• High module efficiency through superior manufacturing technology• Solar Module Efficiency up to 24.5%• No power loss thanks to improved temperature co-efficient caused by TOPCON solar cell• Strictly control the micro-crack of solar cells and the other non visible defect of internal modules• Module can bear snow loads up to 5400Pa and wind loads up to 2400Pa
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 166mm Mono cell and half cell technology. Power can be 430w-460w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
Using MBB higher efficiency 158.75mm Mono cell and half cell technology. Power can be 390w-420w. By cutting solar cell into halves, the internal power loss will be lower and hot spot effect will also be reduced. This design effectively deals with the mismatch happened between cells caused by shadow, out of sync performance degradation, etc.
