JoVE - Journal of Visualized Experiments
JoVE Visualize
Contact Us

Customizable, Multifunctional, and Highly Environmentally Stable Pseudomorphic Glass for Space Flexible Photovoltaic

  • 0School of Chemistry and Chemical Engineering, Harbin Institute of Technology, Harbin 150001, China.
Acs Applied Materials & Interfaces +

|

May 29, 2025

|

May 29, 2025

View abstract on PubMed

Summary

This summary is machine-generated.

A new multifunctional pseudomorphic glass (PMG) composite enhances space solar cells. This flexible material boosts power generation and durability in harsh space environments, paving the way for advanced space missions.

Area Of Science

  • Materials Science
  • Aerospace Engineering
  • Photovoltaics

Background

  • Space photovoltaic (PV) devices require flexible, transparent encapsulation offering radiation protection.
  • Achieving both high efficiency and stability in solar cells under extreme space conditions remains a significant challenge.

Purpose Of The Study

  • To design and evaluate a customizable multifunctional pseudomorphic glass (PMG) composite for encapsulating large-area flexible multijunction solar cells for space applications.
  • To assess the performance and durability of PMG-encapsulated solar cells under simulated space conditions.

Main Methods

  • A novel PMG composite material was designed for geosynchronous orbit (GEO) applications.
  • The PMG material was laminated onto large-area flexible multijunction solar cells.
  • Encapsulated PV devices underwent space environment assessments, including UV irradiation, charged particle irradiation, and thermal cycling.

Main Results

  • PMG encapsulation maintained high power conversion efficiency (∼30.69%) with enhanced power generation (12.71% higher than colorless polyimide) under omnidirectional sunlight.
  • Space assessment experiments demonstrated excellent durability and reliability of the PMG and encapsulated PV devices.
  • The PMG-based flexible solar arrays achieved a specific power of 550 W/kg, reducing launch weight by 40% compared to rigid panels.

Conclusions

  • The developed PMG composite shows significant potential for space flexible solar arrays, offering high-efficiency power generation and long-term reliability.
  • The PMG design methodology and encapsulation technique are adaptable for other flexible PV devices and orbital missions.
  • This innovation addresses key challenges in space solar cell encapsulation, enabling advanced space facilities.

Keywords: