Charging the Battery of an Implanted Cardiac Pacemaker Using Thermoelectric Generator Modules

In this study, our purpose is to recharge the battery of an implanted pacemaker using the electrical energy generated by thermoelectric modules.As long as a temperature gradient is applied, it can drive the thermoelectric modules to generate electrical energy.The temperature of the human body is almost constant and will not change considerably.Therefore, there is a natural temperature gradient between the human body and the external environment, which can be used to charge the battery of an implanted pacemaker.This approach can resolve effectively the issue of pacemaker failure resulting from power shortage.In this research, we substitute human skin with pig skin to simulate the temperature gradient between the human body and the external environment.The power generation efficiencies of various types and arrangements of thermoelectric modules were experimentally investigated in this work.The results showed that the number of working days of the implantable pacemaker battery is extended differently by different charging durations of the thermoelectric device.Patients undergo only a single implantation surgery, and they do not need to undergo the surgery again for the rest of their life because of power shortage of the battery, thereby reducing patients' risks during surgery, which is thus considerably beneficial to the patients.

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Publication Details

Journal
Sensors and Materials
Published
2025-10-20
DOI
https://doi.org/10.18494/sam5748
Primary Topic
Advanced Thermoelectric Materials and Devices
Type
article
Field-Weighted Citation Impact
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article

Charging the Battery of an Implanted Cardiac Pacemaker Using Thermoelectric Generator Modules

Kai‐Jung Chen, Shang-Kuo Yang, Wei-Shen Kuo, Bei-Fu Ou
Sensors and Materials
Advanced Thermoelectric Materials and Devices
article

Charging the Battery of an Implanted Cardiac Pacemaker Using Thermoelectric Generator Modules

Kai‐Jung Chen, Shang-Kuo Yang, Wei-Shen Kuo, Bei-Fu Ou
article en

Abstract

In this study, our purpose is to recharge the battery of an implanted pacemaker using the electrical energy generated by thermoelectric modules.As long as a temperature gradient is applied, it can drive the thermoelectric modules to generate electrical energy.The temperature of the human body is almost constant and will not change considerably.Therefore, there is a natural temperature gradient between the human body and the external environment, which can be used to charge the battery of an implanted pacemaker.This approach can resolve effectively the issue of pacemaker failure resulting from power shortage.In this research, we substitute human skin with pig skin to simulate the temperature gradient between the human body and the external environment.The power generation efficiencies of various types and arrangements of thermoelectric modules were experimentally investigated in this work.The results showed that the number of working days of the implantable pacemaker battery is extended differently by different charging durations of the thermoelectric device.Patients undergo only a single implantation surgery, and they do not need to undergo the surgery again for the rest of their life because of power shortage of the battery, thereby reducing patients' risks during surgery, which is thus considerably beneficial to the patients.

Sensors and MaterialsVol. 37(10)
National Chin-Yi University of Technology (TW)
Openalex Percentile: Top 77%
Advanced Thermoelectric Materials and Devices
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