Different from traditional modules, SunEvo shingled modules arrange photovoltaic cells closely in a series-parallel structure and require almost no soldering ribbons. In the same size, more than 13% more cells can be placed than conventional modules. Therefore, the laminated module has the advantages of high output power, low internal loss, and a small reverse current hot spot effect. Our minimum order quantity is 1 pallet.
Brand:
SunEvoPower Range:
400~425WMax. Efficiency:
21.4%Number of Cells:
305 (61 × 5)Dimensions of Module L*W*H:
1812 × 1096 × 30mmWeight:
20.8kg ± 0.3kgFront Side Glass:
Tempered glass, 3.2mmBacksheet:
EVAFrame:
Anodized aluminum alloyJunction Box:
IP68, two diodesCable:
4mm2 ,+300mm/-1000mm(Vertical), +220mm/-180mm(Horizontal)Wind/Snow Load:
4500paConnector:
MC4SunEvo Ultra Black Shingled Monofacial PV Solar Module Profile
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Maximum Power: Pmax [W]
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425 | 420 | 415 | 410 | 405 | 400 |
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Open Circuit Voltage: Voc [V]
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41.7 | 41.6 | 41.5 | 41.4 | 41.3 | 41.2 |
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Short Circuit Current: Isc [A]
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13.03 | 12.92 | 12.80 | 12.65 | 12.53 | 12.41 |
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Voltage at Maximum Power: Vmp [V]
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34.6 | 34.5 | 34.4 | 34.4 | 34.3 | 34.2 |
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Current at Maximum Power: Imp [A]
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12.30 | 12.19 | 12.08 | 11.93 | 11.82 | 11.71 |
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Module Efficiency: η [%]
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21.4 | 21.1 | 20.9 | 20.6 | 20.4 | 20.1 |
Product Pictures
Feature
1. Laser slicing technology: Laser slicing technology is used to cut the entire battery into several small battery strips, achieving zero spacing between battery sheets.
2. Conductive adhesive connection: Conductive adhesive is used to flexibly connect the stacked battery strips. There is no need for the soldering metal of traditional components to contact the silicon base, effectively reducing line loss and heat loss.
3. Fully parallel circuit: Realize full parallel circuit design, with better anti-shadowing, anti-attenuation, and anti-hot spot performance.
4. Battery surface optimization: Use innovative battery surface optimization technology to improve current collection capabilities and further increase component packaging energy density.
Advantage
1. Optimal circuit connection effect, improving overall power generation performance.
2. Reduce system investment costs.
3. With higher energy density, more power output can be obtained in a limited space.
4. Higher power generation performance and higher limit of component packaging energy density.
5. Compatible with future technology trends, it is more in line with the technological development trends of the future photovoltaic industry.
FAQ
Shingled modules are an innovative solar photovoltaic technology that uses laser slicing technology and conductive adhesive connections to realize stacked connection packaging of solar cells, creating a superior circuit connection effect with zero spacing between solar cells. It has significant advantages such as optimal circuit connection effect, higher energy density, and higher power generation performance. By reducing line losses and BOS investment costs for system-side owners, shingled modules become more competitive in the photovoltaic industry.
Shingled solar panels are an advanced solar photovoltaic technology designed to enhance energy efficiency and power output. These panels feature overlapping solar cells, resembling roof shingles, which maximize the utilization of available space on the module. By reducing inactive areas and minimizing electrical losses, shingled solar panels offer improved performance and higher power density.
Shingled solar panels revolutionize traditional solar technology with their distinctive design, resembling a mosaic of interconnected solar cells. Unlike conventional panels, shingled modules overlap like roof shingles, creating a visually unique and highly efficient solar array. This innovative architecture minimizes energy loss and maximizes the use of available space, resulting in heightened power output and increased overall performance. Shingled solar panels not only provide an aesthetic appeal but also deliver a sustainable and cost-effective solution for harnessing solar energy.
Shingled solar panels introduce a transformative approach to solar energy capture, showcasing a distinct layout reminiscent of interconnected puzzle pieces. Departing from the traditional uniformity, these panels feature overlapping solar cells akin to a puzzle arrangement, optimizing space utilization on the module surface. This unique design enhances overall energy efficiency by minimizing inactive spaces and mitigating electrical losses, resulting in superior power density and performance.
Shingled solar panels stand out as a groundbreaking innovation in the realm of solar technology, featuring a configuration that resembles the intricate arrangement of solar cells like a jigsaw puzzle. In a departure from traditional designs, these panels overlap similar to shingles on a roof, presenting a visually striking and highly efficient pattern. This distinctive layout not only optimizes the use of available space but also minimizes energy loss, leading to heightened power output and superior performance. Shingled solar panels redefine the aesthetics of solar installations, marrying functionality with a visually captivating mosaic. Choosing shingled solar technology signifies a move towards cutting-edge design, efficiency, and a sustainable future in the field of solar energy.
HJT solar cell is a new generation superior bifacial solar cell made out of an N-type wafer, which combines the merits of crystalline silicon and thin-film technology to form a single composite structure. As one of the most effective cell passivation technologies in the market, HJT ensures that solar cells deliver high efficiency and great power even in hot climates.
The series, SUN-5/6K-SG01LP1-US SUN8K-SG01LP1-US, is a split phase low voltage (48V) hybrid inverter that enables enhanced energy independence and maximizes self-consumption through export limit feature and “time of use” function. With the frequency droop control algorithm, this series product supports Max. parallel units up to 16pcs.
AC charger stations can provide different power levels, commonly ranging from 3.3 kW to 22 kW, although higher power levels are also available. The charging speed and time will depend on the power level of the charger and the capabilities of the electric vehicle being charged. AC charging is commonly used for overnight charging at home or for longer-duration charging at public charging stations. It is a convenient and widely adopted method of charging EVs, as it utilizes the existing AC infrastructure that is readily available in most residential and commercial buildings.
IPv6 network supported
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