IKUVBOGIE OSARO CHARLES

DESIGN AND ASSEMBLY OF 1.5KVA STAND-ALONE SOLAR POWER SYSTEM

Year of Publication
Publication Type
Abstract
The growing need for sustainable and renewable energy solutions has driven interest in solar power systems as an alternative to conventional electricity sources. This project, titled "Design and Assembly of a 1.5KVA Stand-Alone Solar Power System," aims to equip students with the essential knowledge required to build an efficient solar power system. It focuses on fundamental aspects such as load analysis, proper material sizing, and system integration to ensure optimal performance. The project outlines the step-by-step procedures involved in selecting and assembling key components, including solar panels, charge controllers, inverters, and batteries. A detailed approach to load analysis ensures that energy demands are accurately assessed, allowing for appropriate system design. The study also explores construction techniques, testing procedures, and performance evaluations to verify the system’s efficiency and reliability. By providing hands-on experience and theoretical insights, this project serves as a valuable educational tool for students, fostering a deeper understanding of solar energy applications and promoting sustainable energy solutions.
Supervisor(s)
co-supervisor

DESIGN AND ASSEMBLY OF 1.5KVA STAND-ALONE SOLAR POWER SYSTEM

Year of Publication
Publication Type
Abstract
The growing need for sustainable and renewable energy solutions has driven interest in solar power systems as an alternative to conventional electricity sources. This project, titled "Design and Assembly of a 1.5KVA Stand-Alone Solar Power System," aims to equip students with the essential knowledge required to build an efficient solar power system. It focuses on fundamental aspects such as load analysis, proper material sizing, and system integration to ensure optimal performance. The project outlines the step-by-step procedures involved in selecting and assembling key components, including solar panels, charge controllers, inverters, and batteries. A detailed approach to load analysis ensures that energy demands are accurately assessed, allowing for appropriate system design. The study also explores construction techniques, testing procedures, and performance evaluations to verify the system’s efficiency and reliability. By providing hands-on experience and theoretical insights, this project serves as a valuable educational tool for students, fostering a deeper understanding of solar energy applications and promoting sustainable energy solutions.
Supervisor(s)
co-supervisor