According to EnergyTrend, JA’s selfdeveloped and packaged pHJT photovoltaic products were launched aboard the Kuaizhou11 carrier rocket at the Jiuquan Satellite Launch Center on September 17 and successfully entered the predetermined orbit.
This test marks JA’s first inorbit space verification of pHJT products targeting largescale commercial applications.
Against the backdrop of the growing commercial aerospace industry and advancing space economy, solar power serves as the primary energy solution for satellite systems. Under such circumstances, the industry keeps exploring costeffective space photovoltaic technology routes to meet development demands for various space scenarios including lowEarthorbit constellations.
Ouyang Zi, Chief Technology Officer of JA, stated that after years of massscale production and multiscenario application validation, the performance and longterm stability of JA’s terrestrial PV products have been fully proven by the market. This inorbit space test extends mature terrestrial crystallinesilver PV technologies to space environments and represents a key step for JA to tap into future space energy.
Based on onorbit realworld measurements, the project will investigate the reliability and degradation characteristics of pHJT cells in lowEarthorbit environments and explore the feasibility of developing costcompetitive space energy solutions via crystallinesilicon technologies. Spaceenergy technology verification entails a long cycle and requires continuous testing.
JA noted that after the satellite enters orbit, its pHJT modules will be directly exposed to the space environment and subjected to extreme conditions such as intense radiation, highenergy particle impacts, and drastic temperature swings. By continuously comparing groundsimulated data with inorbit empirical data, JA will systematically assess the longterm reliability and degradation performance of pHJT products for lowEarthorbit scenarios.
Should the inorbit demonstration achieve preset objectives, mature crystallinesilicon industrial chains will be accelerated to gradually replace gallium arsenide in loworbit scenarios, lowering costs for satellite power systems and supporting the industrial ecosystem of lowEarthorbit constellations covering satellite internet, remotesensing observation, space communication and space computing.
JA stated that building on this demonstration, it will continuously optimize module R&D and manufacturing technologies, advance the technical maturity of space PV products, and deliver more competitive largescale energy solutions for commercial aerospace and space exploration.
It should be noted that space photovoltaic technology overall remains in the exploratoryandverification phase. Largescale industrial implementation has not yet been realized, and material uncertainties persist regarding its commercial prospects.
JA added that it has not secured any spacephotovoltaicrelated orders to date, and this business segment makes no material contribution to the company’s current operating performance.
Source:EnergyTrend
