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Akcome High Efficiency HJT Solar Panels

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iPower Product Series

iPower Residential

iPower 355/360/365
iPower 385/390/395

iPower Commercial

iPower 425/430/435
iPower 460/465/470

iPower Utility

iPower 495/500/505

Platinum

HJT
9BB-158.75		 HJT
9BB-166
72-Pattern 72-Pattern
440W 475W

Black Hurricane

HJT Shingled
Module-158.75 		HJT Shingled
Module-166
72-Pattern 60-Pattern
470W 410W

Platinum

HJT
12BB-182
72-Pattern
570W

Black Hurricane

HJT
Shingled Module-166
72-Pattern
510W

Black Hurricane

HJT
Shingled Module-182
72-Pattern
620W
Passed the standard test of 3 times IEC for greater reliability
0 %
Lower hot spot temperature, safer
- 0 °
Greater effective power generation area
0 %
Lower operating current
1/ 0
Lower operating temperatures, higher energy production
-2~ 0 ℃

iPower Power Distribution

2021 Top Recommendation

Lowest Degradation

  • Akcome iPower module works with HJT cells, which have much lower degradation than PERC panels, more stable and long-lasting power generation.
  • While iPower promises to provide the best quality assurance to ensure maximum customer value.

Lower Temperature Coefficients

  • Compared to PERC module, HJT features lower power temperature coefficient and higher output power. It is about 4.5% more efficient in power output than PERC module under 60℃ operation temperature.
  • HJT demonstrates unique advantages in high temperature/high irradiance area.

High Bifaciality

Cell：MONO-Perc
Type: Mesh-like double glass

Bifaciality:
64-66%
Cell：N-TYPE Topcon
Type: Mesh-like double glass

Bifaciality:
79-81%
Cell：HJT
Type: Mesh-like double glass

Bifaciality:
83-85%
  • HJT is considered one of the top cell technologies with highest bifaciality. Higher bifaciality allows more energy yield on the back.
  • Generally, it enables 5%-30% energy gain on the back, depending on the factors such as ground reflection, region type etc.

Higher Energy Production

  • TCO film in HJT module prevents charge accumulation on the surface, resulting high resistance to PID;
  • LID (light-induced degradation) is mainly formed by B-O complex in silicon wafer. Because of the absence of B-O complex in n-type wafer, the LID effect is less.
Low temperature coefficient and high bifaciality performance allows HJT module to bring more energy yield. According to the existing power warranty curve, HJT module has higher energy world

Higher Reliability

Reliability of HJT Bifacial Double Glass Module

  • All degradation after test is much lower than IEC standard.

Application Scenario Analysis

Qiqihar, Heilongjian, China

100MW ground power station 30% sand reflectivity
Adopts AkcomeFixed adjustable mounting system

Improved energy yield for 30 years: +15.7%
Amount of steel for mounting: -7.3%
Combiner box & cable cost: -14.5%
Manual installation cost: -8.8%
LCOW reduction: -8.54%

Bozhou, Xinjiang, China

100MW ground power station 30% sand reflectivity
Adopts AkcomeFixed intelligent single axis horizontal tracking system

Improved energy yield for 30 years: +10.2%
Amount of steel for mounting: -9.3%
Combiner box & cable cost: -6.4%
Manual installation cost: -10.4%
LCOW reduction: -4.4%

Photovoltaic Poverty Alleviation (PVPA) project
Longchuan County 5.19MW

industrial and commercial DPV project
Taixing Industrial Park 1MW

Residential DPV project
Handan, Hebei 30kW

Framed Double Glass Design

Overlap

1 mm

Light Receiving Area

+ 3%

Module Efficiency

+ 1%
  • Akcome's stack welding technology uses the lamination solution after slicing to eliminate the internal cell gap, maximize the light receiving area of the module, and increase the module conversion efficiency by 1% over conventional multi-master grid products.

Technical Characteristics of Shingled Module

Double glass module

Double glass module mounting method

5400 / 2400Pa

Front/back load
  • Akcome's stack welding technology uses the lamination solution after slicing to eliminate the internal cell gap, maximize the light receiving area of the module, and increase the module conversion efficiency by 1% over conventional multi-master grid products.
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