TY - GEN
T1 - Development of External Defibrillator with Energy Discharge System Using IGBT Based H-Bridge
AU - Abidin, Zainul
AU - Nurrohman, Muhammad Yogi
AU - Siwindarto, Ponco
AU - Fahanani, Agwin Fahmi
AU - Hamadani, Mohammad Yusuf
AU - Miyauchi, Ryoichi
N1 - Publisher Copyright:
© 2024 IEEE.
PY - 2024
Y1 - 2024
N2 - An external defibrillator with biphasic and monophasic modes was designed with a microcontroller-controlled H-Bridge Insulated Gate Bipolar Transistor (IGBT) circuit. The IGBT-based H-Bridge enables a discharging time of no more than 20ms, meeting industry standards (Nihon Kohden). Maximum energy that can be accepted by human body is 360J depending on age and weight. To meet these energy needs, a high voltage converter is needed. A 12V DC voltage is converted to 2000V using switching transformer method. Furthermore, the target of charging time is no more than 6 seconds. The high voltage conversion result is used to charge 10 capacitors arranged in series-parallel with capacitance value of 250μF / 2200V. The capacitors are used to temporarily store energy before being given to the fibrillation patient. Based on experiment results, the external defibrillator was able to produce a maximum energy of 500J (adjustable), exceeding the 360J standard. The switching transformer method achieved a maximum voltage of 2000V. In addition, the external defibrillator has charging and discharging times of less than 6 seconds and 20ms, respectively. The results show that the external defibrillator has met the requirements for defibrillation procedures while demonstrating its capability for enhanced energy output.
AB - An external defibrillator with biphasic and monophasic modes was designed with a microcontroller-controlled H-Bridge Insulated Gate Bipolar Transistor (IGBT) circuit. The IGBT-based H-Bridge enables a discharging time of no more than 20ms, meeting industry standards (Nihon Kohden). Maximum energy that can be accepted by human body is 360J depending on age and weight. To meet these energy needs, a high voltage converter is needed. A 12V DC voltage is converted to 2000V using switching transformer method. Furthermore, the target of charging time is no more than 6 seconds. The high voltage conversion result is used to charge 10 capacitors arranged in series-parallel with capacitance value of 250μF / 2200V. The capacitors are used to temporarily store energy before being given to the fibrillation patient. Based on experiment results, the external defibrillator was able to produce a maximum energy of 500J (adjustable), exceeding the 360J standard. The switching transformer method achieved a maximum voltage of 2000V. In addition, the external defibrillator has charging and discharging times of less than 6 seconds and 20ms, respectively. The results show that the external defibrillator has met the requirements for defibrillation procedures while demonstrating its capability for enhanced energy output.
KW - energy discharge time
KW - External defibrillator
KW - H-Bridge
KW - IGBT
UR - https://www.scopus.com/pages/publications/85218219223
U2 - 10.1109/ITIS64716.2024.10845485
DO - 10.1109/ITIS64716.2024.10845485
M3 - Conference contribution
AN - SCOPUS:85218219223
T3 - Proceeding - IEEE 10th Information Technology International Seminar, ITIS 2024
SP - 401
EP - 408
BT - Proceeding - IEEE 10th Information Technology International Seminar, ITIS 2024
PB - Institute of Electrical and Electronics Engineers Inc.
T2 - 10th IEEE Information Technology International Seminar, ITIS 2024
Y2 - 6 November 2024 through 8 November 2024
ER -