Di-functional nanocomposite films for efficient conversion and storage of solar energy

There is no doubt that renewable sources, such as solar energy, have played an important role in the future renewable energy system. And solar heat has great potential and a high contribution towards the future energy supply. How to directly collect, fast convert and efficiently store solar heat is...

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Veröffentlicht in:Solar energy materials and solar cells 2017-05, Vol.164, p.188-192
Hauptverfasser: Shang, Mengya, Zhang, Shudong, Li, Nian, Gu, Xiaomin, Li, Li, Wang, Zhenyang
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container_end_page 192
container_issue
container_start_page 188
container_title Solar energy materials and solar cells
container_volume 164
creator Shang, Mengya
Zhang, Shudong
Li, Nian
Gu, Xiaomin
Li, Li
Wang, Zhenyang
description There is no doubt that renewable sources, such as solar energy, have played an important role in the future renewable energy system. And solar heat has great potential and a high contribution towards the future energy supply. How to directly collect, fast convert and efficiently store solar heat is still a problem to be solved in solar energy application. Herein, the di-functional nanocomposite film was designed and fabricated toward efficient conversion and storage of solar thermal energy. The di-functional nanocomposite film was feasibly prepared by uniformly imbedding phase change materials (PCMs) and Au nanoparticles into PVA matrix uniformly through the hydrogen-bonding interactions. The Au nanoparticles, as photothermal nanoabsorbers, with a low concentration (~0.23% m/m), can instantly and intensely realize solar-to-heat conversion by utilizing surface plasmon resonance. Subsequently, efficiently conversion heat could be stored into the PCMs through film-interior reversible phase transformation. Meanwhile, no leakage and evaporation of the PCMs is observed due to the strong hydrogen-bonding confinement at interface between PCMs and the film matrix. This kind of di-functional nanocomposite films is of great importance and wide usage in the fields of solar thermal energy conversion and storage, thermal interface materials, protective layers and sensing, etc. •Rapid and efficient solar-to-heat conversion and storage.•Low loading concentration of gold nanoparticles.•Film interior reversible phase change process.•Enhanced thermal storage efficiency.•High cycling behavior and form-stable performance of the di-functional nanocomposite film.
doi_str_mv 10.1016/j.solmat.2017.02.017
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subjects Alternative energy sources
Bonding strength
Energy conversion
Energy storage
Evaporation
Gold
Heat
Hydrogen bonding
Hydrogen storage
Nanocomposite film
Nanocomposites
Nanoparticles
Phase change materials
Phase transformation
Phase transitions
Photothermal conversion
Protective coatings
Renewable energy
Solar energy
Solar heating
Surface plasmon resonance
Thermal energy
Thermal energy storage
title Di-functional nanocomposite films for efficient conversion and storage of solar energy
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