Agresti Filippo, Angella Giuliano, Arshad Humaira, Barison Simona, Barreca Davide, Bassani Paola, Battiston Simone, Biffi Carlo Alberto, Buscaglia Maria Teresa, Canu Giovanna, Cirisano Francesca, Deambrosis Silvia Maria, Fasan Angelica, Fasolin Stefano, Favaro Monica, Ferrari Michele, Fiameni Stefania, Fiocchi Jacopo, Fortunato Marco, Giuranno Donatella, Govahi Parnian, Isopi Jacopo, Montagner Francesco, Mortalò Cecilia, Miorin Enrico, Novakovic Rada, Pezzato Luca, Treska Daniela, Tuissi Ausonio, Vercelli Barbara, Villa Francesca, Visentin Francesca, Zin Valentina, Losurdo Maria
CNR-ICMATE National Research Council, Institute of Condensed Matter Chemistry and Technologies for Energy, Corso Stati Uniti 4, 35127 Padova, Italy.
CNR-ICMATE National Research Council, Institute of Condensed Matter Chemistry and Technologies for Energy, Via R. Cozzi, 53, 20125 Milano, Italy.
Nanomaterials (Basel). 2025 Sep 10;15(18):1388. doi: 10.3390/nano15181388.
The sustainable production of energy without environmental footprints is a challenge of paramount importance to satisfy the ever-increasing global demand and to promote economic and social growth through a greener perspective. Such awareness has significantly stimulated worldwide efforts aimed at exploring various energy paths and sources, in compliance with the ever more stringent environmental regulations. Research advancements in these fields are directly dependent on the design, fabrication, and implementation of tailored multi-materials for efficient energy production and harvesting and storage devices. Herein, we aim at providing a survey on the ongoing research activities related to various aspects of functional materials for energy production, conversion, and storage. In particular, we present the opportunities and the main open challenges related to multifunctional materials spanning from carbon-based nanostructures for chemical energy conversion, ferroelectric ceramics for energy harvesting, and phase change materials for thermal energy storage to metallic materials for hydrogen technologies, heat exchangers for wind energy, and amphiphobic coatings for the protection of solar panels. The relevance of designing tailored materials for power generation is also presented. Finally, the importance of applying life cycle assessment to materials is emphasized through the case study of AlTiN thin films.
在不产生环境足迹的情况下可持续地生产能源,对于满足不断增长的全球需求以及从更绿色的角度促进经济和社会增长而言,是一项至关重要的挑战。这种认识极大地激发了全球范围内旨在探索各种能源路径和来源的努力,以符合日益严格的环境法规。这些领域的研究进展直接依赖于为高效能源生产、收集和存储设备量身定制的多种材料的设计、制造和应用。在此,我们旨在对与能源生产、转换和存储功能材料各方面相关的正在进行的研究活动进行综述。特别是,我们展示了与多功能材料相关的机遇和主要开放性挑战,这些材料涵盖了用于化学能转换的碳基纳米结构、用于能量收集的铁电陶瓷、用于热能存储的相变材料,以及用于氢能技术的金属材料、用于风能的热交换器和用于保护太阳能电池板的两性疏水涂层。还介绍了设计用于发电的定制材料的重要性。最后,通过AlTiN薄膜的案例研究强调了将生命周期评估应用于材料的重要性。