Renewable Energy Management and Targets

• Introduction to building integrated solar power generation BIPV

Green Energy for the Future, Sustainable Love for the Earth — Our mission in environmental protection and energy conservation. The world is facing undeniable climate change and an energy crisis. To safeguard our Earthly home, we firmly believe that the mission of environmental protection, energy conservation, and love for the Earth is not only a responsibility for businesses. We introduce internationally integrated solar power generation BIPV (Building Integrated Photovoltaics) and incorporate "painted solar panels" as "energy-saving green energy" technology. This involves optimizing the solar photovoltaic design for buildings, aligning with the principles of "ESG United Nations Sustainable Development Goals" and the advocacy of the "United Nations SDGS Sustainable Development Goals." We hope to collectively embrace the future of green renewable energy.

• Building integrated solar power generation BIPV application

Building Integrated Photovoltaics (BIPV) is an innovative solar energy application technology that seamlessly integrates photovoltaic materials into the building structure, replacing traditional building materials. This application allows the building itself to become a significant energy source without the need for additional solar panels. BIPV, when considered during the design phase, can achieve optimized power generation efficiency and cost-effectiveness. Typically, skylights and exterior walls serve as the primary light-absorbing surfaces, making BIPV an indispensable part of green building design.

• Advantages of building integrated solar power generation

Building Integrated Photovoltaics (BIPV) has the following advantages:

1. Energy Saving and Carbon Reduction: BIPV can replace some traditional building materials, reducing the use of construction materials and lowering the carbon emissions of buildings. It is estimated that carbon emissions can be reduced by 20%-30% compared to traditional construction, equivalent to the effect of planting about 30 trees.

2. Aesthetic Value: BIPV can seamlessly integrate with the building, creating a unique architectural style. Colors, shapes, textures, etc., can be customized according to the design requirements, enhancing the beauty of the building and increasing its value.

3. Sunshade and Energy Saving: BIPV can block sunlight, reducing the temperature inside the building and saving air conditioning energy consumption. Research suggests that BIPV can reduce air conditioning energy consumption by 10%-20% compared to traditional construction, equivalent to a 10%-20% reduction in electricity consumption.

4. Fire Safety: The solar photovoltaic modules used in BIPV are made of fire-resistant materials, reducing the risk of building fires.

• Building Integrated Solar Power BIPV Implementation

Taiwanese companies will face dual pressures, both domestically and internationally, in the carbon reduction and decarbonization efforts. Internationally, various industries are trending towards zero-carbon transformation, green standards, and Building Integrated Photovoltaics (BIPV). Supply chain requirements demand the disclosure of greenhouse gas data, and carbon tariffs from the EU's Carbon Border Adjustment Mechanism (CBAM) and the U.S. Carbon Customs Adjustment (CCA) add to the challenges. Domestically, the net-zero legislation requires carbon-intensive enterprises to pay carbon fees. The Financial Supervisory Commission (FSC) is prioritizing the promotion of a sustainability development roadmap for listed companies, requiring the completion of greenhouse gas inventories and verifications through carbon audits.

Implementing sustainable production involves setting goals for high-volume production of solar panels, increasing the widespread use of green energy storage applications and BIPV, such as:

1. Reducing Carbon Emissions:

   Energy storage technology can address the issue of unstable renewable energy supply, increasing the utilization of green energy. Storing excess renewable energy allows for energy provision during shortages, reducing reliance on traditional fossil fuels. This helps reduce greenhouse gas emissions and mitigate the risks of climate change.

2. Enhancing Energy Supply Stability:

   Renewable energy sources like wind and solar are weather-dependent and may have intermittent supply. Energy storage systems balance energy supply and demand, ensuring a stable power output. This is crucial for maintaining the stability of the power grid and reducing the risk of blackouts.

3. Promoting Energy Decentralization:

   Green energy storage technology contributes to achieving decentralization in energy production and distribution. Small-scale storage systems can be integrated into facilities like solar panels and wind turbines, making energy production more flexible and closer to end-users. This reduces reliance on large centralized power plants, enhancing the stability and resilience of the energy system.

4. Improving Grid Efficiency:

   Energy storage technology can store energy during off-peak hours and release it during peak hours, balancing grid loads. This helps reduce energy waste, mitigate energy price fluctuations, improve grid operation efficiency, and lower energy costs for users.

Facilitating the Development of Renewable Energy: Actively developing solutions for renewable energy in collaboration with industry, government, and academia to increase the utilization of renewable energy.

Addressing Climate Change: Identifying climate change risks, building resilience against climate risks, and consequently reducing potential climate-related risks.

Implementing Corporate Carbon Audits: Implementing actual achievements in carbon audits for enterprises, conducting a comprehensive inventory of greenhouse gas emissions, including direct emissions, energy indirect emissions, and other indirect emissions.

Preparing for Net-Zero by 2050: Cultivating talent in carbon auditing and the preparation of sustainability reports to meet the requirements for achieving net-zero carbon emissions by 2050.

Promoting the Concept of Building Integrated Photovoltaics (BIPV): Applying globally prevalent BIPV solar energy technology and actively promoting the innovative development of exclusive patented "Colorful Solar Panels."

Figure: Application trends of building-integrated solar power generation BIPV