Track I explores the latest advancements in renewable energy technologies, focusing on innovations that enhance efficiency, sustainability, and integration across solar, wind, hydrokinetic, biomass, and geothermal systems, with a focus on cost-effectiveness where applicable.

• Solar Energy: Examines innovations in photovoltaic (PV) and floating PV systems, highlighting their role in decentralized energy generation, environmental benefits, and economic viability.
• Wind Energy: Focuses on advancements aimed at improving energy capture, grid integration, and cost reduction in wind energy technologies.
• Hydrokinetic Energy: Discusses innovations that enhance energy extraction from water sources while minimizing ecological impact and associated costs.
• Biomass Energy: Explores biomass conversion technologies and waste-to-energy strategies that support a circular economy, with a particular focus on their economic advantages.
• Geothermal & Hydrothermal Energy: Reviews the current state of geothermal and hydrothermal technologies, their contributions to sustainable energy goals, and their role in grid stability and cost-effectiveness.

Topics Covered:

• Solar Energy Systems
• Wind Energy Systems
• Hydro Energy Systems
• Biomass Systems
• Hydrothermal Energy

Track II focuses on the integration of renewable energy systems through advanced power electronics, monitoring technologies, and smart grid solutions. Key topics include innovations in power converters for efficient energy conversion, diagnostic techniques for improving system reliability, and methods for balancing supply and demand. Embedded systems play a vital role in optimizing renewable energy technologies, such as solar panels and wind turbines. These systems enable efficient data acquisition, real-time processing, and system monitoring to maximize the performance of renewable energy installations. Smart grid solutions, including advanced metering infrastructure (AMI) and demand response mechanisms, are essential for enhancing grid stability and resilience. Track II will also explore the role of microgrids in local energy generation and community energy management. Discussions will focus on how microgrids can facilitate the integration of renewable energy at the local level and support resilient, decentralized power systems. Additionally, Track II will assess the lifetime cost benefits of implementing embedded systems for renewable energy management, evaluating their long-term economic and environmental impacts to demonstrate their value in sustainable power system development.

Topics Covered:

• Embedded Systems for Renewable Energy
• Sustainable Power Systems
• Microgrids and Smart grids

Track III explores the intersection of computing efficiency and renewable energy integration, focusing on how Artificial Intelligence (AI) can enhance green computing by optimizing energy use and promoting sustainability. Key topics include energy-efficient algorithms designed to improve the performance and efficiency of renewable energy systems, AI-driven hardware that prioritizes energy efficiency and sustainability, and the application of predictive analytics for resource management. This includes forecasting energy production and consumption, optimizing energy storage, and balancing supply and demand. Track III will also examine AI's role in smart grid integration, energy storage systems, and supporting a circular economy in the renewable energy sector, with an emphasis on innovations that minimize environmental impacts during the integration of renewable energy into the grid. Additionally, Track III will explore how AI methodologies like Explainable AI (XAI) and Sustainable AI can ensure ethical, transparent, and sustainable energy solutions.

Topics Covered:

• Artificial Intelligence for Renewable Energy
• Explainable and Sustainable Artificial Intelligence

Track IV explores hybrid energy systems, energy management, storage solutions, and hydrogen integration to enhance the stability and reliability of energy infrastructures. By combining renewable energy sources like solar and wind with energy storage systems, these hybrid systems can address variability in power generation, improve grid resilience, and increase overall system reliability, all while evaluating lifetime cost benefits and economic viability. Key areas of focus include optimal sizing and advanced control techniques for hybrid systems that balance renewable energy generation with storage, as well as energy management strategies that tackle the challenges of integrating renewables into weaker grids. The role of hydrogen in supporting sustainable energy systems is also highlighted, focusing on hydrogen production, storage, and its applications in decarbonization across various sectors. Additionally, Track IV will examine the integration of advanced power electronics, real-time energy management, and hybrid energy storage technologies to optimize systems for sustainable infrastructure.

Topics Covered:

• Hybrid Energy Systems: Design, optimization, and integration of renewable energy sources with storage technologies.
• Biodiesel and Bioenergy Systems: Contributions to sustainable energy generation and biofuel production.
• Energy Management and Storage: Optimization techniques for hybrid systems, including AI applications, and advanced hybrid energy storage technologies.
• Heating and Cooling Systems: Energy-efficient solutions for residential, industrial, and commercial infrastructure.
• Hydrogen Integration: Production, storage, and use of hydrogen as an energy carrier, including its role in decarbonization.
• Electric Vehicles: Integration of electric vehicles with renewable energy systems and smart grids.
• Energy Transport and Distribution: Technologies and strategies for efficient energy distribution across grids.
• CO2 Reduction and Decarbonization: Technologies supporting carbon emissions reduction and the transition to a low-carbon energy future.

Track V focuses on innovative solutions for energy management and storage, highlighting advancements in energy storage technologies such as batteries, fuel cells, and grid stability solutions. These technologies play a pivotal role in facilitating the integration of renewable energy and advancing a low-carbon energy future. A key focus is the transformative impact of Artificial Intelligence (AI) on Battery Management Systems (BMS). Track V will explore how AI-driven optimization techniques enhance BMS, enabling smarter, more efficient grids, supporting renewable energy integration, and enabling autonomous microgrids. This results in improved efficiency, stability, and longevity of energy storage systems. Topics include AI-powered BMS, hybrid energy storage systems, smart grids, autonomous microgrids, and smart charging solutions for electric vehicles. Additional areas of interest include the development of new materials for energy storage, optimization strategies for storage systems, and innovations in energy transport and distribution. Track V will also address challenges in battery modeling, state estimation, and the integration of renewable energy systems in achieving carbon-neutral communities. Furthermore, the role of machine learning in optimal cell balancing for EV batteries, cloud-based intelligent battery management, and hybrid storage technologies will be explored.

Topics Covered:

• New Materials for Energy Storage
• Optimization of Energy Storage systems
• AI and Smart Connected Battery Management Systems (BMS).
• Hybrid Energy Storage Technologies
• Smart Charging for Electric Vehicles
• Energy Transport and Distribution
• Hydrogen Storage and Transport
• Charging and Discharging Strategies

Track VI explores innovative solutions at the intersection of precision agriculture and sustainable water management. It focuses on cutting-edge practices that optimize land use, enhance resource efficiency, and promote sustainability, particularly through the integration of renewable energy and advanced technologies. Key topics include agrovoltaics, which combine crop cultivation with photovoltaic technology to optimize land use for both food and energy production. The track also covers solar water pumping systems, which improve irrigation and domestic water supply in off-grid or rural areas, addressing challenges related to water access and distribution. Additionally, the integration of biogas, wind energy, and other renewable sources in agricultural operations will be discussed as a means of enhancing energy security and reducing dependence on fossil fuels. Track VI will also explore water prospecting techniques, such as geophysical surveys and remote sensing, to identify and manage water resources, particularly in arid or semi-arid regions. Other topics include water use optimization strategies like drip irrigation, rainwater harvesting, and controlled environment agriculture, all aimed at improving water efficiency within the framework of Integrated Water Resources Management (IWRM). Controlled Environment Agriculture techniques, including IoT-based monitoring and renewable energy-powered precision agriculture, will be highlighted for their potential to optimize water usage, improve crop yields, and conserve resources in arid climates. Track VI will also address the financial, technological, and environmental barriers to implementing these solutions, emphasizing the importance of developing resilient agricultural practices that integrate food, water, and energy systems.

Topics Covered:

• Precision Agriculture
• Water Prospecting and Sustainable Management
• Agrovoltaics and Dual Land Use
• Solar Water Pumping Systems
• Renewable Energy in Agriculture
• Water Use Optimization (Drip Irrigation, Rainwater Harvesting)
• Controlled Environment Agriculture and IoT-based Monitoring
• Barriers to Technology Implementation in Agriculture
• Remote sensing for sustainable irrigation management

This panel discussion will delve into how effective policies and regulations can stimulate investment in renewable energy technologies and infrastructure, driving economic growth and job creation. Key topics will include policies such as Feed-in Tariffs, Renewable Portfolio Standards, Net Metering, and Decarbonization strategies that incentivize investment and support sustainable energy production. The discussion will also emphasize the critical role of collaboration among government agencies, educational institutions, and industry stakeholders. These partnerships are essential to ensure that energy education and training programs are aligned with the evolving needs of the renewable energy market, addressing the growing skills gap in the sector. Panelists will explore the importance of community engagement in raising awareness of renewable energy systems and encouraging active participation in the energy transition. Education and training are fundamental in developing a skilled workforce that can drive decarbonization and the broader energy transition. The panel will explore how aligning educational systems with the evolving demands of energy transformation, particularly in countries like Algeria, can strengthen their ability to address climate change, create high-quality jobs, and build a sustainable energy future.

Focus Areas Covered:

• Policy and Regulation in Renewable Energy
• Energy Education and Training for the Future Workforce
• Energy Transition and Decarbonization Strategies
• Economic and Social Benefits of Renewable Energy