Let's start by breaking down this mouthful of technical jargon. The 182mm refers to the silicon wafer size - imagine a square solar panel building block slightly larger than your average dinner plate. The 10BB stands for 10 busbars, those thin silver lines you see on solar cells that act like highways for electricity. Combine these with PERC (Passivated Emitter and Rear Cell) technology, and you've got a workhorse of modern solar energ
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Let's start by breaking down this mouthful of technical jargon. The 182mm refers to the silicon wafer size - imagine a square solar panel building block slightly larger than your average dinner plate. The 10BB stands for 10 busbars, those thin silver lines you see on solar cells that act like highways for electricity. Combine these with PERC (Passivated Emitter and Rear Cell) technology, and you've got a workhorse of modern solar energy.
Back in 2022-2023, this design hit the sweet spot between efficiency and manufacturing cost. The 182mm size became an industry darling through what engineers call the "Goldilocks Principle" - not too big (like 210mm cells that caused module handling headaches), not too small (like legacy 156mm cells).
Remember when Tesla tried making solar roofs look like regular shingles? The 10BB design offered similar aesthetic advantages with its finer grid pattern while maintaining conductivity. Shanghai Aiko Solar's production data showed these cells achieved 23.2% conversion efficiency in mass production - about 0.8% higher than standard PERC cells.
In the 2023 Jiangxi 35.95MW project, modules using these cells demonstrated:
Here's where our story takes a twist. Despite its technical merits, Aiko Solar discontinued this product line in Q4 2024. Why would a market leader abandon such successful technology? The answer lies in the photovoltaic industry's relentless innovation cycle.
The rise of N-type TOPCon and HJT technologies now offers 25%+ cell efficiencies. Moreover, the industry's shift toward 210mm silicon westerlies and back-contact cell designs made the 182mm-10BB architecture look like last season's smartphone - still functional, but missing the latest features.
While touring Aiko's Zhuhai gigafactory last month, I noticed something telling - their new ABC production lines could retrofit to produce 182mm PERC cells within 48 hours. This manufacturing flexibility reveals an open secret: legacy technologies don't die, they become niche solutions for specific applications like rooftop solar or harsh environments where PROVEN reliability outweighs peak efficiency.
The 182mm format itself isn't disappearing either. Latest reports show it still holds 43% market share in rectangular cell formats, particularly in distributed generation systems. What's changing is the underlying technology - like upgrading a car's engine while keeping the chassis.
Before diving into PERC solar panel technology and its benefits, it is important to have a proper understanding of traditional solar panels and how they work. Traditional solar panels are called monocrystalline an. . While the recombination of the e-h pair under the aforementioned circumstances is the regular process generating an electric current for traditional solar cells, there is also another typ. . Since PERC is a technology implemented on traditional crystalline silicon solar cells, PV modules under this technology are divided between mono PERC solar panels and poly PERC s. . PERC is only one of the available technologies to improve efficiency and applications for solar panels. There are other advanced technologies like Interdigitated Ba. . Understanding how PERC solar panel technology works, is key to understanding the pros and cons of different applications. In this section, we round up the major pros and cons of PER. [pdf]
One option that outstands from the rest is the Passivated Emitter and Rear Contact (PERC) solar technology which allows for the creation of PERC solar panels. The PERC solar panel is a highly efficient and improved type of PV technology that uses Crystalline Silicon (c-Si) and fixes some inconveniences of this traditional technology.
Solar panels made from PERC solar cells typically perform better than traditional panels in both low-light conditions and high temperatures. PERC technology boosts efficiency through the addition of a layer to the back of a traditional solar cell, which provides several benefits to the cell's production.
Passivated Emitter and Rear Contact (PERC) technology is an excellent improvement that allows solar cells to achieve higher efficiencies. While this technology presented several cons in the past like LID and PID, manufacturers found ways to solve this, resulting in high-efficiency PERC solar panels without the cons of the technology in the 80s.
Here’s a quick breakdown of each type of PERC solar module you’ll find on the market. Polycrystalline PERC panels are your budget-friendly option. Made with fragments of silicon that are melted together, poly cells have a lower crystal purity and are the less efficient of the two. The upside to using poly panels lies in the price.
Polycrystalline PERC panels are your budget-friendly option. Made with fragments of silicon that are melted together, poly cells have a lower crystal purity and are the less efficient of the two. The upside to using poly panels lies in the price. Since they are easier to manufacture, the price is usually much less than mono panels.
Mono PERC solar panels tend to have a relatively higher price, but considering the performance and technical specifications against the price, this technology is much better than poly PERC solar panels. PERC solar panels vs.
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