From strong wind vibrations and roof loads to extreme climates in complex terrains, Grace Solar is always pursuing smarter, more efficient, and durable mounting systems. Challenge 1: Deformation of mounting systems in strong wind environments Grace Solar's solution: ▸ Smart wind load analysis ▸ Wind-resistant structural design (RWDI certified) Case study: 4.5MW rooftop distributed solar power plant in the Philippines Challenge 2: Decreased installation efficiency in complex terrains Grace Solar's solution: ▸ Design that eliminates the need for slope adjustment ▸ Over 20 terrain-adaptive solutions Case study: 55MW large-scale mountainous solar power project in Japan Challenge 3: High maintenance costs for tracking systems Grace Solar's solution: ▸ Real-time monitoring ▸ Modular design Case study: Solar power plant project in Italy Challenge 4: Snow accumulation affecting system safety and power generation efficiency Grace Solar's solution: ▸ Snow-resistant structure ▸ Snow melting solutions Case study: Solar parking lot project in Fukushima, Japan

The reason aluminum alloys are widely used in solar power generation projects is that they are lightweight yet strong, have excellent robustness, corrosion resistance, and oxidation resistance, and are easy to install. 1. Impact from heavy snow and strong winds? Based on conditions such as wind speed, snowfall, and installation angle in the installation area, structural calculations for the framework are performed in accordance with building load standards to meet design requirements. 2. Corrosion in humid areas? The corrosion resistance of aluminum frames can be improved by enhancing the plating process or increasing the plating thickness. For example, by applying processes such as anodizing, electrophoretic painting, and composite films, a protective layer is formed on the surface of the components. 3. Deformation due to extreme high temperatures? Thermal expansion is primarily affected by factors such as length and temperature. The longest members in the structure are the purlins, and by leaving gaps between the purlins during installation, structural failure due to thermal expansion can be prevented. 4. Uneven and unstable ground? The more accurate the environmental parameters provided during the design phase, the more stable the aluminum alloy frame will be after installation. For example, on uneven ground, the increase in wind load on slopes is calculated to ensure strength.

Under the sunlight of Ibaraki Prefecture, Japan, a group of "Metal Heroes" is rewriting the scenario of the new energy industry. As a key player in the region's solar power construction, Grace Solar supports the stable operation of multiple ground-mounted solar power plants in the prefecture with its uniquely developed aluminum ground mounting system. Our solutions are currently driving the "story of transformation" in the energy industry. The 6005-T5 aluminum mounting system specially developed by Grace Solar employs a dual protective coating of anodizing and powder coating, forming a dense protective layer on the surface. It maintains durability for over 25 years even in high salinity coastal environments. The patented ground screw, with its unique screw structure and surface treatment technology, ensures a strong bond with the soil while exhibiting excellent corrosion resistance against underground moist environments. In this new stage of development, Grace Solar is exploring further possibilities in Ibaraki Prefecture. The core philosophy is to "create maximum energy value with the smallest ecological footprint." From the initial pilot project to the current scale expansion, we are responding to the development of Ibaraki Prefecture through technological innovation.

The Grace GS tracking system integrates AI and IoT technology to precisely follow sunlight with millisecond-level environmental sensing (0.5 seconds per cycle) and dual intelligent algorithms (tracking at 5-10 minute intervals). It employs high-strength, corrosion-resistant plated materials and a multi-point drive design, improving rigidity by 20% compared to traditional single-point drive systems and significantly enhancing wind resistance. Italy Multiple Power Plants | Total 18MW Independent Single Row System In response to complex terrain, a flexible independent single row system adapts to the landscape without large-scale leveling. Each array unit autonomously adjusts to the slope and orientation of the terrain, likened to a trained mountaineering team skillfully navigating rugged mountainous areas. Bulgaria | 2.4MW Solar Power Project In the suburbs of Bulgaria, Grace's 2.4MW tracking system has redefined the symbiotic relationship between cities and energy with the concept of a "stealth power plant." During heavy snowfall, the structure automatically tilts to the maximum angle, enabling rapid snow removal and ensuring stable operation in winter. From an ecological perspective, the spacing between structures secures bird flight paths, and noise is kept below 35 decibels.

In the northern part of the Kanto Plain, in Utsunomiya City, Tochigi Prefecture, a solar power plant utilizing Grace Solar's CT foundation single-pole ground installation system is operating steadily. Utsunomiya City, one of Japan's important industrial hubs, has extremely high demands for quality and reliability in infrastructure, and this project fully demonstrates the exceptional capabilities of Grace Solar products in addressing complex geological conditions and high standards. The innovative design of the CT single-pole system effectively adapts to the local soil characteristics, ensuring the robustness of the foundation. During construction, the team strictly adhered to Japan's solar installation standards, establishing a solid foundation for the smooth delivery of the project by ensuring the precision of each construction task. This mounting system optimizes structural mechanical design, guaranteeing support strength while significantly reducing the amount of materials used and on-site work, thereby improving construction efficiency. It ensures particularly excellent pressure resistance against common environmental factors in Japan, such as seasonal rainfall, guaranteeing the long-term stability of the solar power plant under various conditions.