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March 17, 2026Interdisciplinary materials0 citationsOpen Access

Solar‐Powered Integrated Thermoelectric System for Simultaneous Electricity and Freshwater Production With Salt and Brine Recovery

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LWLu WangWZWenhe ZhangCWChengbing Wang

Key Points

  • The research aims to develop an integrated solar-powered system for simultaneous electricity and freshwater production.
  • Utilized a solar-powered integrated thermoelectric generator (SPI-TEG)
  • Employed a wavelength-selective absorber to maximize solar-to-heat conversion
  • Implemented a superhydrophilic wiper for efficient seawater evaporation and cooling
  • Measured performance metrics under standard solar illumination conditions
  • Achieved an open-circuit voltage of 258.8 mV and a power density of 0.504 W m −2
  • Attained an evaporation rate of 1.79 kg m −2 h −1
  • Collected freshwater at a rate of 0.632 kg m −2 h −1
  • Enabled tunable brine concentration with a salt recovery rate of up to 83%

Abstract

ABSTRACT The global crises of water and energy scarcity call for integrated technologies that transcend single‐function operation. Here, we present a solar‐powered integrated thermoelectric generator (SPI‐TEG) that relies solely on sunlight to synergistically co‐produce electricity, freshwater, concentrated brine, and solid salt within a single device. The SPI‐TEG employs a wavelength‐selective absorber at the hot side of a thermoelectric module to maximize solar‐to‐heat conversion, while a superhydrophilic cleanroom wiper placed at the cold side enables continuous seawater transport and efficient evaporative cooling. This configuration establishes a significant temperature difference for power generation and simultaneously reutilizes the dissipated heat for desalination. Under 1.0 sun illumination, the device achieves a notable open‐circuit voltage of 258.8 mV, a power density of 0.504 W m −2 , and an evaporation rate of 1.79 kg m −2 h −1 , with a freshwater collection rate of 0.632 kg m −2 h −1 . Notably, through circulating evaporation, the device enables tunable brine concentration and achieves zero liquid discharge with a salt recovery rate of up to 83%. This work offers a practical zero‐carbon route for synergistic water‐electricity cogeneration and sustainable ocean resource recovery.

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Cite This Study

Wang et al. (2026) studied this question.

synapsesocial.com/papers/69b8f162deb47d591b8c653chttps://doi.org/10.1002/idm2.70038
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