Scholarlink

<p>As technology advances and enhances modern lifestyles, energy consumption is increasing dramatically. Harnessing energy from ambient sources—such as light, water, wind, and mechanical forces—presents a promising and eco-friendly method for converting renewable energy into usable electrical power. Recent developments in nanogenerators have led to the creation of hybridized nanogenerators, significantly improving overall power generation and providing sufficient energy to support electronic devices essential to today’s technology-driven lifestyle. The latest developments in hybrid nanogenerators are reviewed in this article, with a focus on material fabrication and architectural designs; particularly, emphasis is placed on multifunctional materials capable of harvesting multiple forms of energy.</p> Graphical abstract <p>Materials with multifunctional properties as well as structural designs are the keys to improving the performance of hybridized nanogenerators, which puts them in a strong position to play a crucial role in powering upcoming electronic devices and sustainable energy solutions. </p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Hybridized nanogenerators: Materials and structural design for improving energy harvesting

  • 期刊论文

  • 发表日期：

    2025年3月3日

查看全文
  • Ya Yang,
  • Ju-Hyuck Lee

摘要

As technology advances and enhances modern lifestyles, energy consumption is increasing dramatically. Harnessing energy from ambient sources—such as light, water, wind, and mechanical forces—presents a promising and eco-friendly method for converting renewable energy into usable electrical power. Recent developments in nanogenerators have led to the creation of hybridized nanogenerators, significantly improving overall power generation and providing sufficient energy to support electronic devices essential to today’s technology-driven lifestyle. The latest developments in hybrid nanogenerators are reviewed in this article, with a focus on material fabrication and architectural designs; particularly, emphasis is placed on multifunctional materials capable of harvesting multiple forms of energy.

Graphical abstract

Materials with multifunctional properties as well as structural designs are the keys to improving the performance of hybridized nanogenerators, which puts them in a strong position to play a crucial role in powering upcoming electronic devices and sustainable energy solutions.