Greenenergy Awards

 Antarctica , known as the coldest and most remote place on Earth, faces unique challenges when it comes to energy production. Traditional fossil fuel-based systems are not only costly but also environmentally harmful, making them unsuitable for such fragile ecosystems. 🌱 With the rising need for sustainable and continuous power, geothermal passive thermoelectric generators (PTEGs) emerge as a promising solution. 🔋 Geothermal passive thermoelectric generators work on the principle of harvesting heat from underground geothermal gradients and converting it directly into electricity using thermoelectric materials. 🔥⚡ Unlike conventional systems, they require no moving parts, fuel supply, or complex maintenance, making them highly suitable for harsh environments like Antarctica. Their passive operation ensures reliability even under extreme weather conditions, where other renewable options like solar and wind often struggle. ☀️ One of the greatest advantages of PTEGs is their abili...

Woody biomass is emerging as a vital resource in the transition toward clean and sustainable energy systems. Derived from forest residues, sawmill by-products, and dedicated energy plantations, it offers a renewable and carbon-neutral alternative to fossil fuels. However, its efficient utilization requires more than simple combustion—it calls for integrated processes, optimization strategies, and advanced simulations to maximize energy recovery while minimizing waste. One of the most promising approaches involves the  integrated utilization of woody biomass , where multiple processes—such as pyrolysis, gasification, combustion, and biochemical conversion—are combined to generate power, heat, and bio-based products. This integration not only enhances efficiency but also ensures that every fraction of the biomass is converted into useful energy or materials. For instance, while larger wood fractions can be used for direct heat and power generation, smaller residues may serve as feed...

Sustainable biomass processing has become an essential focus in the renewable energy sector, as the world seeks practical solutions to reduce dependence on fossil fuels. Improving efficiency in biomass systems not only makes clean energy more competitive but also ensures that resources are used wisely. One promising approach is utilizing ash waste heat recovery to support the dewatering of fuels, turning what was once discarded energy into a valuable resource. During the combustion of biomass, ash is produced as a byproduct. While often overlooked, this ash contains a considerable amount of residual heat that usually goes to waste. By capturing and reusing this thermal energy, industries can enhance the processing of fuels such as biomass briquettes, pellets, and slurry. In particular, waste heat recovery helps reduce the high energy demand of fuel dewatering , making the overall process more sustainable and cost-effective. The integration of ash waste heat recovery offers multiple be...

 The  Best Paper Award  is more than just a recognition—it is a celebration of ideas that shape the future of research, innovation, and knowledge-sharing. This prestigious honor highlights outstanding scholarly contributions that demonstrate originality, technical excellence, and relevance in addressing today’s global challenges. Every winning paper represents a journey of dedication, curiosity, and a commitment to advancing human understanding. By rewarding high-quality research, the award inspires not only the authors but also the wider academic and professional community to aim higher, think deeper, and innovate further. The Best Paper Award serves as a platform to spotlight research that goes beyond theory—work that drives impact, sparks conversation, and opens doors for new opportunities. It acknowledges scholars whose ideas resonate across disciplines,  empowering others to build upon a foundation of excellence. Ultimately, this award is a tribute to knowl...

 Algal biomass is emerging as one of the most promising solutions for renewable energy and sustainable biofuel production. Unlike traditional feedstocks such as corn or sugarcane, algae offer exceptionally high productivity, rapid growth rates, and the ability to thrive in non-arable lands and wastewater. This makes them a powerful candidate for addressing global energy challenges while reducing competition with food crops. Currently, a range of strategies are being applied to harness algal biomass for biofuel. Microalgae are cultivated in open ponds and closed photobioreactors, where they convert sunlight and carbon dioxide into valuable lipids and carbohydrates. These lipids can be processed into biodiesel, while the carbohydrates can be fermented into bioethanol or biogas. Additionally, algal biomass can be converted into hydrogen through advanced biophotolysis and anaerobic digestion processes. Beyond fuels, the residual biomass is also rich in proteins and nutrients, making i...

The built environment is at the heart of the climate change challenge. Buildings and infrastructure consume vast resources, generate significant emissions, and directly impact how communities adapt to a changing climate. Professionals working across architecture, engineering, construction, and facility management emphasize that climate action must be embedded at every stage of the built environment lifecycle—design, construction, operation, and end-of-life. At the  design stage , architects and planners stress the importance of early integration of sustainability principles. Passive design, renewable energy integration, climate-resilient layouts, and eco-friendly material choices are not just add-ons—they define the long-term environmental footprint of projects. By making climate-conscious decisions at the outset, professionals can set the foundation for buildings that are both functional and future-ready. During construction and delivery , engineers and contractors see opportuni...