The overarching research focus of this study is on advancing sustainable energy solutions across various sectors, from renewable technologies to policy impacts. Key areas include: 1. **Sustainable Energy Development**: Research into coconut waste bioenergy, solar power systems, and green houses as renewable energy sources, highlighting their applications in agriculture and urban settings. 2. **Advanced Materials for Sustainable Applications**: Exploration of physicochemical properties of building materials and the development of advanced batteries and supercapacitors, addressing environmental challenges. 3. **Technology-Driven Innovations**: Integration of smart technologies like machine learning and IoT to optimize energy grids, focusing on renewable systems and grid-tied solar power in rural communities. 4. **Energy Efficiency Improvements**: Studies on thermal management techniques and photovoltaic efficiency, aiming to reduce energy consumption and promote sustainable practices globally. 5. **Policy and Infrastructure Development**: Analysis of social sciences papers such as university-industry-governance models and smart grid technologies, emphasizing their role in addressing economic and environmental impacts. 6. **Urban Heat Island Mitigation**: Research on strategies to reduce urban heat islands through improved insulation and green infrastructure. 7. **Thermal Management Systems**: Development of systems for efficient heating and cooling, crucial for both residential and industrial applications. 8. **Advanced Battery and Thermal Efficiency Technologies**: Comparative analyses of battery technologies, such as solar and thermal, to enhance energy efficiency in buildings and households. 9. **Energy Economics and Supply Chain Optimization**: Studies on optimizing industrial energy consumption through regression models and machine learning, aiming for circular economy practices. 10. **Fluid Dynamics and Environmental Impact Assessment**: Research on fluid dynamics, including turbulent flows and buoyancy cooling, to improve thermal management systems. This structured approach ensures a comprehensive exploration of themes across domains, from immediate applications like bioenergy to long-term societal impacts, providing a holistic view of sustainable energy solutions.
All Papers
This profile is generated from publicly available publication metadata and is intended for research discovery purposes. Themes, summaries, and trajectories are inferred computationally and may not capture the full scope of the lecturer's work. For authoritative information, please refer to the official KNUST profile.