Talking about various carbon-neutral technologies in many different languages!!

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Podcast Overview
Talking about various carbon-neutral technologies in many different languages!!
Language
🇺🇲
Publishing Since
5/28/2025
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Recent Episodes

July 28, 2026
【日常から学ぶ固体物理】不純物とキズが宝石とスマホを作る!結晶欠陥が生む意外な価値
<p>▼YouTube(結晶欠陥)<br>【日常から学ぶ固体物理】不純物とキズが宝石とスマホを作る!結晶欠陥が生む意外な価値<br>https://www.youtube.com/watch?v=FI7DNGYnXHw<br><br>▼note(結晶欠陥)<br>完璧な結晶は「退屈」である。物質の"色"と"電気"を支配する「結晶欠陥」の魔法<br>https://note.com/kazzima/n/n1981db29d4d6<br><br>---<br>ルビーが赤くてサファイアが青い理由は、アルミナ結晶に混入した微量のクロムや鉄というキズ(不純物欠陥)のせいです。半導体も不純物ドーピングで電子の流れをコントロールします。「欠陥こそが機能を生む」—結晶欠陥の種類と、それが生み出す物性への影響を解説します。</p>

July 27, 2026
【日常から学ぶ固体物理】鉛とダイヤのデバイ温度の正体!原子の固さが決める熱の限界
<p>▼YouTube(デバイ温度)<br>【日常から学ぶ固体物理】鉛とダイヤのデバイ温度の正体!原子の固さが決める熱の限界<br>https://www.youtube.com/watch?v=rU-GEFG88Yo<br><br>▼note(デバイ温度)<br>デバイ温度って何??:なぜ物質ごとに「熱の感じ方」が違うのか?基礎から学ぶ結晶の熱<br>https://note.com/kazzima/n/nc8026434ef74<br><br>---<br>デバイ温度は「物質がどのくらい高周波振動に対応できるか」の指標です。ダイヤモンドは2200K超、鉛は約88Kと大きく異なり、この違いが熱容量・熱伝導率・ゼロ点振動に直結します。原子の質量と結合力が決める「熱の個性」をデバイモデルから解説します。</p>

July 26, 2026
【日常から学ぶ固体物理】ダイヤモンドが銅の5倍熱を伝える理由!フォノンと格子振動の固体物理
<p>▼YouTube(自由電子とフォノンの熱伝導)<br>【日常から学ぶ固体物理】ダイヤモンドが銅の5倍熱を伝える理由!フォノンと格子振動の固体物理<br>https://www.youtube.com/watch?v=hwjfeJNiLnM<br><br>▼note(自由電子とフォノンの熱伝導)<br>熱を運ぶ二大政党「自由電子」vs「フォノン」。ダイヤモンドの熱伝導率が「銅」を凌駕する物理学的理由<br>https://note.com/kazzima/n/nf83f96582f6f<br><br>---<br>金属の熱伝導は主に自由電子が担いますが、ダイヤモンドには自由電子がなくフォノンだけで銅の5倍の熱伝導率を実現します。軽い炭素原子と強いダイヤモンド結合が作り出す高速フォノン伝播—電子とフォノンという2つの熱輸送主役の物理を解説します。</p>
58 total episodes available
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- What is CDRpod Japan?
- How often does this podcast release new episodes?
This podcast updates daily.
- Where can I listen to this podcast?
This podcast is available on 4 platforms including Apple Podcasts, Spotify, and more. You can also use the RSS feed directly.
- Does this podcast accept guests?
No, this podcast does not typically feature guests.
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