EKL Battery Brew 是一档融合“电池科技”（Battery）与“精酿生活”（Brew）的独特播客节目。以轻松幽默的风格，探讨电动时代下的前沿科技（如锂电池、新能源汽车、储能系统、可再生能源），同时“酿造”生活灵感——从装备评测，到日常充电习惯优化、可持续生活方式分享。节目像一杯精心酿制的咖啡：前半段“提神”聊硬核电池知识，后半段“回甘”分享生活趣事，让听众在学习科技的同时，感受到满满的能量补充。
EKL Battery Brew
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90 episodes
Updated Daily
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Podcast Overview
EKL Battery Brew 是一档融合“电池科技”（Battery）与“精酿生活”（Brew）的独特播客节目。以轻松幽默的风格，探讨电动时代下的前沿科技（如锂电池、新能源汽车、储能系统、可再生能源），同时“酿造”生活灵感——从装备评测，到日常充电习惯优化、可持续生活方式分享。节目像一杯精心酿制的咖啡：前半段“提神”聊硬核电池知识，后半段“回甘”分享生活趣事，让听众在学习科技的同时，感受到满满的能量补充。
Language
🇨🇳
Publishing Since
12/26/2025
1 verified contact email on file for EKL Battery Brew
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Recent Episodes
June 1, 2026
Battery Brew 89|通过横向锂通量抑制锂金属固态电池中的枝晶
<p>播客概述：欢迎收听本期节目！</p><p>关键内容提要：今天我们要为您极其详尽地解读一篇刚刚在 <strong>2026年</strong> 发表在能源与环境科学顶级期刊 <strong>《Energy & Environmental Science》</strong> 上的研究成果。这项研究由 <strong>苏黎世联邦理工学院（ETH Zürich）、瑞士联邦材料科学与技术实验室（Empa）以及多伦多大学的 Maksym V. Kovalenko 教授、Kostiantyn V. Kravchyk 博士，联合第一作者 Huanyu Zhang、Faruk Okur 等顶尖学者</strong> 共同完成。论文的题目是《通过横向锂通量抑制锂金属固态电池中的枝晶》（Suppressing Dendrites via Lateral Lithium Flux in Li Metal Solid-State Batteries）。<strong>为什么在固态电池中加入一层薄薄的界面层，就能奇迹般地消除致命的锂枝晶？</strong> 科学家们首次从“横向微观电流”的视角，证实了一个能够瞬间“抚平”电池内部电流不均匀的自救机制。</p><p><br></p><p></p><p>Reference: Suppressing Dendrites via Lateral Lithium Flux in Li Metal Solid-State Batteries</p><p>感谢收听！继续充电，也继续酿造好生活！#EKLBatteryBrew更多电池前沿论文&解读，探索X账号：@[EKL_Batteries](x.com)</p><br><a href="https://www.xiaoyuzhoufm.com/episode/6a1d6b257460cabdeb595cfc?utm_source=rss&as=cHQ9MTIyNjE5MjQ3JmN0PWFwcGxlcG9kY2FzdF9zaG93bm90ZXMmbXQ9OA%3D%3D">前往小宇宙评论区与主播互动</a>
June 1, 2026
Battery Brew 88|受蜘蛛牵引丝启发的3D打印可持续锌离子电池：实现超高稳定性
<p>播客概述：欢迎收听本期节目！</p><p>关键内容提要：欢迎收听本期《前沿科技深度解析》。今天我们要为您极其详尽地解读一篇 <strong>2026年</strong> 发表在能源与环境科学领域顶尖学术期刊 <strong>《Energy & Environmental Science》</strong> 上。研究由 <strong>香港理工大学的徐宾刚教授团队、德克萨斯大学奥斯汀分校的余桂华教授团队，联合湘潭大学、四川农业大学等多家顶尖机构</strong> 共同完成。论文的题目极具想象力：《受蜘蛛牵引丝启发的3D打印可持续锌离子电池：实现超高稳定性》（Spider Dragline Silk-Inspired 3D Printed Sustainable Zinc Ion Battery with Ultrahigh Stability）。不仅从我们常吃的“海带废料”中提取材料，更从“蜘蛛丝”中汲取灵感，再结合极其前沿的 <strong>3D 打印技术</strong>，造出了一块既能极速充放电、又能完全回收的“绿色超级锌电池”。</p><p></p><p>Reference: Spider Dragline Silk-Inspired 3D Printed Sustainable Zinc Ion Battery with Ultrahigh Stability</p><p>感谢收听！继续充电，也继续酿造好生活！#EKLBatteryBrew更多电池前沿论文&解读，探索X账号：@[EKL_Batteries](x.com)</p><br><a href="https://www.xiaoyuzhoufm.com/episode/6a1d6b1e7460cabdeb595cf6?utm_source=rss&as=cHQ9MTIyNjE5MjQ3JmN0PWFwcGxlcG9kY2FzdF9zaG93bm90ZXMmbXQ9OA%3D%3D">前往小宇宙评论区与主播互动</a>
June 1, 2026
Battery Brew 90|识别化学官能团对离子液体电导率的影响
<p>播客概述：欢迎收听本期节目！</p><p>关键内容提要：今天我们要为您极其详尽地解读一篇 <strong>2026年</strong> 发表在化学领域顶尖学术期刊 <strong>《化学科学》（Chemical Science）</strong> 上的硬核数据驱动大作。</p><p>这项研究由 <strong>美国威斯康星大学麦迪逊分校（UW-Madison）的 Rose K. Cersonsky 教授团队，联合 J. E. Umaña、Matthew A. Gebbie 等多位顶尖学者</strong> 共同完成。论文的题目是《识别化学官能团对离子液体电导率的影响》（Identifying the Impact of Chemical Functional Groups on Ionic Liquid Conductivity）。</p><p>这篇文章抛弃了传统的通用化学描述符，专门为离子液体量身定制了一套“懂得看电荷与共振”的分子语言，彻底拆解了到底是什么决定了离子液体的导电速度。</p><p></p><p>Reference: Identifying the Impact of Chemical Functional Groups on Ionic Liquid Conductivity</p><p>感谢收听！继续充电，也继续酿造好生活！#EKLBatteryBrew更多电池前沿论文&解读，探索X账号：@[EKL_Batteries](x.com)</p><br><a href="https://www.xiaoyuzhoufm.com/episode/6a1d6b39ac7bdb080c3441a4?utm_source=rss&as=cHQ9MTIyNjE5MjQ3JmN0PWFwcGxlcG9kY2FzdF9zaG93bm90ZXMmbXQ9OA%3D%3D">前往小宇宙评论区与主播互动</a>
90 total episodes available
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- What is EKL Battery Brew?
- How often does this podcast release new episodes?
This podcast updates daily.
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This podcast is available on 4 platforms including Apple Podcasts, Spotify, and more. You can also use the RSS feed directly.
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