook
    Ansari, Shaheer
    Ayob, Afida
    Lipu, M. S. Hossain
    Hussain, Aini
    Saad, Mohamad Hanif Md
    [J]. ENERGY REPORTS, 2022, 8 : 12153 - 12185
  • [7] Energy harvesting from cerebrospinal fluid pressure fluctuations for self-powered neural implants
    Beker, Levent
    Benet, Arnau
    Meybodi, Ali Tayebi
    Eovino, Ben
    Pisano, Albert P.
    Lin, Liwei
    [J]. BIOMEDICAL MICRODEVICES, 2017, 19 (02)
  • [8] Postmarket surveillance of medical devices: current capabilities and future opportunities
    Blake, Kathleen
    [J]. JOURNAL OF INTERVENTIONAL CARDIAC ELECTROPHYSIOLOGY, 2013, 36 (02) : 119 - 127
  • [9] Batteries used to power implantable biomedical devices
    Bock, David C.
    Marschilok, Amy C.
    Takeuchi, Kenneth J.
    Takeuchi, Esther S.
    [J]. ELECTROCHIMICA ACTA, 2012, 84 : 155 - 164
  • [10] An implantable wireless neural interface for recording cortical circuit dynamics in moving primates
    Borton, David A.
    Yin, Ming
    Aceros, Juan
    Nurmikko, Arto
    [J]. JOURNAL OF NEURAL ENGINEERING, 2013, 10 (02)