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As energy markets evolve, the rise of Distributed Energy Resources (DERs) and microgrids is revolutionizing how businesses and communities manage their energy needs. Microgrids and DERs empower energy consumers to become producers, creating resilient, efficient, and self-sustainable energy ecosystems. To work seamlessly, two key parts need to be aligned. The hardware (DER’s) and how it’s operated (software-based energy management). Why Microgrids and Distributed Energy Resources (DERs) are Transforming the Energy Landscape Microgrids are localised energy grids that can operate autonomously from traditional grids. They incorporate DERs, such as solar panels and energy storage systems, to generate and distribute electricity. This development addresses the need for reliable, sustainable, and efficient energy sources. The surge in popularity in relation to DERs and microgrids can be attributed to many different factors. Yet, from a business perspective, it’s clear that autonomy & resilience, sustainability, and cost efficiency are the leading causes for this revolution. Decoding the Role of DERs and Software Solutions in Modern Microgrid Technology The profound importance of Distributed Energy Resources (DERs) within microgrids’ complex architecture must be understood to appreciate and take advantage of their enormous potential fully. The functionality and effectiveness of microgrids are greatly improved by these DERs, which also include solar panels, energy storage systems, and wind turbines. Thanks to their invaluable contributions to energy production, storage, and management, they are firmly established as an integrated and interdependent part of the overall system. However, using specialized software solutions becomes necessary to utilize microgrids and DERs fully. Working with a seasoned technology partner knowledgeable about microgrids, renewable energy, and DERs can change your life by providing priceless knowledge and experience. Such a technological partner can help design, create, and meticulously fine-tune the technical foundation that drives your energy optimization, microgrid, or DER project to unmatched success. We’ve supported our customers in the green energy sector by implementing out-of-the-box software solutions and creating bespoke systems. Our primary goal has been to equip these clients with the resources to oversee, regulate, and track their DER assets efficiently. By optimally leveraging their capabilities, microgrids can harness DERs to their full capacity, contributing to a more robust and sustainable energy future and significantly impacting energy efficiency. It’s crucial to underscore that the success of a microgrid project hinges on thoroughly understanding the role of DERs and implementing suitable software solutions. By engaging with proficient experts and carefully planning DER integration, you can enhance your microgrid’s operation, control, and monitoring, maximizing it...

We are pleased to announce the successful completion and grid connection of the SUNDTA 1074.03KW Rooftop Distributed Photovoltaic Project. This project stands as a remarkable achievement in the field of renewable energy and showcases the effective utilization of solar power to meet the growing energy demands in a sustainable and eco-friendly manner. The SUNDTA 1074.03KW Rooftop Distributed Photovoltaic Project encompasses the installation of solar panels on rooftops, allowing for the harnessing of solar energy and its transformation into clean electricity. The project is a testament to the commitment towards reducing carbon emissions and promoting a greener future. Solar Panels: The project utilizes two types of high-quality solar panels: LONGI 555W and Trina 550W solar panels. These solar panels boast cutting-edge technology and efficiency, ensuring optimal power generation from the available solar resource. The selected panels have been tested for durability, reliability, and performance, guaranteeing long-term operation and an excellent return on investment. Inverter System: The project incorporates the use of the Deye 100KW on-grid inverter system. This advanced inverter technology efficiently converts the direct current (DC) electricity generated by the solar panels into alternating current (AC) electricity compatible with the local power grid. The Deye inverters are known for their high conversion efficiency, reliability, and advanced monitoring capabilities, enabling comprehensive system performance evaluation and control. The SUNDTA 1074.03KW Rooftop Distributed Photovoltaic Project plays a crucial role in reducing greenhouse gas emissions and combating climate change. By utilizing clean, renewable solar energy, this initiative significantly reduces reliance on fossil fuels and contributes to a greener and more sustainable energy mix. Additionally, the project demonstrates the potential of distributed generation, utilizing existing rooftop spaces to generate electricity without the need for additional land resources.        

Production capacity will reach 1.2TW in 2030 Most production capacity will remain highly concentrated, and China's expansion plans will far exceed those of other countries. By far, China is the largest producer, accounting for 80% of the world's production capacity. Annual nominal solar module production capacity is expected to reach 1.2TW by the end of this decade, and using 70% of this would enable solar PV development to reach the levels projected in the Net Zero Emissions (NZE) scenario. This scenario limits global temperature rise to 1.5°C, further reducing fossil fuel use. According to STEPS forecasts, the addition of 800 GW of solar photovoltaic capacity per year will reduce China's coal-fired power generation by 20% by 2030, and by 2030, Latin America, Africa, Southeast Asia and the Middle East will add 800 GW of solar photovoltaic capacity each year on average. 70GW solar photovoltaic capacity. "Solar PV alone will not put the world on track to meet climate goals, but it can light the way forward more than any other clean technology," the report states. By 2030, China's newly installed solar photovoltaic and offshore wind power capacity will be three times that of the "2021 World Energy Outlook". The Asian country is already a leader in clean energy growth, accounting for nearly half of the world's new installed solar photovoltaic and wind power capacity in 2022. However, emerging and developing economies must join China in accelerating the pace of new renewable energy projects. To meet the requirements of the net-zero emissions scenario, investment in the energy transition will increase fivefold by 2030. Energy demand growth remains very strong in most emerging and developing economies, and achieving cleaner electricity is key to achieving their energy and climate goals. In Indonesia, for example, the share of renewable energy in electricity generation will double to more than 35% by 2030, while in sub-Saharan Africa, meeting diversified national energy and climate goals means that by 2030, 85% of new power plants will be based on renewable energy. "In some markets, clean energy projects are facing unfavorable factors such as rising costs, supply chain bottlenecks and rising borrowing costs. But clean energy is the most dynamic area of global energy investment. With policy and market stimulation, the next few decades will be The annual pace of clean energy development is key to explaining the differences in trajectories and outcomes under the three main scenarios. Since 2020, clean energy investment has increased by 40%. The push to reduce emissions is a key reason, but not the only one. Mature clean energy technologies have strong economic benefits. Energy security is also an important factor, especially in fuel-importing countries, as is industrial strategy and the desire to create clean energy jobs.