International Journal of Microelectronics and Digital integrated circuits
THE DESIGN AND CONSTRUCTION OF AN INVERTER SYSTEM
Student, Department of Computer Engineering Technology, Federal Polytechnic, Ugep. Cross River State. Nigeria
Abstract
Efficient inverter technologies have become necessary due to the growing need for dependable,
sustainable, and affordable power supply systems. An electronic device known as an inverter
system transforms direct current (DC) from a battery or renewable energy source into alternating
current (AC), which can be used to power appliances in homes, businesses, and industries. This
study aims to provide a thorough description of the architecture, construction, and operation of a
useful and effective inverter system. Because the system is built with locally obtained, legally
compliant materials, affordability, accessibility, and safety are guaranteed without sacrificing
functionality. This study aims to provide a thorough description of the architecture, construction,
and operation of a useful and effective inverter system. Because the system is built with locally
obtained, legally compliant materials, affordability, accessibility, and safety are guaranteed
without sacrificing functionality. At a frequency of 50 hertz, the inverter transforms 12 volts of DC from a battery into 220 volts of AC. Semiconductors, such as a transistor switch and cascaded MOSFETs, are used in the conversion process to increase the current to a level appropriate for step-up transformers. After
that, the transformers raise the voltage to the required output level, giving a variety of electrical
gadgets enough power. The system's on-off switching current regulation ensures a steady voltage
output while guarding against damage from short circuits or load spikes. The inverter system has a number of useful benefits in addition to its operational effectiveness. It lessens dependency on traditional fuel-powered generators by offering a clean, silent, and ecologically friendly power source. The gadget can be used as an additional power source to current energy sources and is safe to use in commercial, industrial, and domestic settings. This study shows that great performance and efficiency may be achieved while utilizing locally accessible components to build an inverter system that is safe, dependable, and reasonably priced. The design and technique offered offer a platform for additional inverter technology research and development, supporting the larger objective of accessible and sustainable energy solutions. This inverter system offers a workable answer to the energy problems encountered in places with a limited or erratic supply of electricity by combining contemporary semiconductor technologies with effective circuit design ideas.
Inverter, transformer, direct current (dc), transistor and alternating current (ac)
References (2)
- 1. Mandal S, Roy M. Design a high frequency power inverter using ferrite-core transformer for ohmic heating of liquid conducting system. Journal of The Institution of Engineers (India): Series B. 2024 Apr;105(2):229-37. 2. Idowu Y. Design and Construction of a 1KVA Power Inverter. Unpublished B. Tech Thesis, LAUTECH, Ogbomoso. 2020:12-35. 3. Ehikhamenle M, Okeke RO. Design and development of 2.5 KVA inverter adopting a microcontroller based frequency meter. International Journal of Engineering and Modern Technology. 2017;3(1):2504-8856. 4. Ganiyu S. Design and Construction of a 1KVA Power Inverter. Unpublished B. Tech Thesis, LAUTECH, Ogbomoso 2004.
- 5. E Abioye A, O Ogbuatu M, O Oluwe M, O Egonwa B, Ekiokeme K. Design and Construction of 1 KVA Power Inverter System. Journal of Engineering Research and Reports. 2018 Aug 16;2(1):1-4. 6. El Kebir A, Belhadj H, Negadi K, Bey AB. Design and Construction of an Inverter for a Photovoltaic System. In2018 IEEE XXVII International Scientific Conference Electronics-ET 2018 Sep 13 (pp. 1-4). IEEE. 7. Babarinde OO, Adeleke BS, Adeyeye AH, Ogundeji OA, Ganiyu AL. Design and construction of 1kVA inverter. International Journal of Emerging Engineering Research and Technology. 2014 Jun;2(3):201-12. 8. Li S, Yang M, Long J, Ma Y, Song T, Xu D. Modulation Strategy for Resonant DC-Link Soft-Switching Inverter With Arbitrary Power Factor. IEEE Transactions on Transportation Electrification. 2024 Mar 8;10(4):9631-51. 9. Haque NM, Ahammad I, Miah S, Miki AA, Ahmed H. Design and Implementation of Cost Effective Inverter. International Journal Of Scientific & Technology Research. 2017 Oct;6(10):269-72. 10. Saridakis S, Koutroulis E, Blaabjerg F. Optimal design of modern transformerless PV inverter topologies. IEEE transactions on energy conversion. 2013 Apr 3;28(2):394-404.