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March 21, 2026Solar RRL

Dual‐Function Hydrogel Synthesis for Passive Photovoltaic Cooling for Climate‐Resilient Solar Infrastructure

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Authors

VAVinay AryaVCVikash ChandraARAnirban Roy

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Overview

This research demonstrates enhanced cooling in solar infrastructure using a dual-function hydrogel, indicating significant benefits in hot climates.

Key Points

  • The research aims to improve the cooling efficiency of photovoltaic modules through a novel hydrogel design.
  • Engineered a dual-function PAM–LiCl hydrogel with a perforated topology.
  • Conducted controlled indoor measurements and rooftop field tests.
  • Performed coupled heat–mass-transfer simulations.
  • Analyzed year-round climate datasets to evaluate performance.
  • Hydrogel reduced module temperature and improved power output without external energy.
  • Enhanced vapor exchange and natural airflow through the hydrogel structure.
  • Long-term cooling benefits identified in high-insolation environments.

Cite This Study

Arya et al. (2026) studied this question.

synapsesocial.com/papers/69be37096e48c4981c6766b8https://doi.org/10.1002/solr.202500913
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Cover Feature: Dual‐Function Hydrogel Synthesis for Passive Photovoltaic Cooling for Climate‐Resilient Solar Infrastructure (Sol. RRL 6/2026)2026
  2. 2Hydrogel-Based Passive Cooling for Photovoltaic Systems: Mechanisms, Materials Design, and Performance Benchmarking2026
  3. 3Nature‐Inspired Sustainable Cooling for Photovoltaics with Enhanced Temperature‐Salinity Dynamics2025
  4. 4Cross-Linking Network-Engineered PNIPAM Hydrogels with Enhanced Autonomous Moisture-Harvesting for Solar Cell Interfacial Evaporative Cooling2026
  5. 5Hydrogel‐Enabled Photovoltaic Thermal Management: Materials Design, System Integration, and the Energy‐Water Nexus2026 · 1 citations