[1] Mirage News “Scientists Discover New Crystal That Breathes Oxygen” (August 15, 2025)

[2] LaRepublica, “Descubren un cristal que «respira» oxígeno y promete revolucionar la energía limpia”(August 15, 2025)

[3] Science News Today “Scientists Discover “Breathing” Crystal That Could Transform Clean Energy” (August 16, 2025)

[4] Focus.pl “Ten związek chemiczny ma własne płuca. Naukowcy z Azji dokonali niemożliwego” (August 17, 2025)

[5] Interesting Engineering “Scientists discover oxygen ‘breathing’ crystal that could transform clean energy tech” (August 17, 2025)

[6] Technology Networks “Scientists Discover a New Crystal That Breathes Oxygen” (August 18, 2025)

[7] Times of India “A Crystal that inhales and exhales Oxygen: Breakthrough material could revolutionize clean energy forever” (August 18, 2025)

[8] Today Headline “A Crystal that inhales and exhales Oxygen: Breakthrough material could revolutionize clean energy forever todayheadline” (August 18, 2025)

[9] le derniere heure “Crystal de respiration d’oxygène pour une meilleure électronique” (August 18, 2025)

[10] Inovação Tecnológica “Descoberto cristal que respira oxigênio, com amplas aplicações tecnológicas” (August 18, 2025)

[11] New Atlas “Strontium-based crystals may boost fuel cells and smart energy devices” (August 18, 2025)

[12] Descopera “Oamenii de știință au creat un cristal care „respiră” oxigen” (August 19, 2025)

[13] EurekAlert! “Scientists discover a new crystal that breathes oxygen” (August 20, 2025)

[14] ScienMag “Scientists Unveil Groundbreaking Crystal That Produces Oxygen” (August 20, 2025)

[15] Bioengineering.org “Scientists Unveil Groundbreaking Crystal That Produces Oxygen” (August 20, 2025)

[16] Earth “Crystal that ‘breathes’ oxygen could transform clean energy production” (August 20, 2025)

[17] Antyweb “Kryształy, które oddychają. Rewolucja w energii nadchodzi” (August 20, 2025)

[18] Metropoles “Estudo: cristal que “respira” oxigênio pode revolucionar energia limpa” (August 20, 2025)

[19] Ifl science “New “Oxygen-Breathing” Crystal Could Recharge Fuel Cells And More” (August 20, 2025)

[20] Raw News Health “New “Oxygen-Breathing” Crystal Could Recharge Fuel Cells And More” (August 20, 2025)

[21] Azom.com “New “Breathing” Crystal Could Advance Clean Energy and Smart Tech” (August 20, 2025)

[22] Scientific Russia “УЧЕНЫЕ ОТКРЫЛИ «ДЫШАЩИЙ» КИСЛОРОДОМ КРИСТАЛЛ” (August 21, 2025)

[23] Science Daily “Scientists discover crystal that breathes oxygen like lungs” (August 22, 2025)

[24] World Today News “Oxygen-Releasing Crystal: Breakthrough for Clean Energy & Materials” (August 22, 2025)

[25] Innovations Report “Scientists discover a new crystal that breathes oxygen” (August 22, 2025)

[26] Daily Geek Show “Ces cristaux « respirants » pourraient bientôt transformer l’énergie propre” (August 23, 2025)

[27] ナゾロジー “酸素を呼吸する新たな結晶を発見” (2025.08.19)

[28] Niftyニュース “酸素を呼吸する新たな結晶を発見” (2025.08.19)

[29] TRILL “酸素を呼吸する新たな結晶を発見” (2025.08.19)

[30] ニコニコニュース “酸素を呼吸する新たな結晶を発見” (2025.08.19)

[31] 福岡新聞 “酸素を「呼吸」する結晶が作成されました” (2025.08.18)

[32] YouTube ざっくりの小部屋  “「呼吸する結晶」登場。酸素を吸ったり吐いたりする新物質の衝撃！“(2025.08.22)

[1] “電界効果移動度約90cm2/V・sの高性能薄膜トランジスタの作製に成功”, MONOist (2025.08.29)

[2] “北大、IGZOより高性能な薄膜トランジスタ　安全に作製”, NIKKEI Tech Foresight (2025.09.01)

[3] “北大，簡便な圧力制御で高性能薄膜トランジスタ開発”, OPTRONICS online (2025.08.21)

[4] “北海道大学、水酸化インジウム原料・水素ガス不使用で移動度約90cm2/V・sのディスプレイ用TFT作製”, アペルザニュース (2025.09.17)

[5] “電界効果移動度約 90cm2/V・s の高性能薄膜トランジスタの作製に成功”, TechEyesOnline (2025.08.29)

[6] “安全かつ簡便に作れる高性能薄膜トランジスタ～水素ガス不要で、電界効果移動度は従来比10倍～”, Tii技術情報 (2025.08.20)

[1] “北大，安価で普遍的な材料で超高性能熱スイッチ実現”, OPTRONICS ONLINE (January 6, 2025)

[2] “酸化セリウムを使った高性能熱スイッチを開発――熱伝導率切り替え幅が倍増　北海道大学”, fabcross for エンジニア (January 7, 2025)

[3] “北大、安価な材料で従来の2倍以上も高性能な「熱スイッチ」を開発”, マイナビニュース (January 7, 2025)

[4] “北大、安価な材料で従来の2倍以上も高性能な「熱スイッチ」を開発”, Mapionニュース (January 7, 2025)

[5] “北大、安価な材料で従来の2倍以上も高性能な「熱スイッチ」を開発”, Biglobeニュース (January 7, 2025)

[6] “酸化セリウムを活用し超高性能熱スイッチを開発　今後は「熱ディスプレイ」を試作”, MONOist (January 8, 2025)

[7] “Hokkaido University Develops Cerium Oxide Thermal Switches”, Asia Education Review (January 3, 2025)

[8] “Japanese Scientists Innovate Thermal Switches with Sustainable New Material”, SLSV Sustainability Solutions Network (January 2, 2025)

[9] “Japanese scientists use novel material to make thermal switches efficient, sustainable”, Interesting Engineering (January 1, 2025)

[10] “Cerium Oxide Switches Boost Heat Management”, Mirage (January 2, 2025)

[11] “Cerium Oxide Switches Transform Heat Management”, Mirage (January 2, 2025)

[12] “Transforming Thermal Control: Breakthrough Cerium Oxide Thermal Switches Set New Standards in Heat Management”, Scienmag (January 1, 2025)

[13] “Transforming Thermal Control: Breakthrough Cerium Oxide Thermal Switches Set New Standards in Heat Management”, Bioengineer (January 1, 2025)

[14] “Sustainable and Efficient Thermal Switching with Cerium Oxide Thin Films”, AZO materials (January 2, 2025)

[15] “Durable, Efficient, Sustainable: The Rise of Cerium Oxide Thermal Switches”,  Innovations Report (January 2, 2025)

[16] “Langlebig, Effizient, Nachhaltig: Der Aufstieg von Ceriumoxid-Thermoschaltern”, Innovations Report (January 2, 2025)

[17] “High-performance cerium oxide thermal switches improve heat flow control”,  Tech Xplore (January 2, 2025)

[18] “Advancements In Cerium Oxide Thermal Switches”, Electronics For You (January 3, 2025)

[19] “Les switches thermiques au cérium établissent de nouveaux records de performance”, Enerzine (January 5, 2025)

[20] “Revolutionizing Heat Management with High-Performance Cerium Oxide Thermal Switches”, Asia Research News (January 1, 2025)

[21] “Japanese Scientists Innovate Thermal Switches with Sustainable New Material”, Indian Defense Review (January 1, 2025)

[22] “Game-Changing Thermal Switches Boost Energy Efficiency”, SciTechDaily (January 2, 2025)

[23] “Revolutionary Thermal Switches: The Future of Energy Efficiency! Is Your Energy Going to Waste?”, Naseba (January 1, 2025)

[24] “High-performance cerium oxide thermal switches improve heat flow control”,  GROUND News (January 3, 2025)

[25] “Revolutionary Cerium Oxide Thermal Switches Pave the Way for Sustainable Energy Efficiency”, Innovation Laboratories (January 3, 2025)

[26] “Japanese Researchers Introduce Thermal Switches Using Eco-Friendly Cerium Oxide”, Industry Tap (January 6, 2025)

[27] “北大、全固体熱スイッチの切り換え幅2倍　酸化セリウムで熱伝導性増減”, 日刊工業新聞 (January 13, 2025)

[28] “熱ディスプレー実現へ…北大、全固体熱スイッチの切り換え幅2倍”, ニュースイッチ（日刊工業新聞）(January 14, 2025)

[29] “熱ディスプレー実現へ…北大、全固体熱スイッチの切り換え幅2倍”, Yahoo! JAPANニュース (January 14, 2025)

[30] “熱ディスプレー実現へ…北大、全固体熱スイッチの切り換え幅2倍”, gooニュース (January 14, 2025)

[31] “熱ディスプレー実現へ…北大、全固体熱スイッチの切り換え幅2倍”, dmenuニュース (January 14, 2025)

[32] “ありふれた材料で「高性能熱スイッチ」を開発　熱制御デバイスの実用化に弾み”, EE Times Japan (January 15, 2025)

[33] “北大など、市販材料で高性能熱スイッチ　希少金属不要”, NIKKEI Tech Foresight (January 21, 2025)

[34] “北海道大学の研究、熱スイッチ技術の革新で未来の製造業を照らす”, newji 製造業トピック (January 22, 2025)

[35] “ありふれた酸化セリウムで, 熱流を電気でオン／オフする, 「熱スイッチ」を実現”, セラミックス (トピックス欄) 60 [5], 376 (2025).

[1] “8K有機EL TV画面を駆動可能 高電子移動度の酸化物TFT”, EE Times Japan (2024.08.09)

[2] “北大ら，安定性の高い酸化物薄膜トランジスタを実現”, オプトロニクスオンライン (2024.08.08)

[3] “実用レベルの酸化物薄膜トランジスタを発表――超大型8K有機ELテレビ開発を後押し　北海道大学と高知工科大学”, Fabcross for エンジニア (2024.08.08)

[4] “性能が従来比10倍の酸化物薄膜トランジスタ～次世代の超大型有機ELテレビに～”, アドコム・メディア (2024.08.07)

[5] “北大、TFTの電子移動度を10倍に向上　8K有機ディスプレー向け”, 日刊工業新聞 電子版 (2024.08.14)

[6] “TFTの電子移動度10倍に　北大、8K有機ELディスプレー向け”, 日刊工業新聞 21面 (2024.08.14)

[7] “北大、従来⽐10倍の性能を⽰す酸化物薄膜トランジスタを実現”, 半導体Times (2024.08.07)

[8] “「薄膜トランジスタ」電子移動度10倍に、北大などが成功した意義”, Yahoo!ニュース (2024.08.18)

[9] “「薄膜トランジスタ」電子移動度10倍に、北大などが成功した意義”, 日刊工業新聞 ニュースイッチ (2024.08.18)

[10] “8K有機EL TV画面を駆動可能　高電子移動度の酸化物TFT”, EE Times Japan (2024.08.09)

[11] “「薄膜トランジスタ」電子移動度10倍に、北大などが成功した意義”, Gooニュース (2024.08.18)

[12] “北大と高知工科大が従来比10倍の性能の実用レベルのTFT　次世代超大型8K有機ELテレビ開発を加速”, 電波新聞 (2024.08.23)

[13] ”北大など、電子移動度が10倍の酸化物TFT　大型OLEDに”, NIKKEI Tech Foresight (2024.08.28)

[14] “Development of oxide thin-film transistors (TFTs) with ten times higher performance than current TFTs — Stability improvement while maintaining high electron mobility”, Science Japan (JST) (2024.10.29)

[15] “北海道大学和高知工科大学开发出性能比以往高10倍的氧化物薄膜晶体管，为新一代超大型有机EL电视开辟道路”, 客観日本 (2024.10.03)

[1] “全固体熱トランジスタの制御幅3.5倍…北⼤、廃熱の高⾼度利用⽤提案”, 日刊工業新聞（2024.07.04）

[2] “全固体熱トランジスタの制御幅3.5倍…北⼤、廃熱の高⾼度利用⽤提案”, ニュースイッチ by 日刊工業新聞 https://newswitch.jp/p/42142 (2024.07.04)

[3] “全固体熱トランジスタの制御幅3.5倍…北⼤、廃熱の高⾼度利用⽤提案”, 日刊工業新聞電子版 https://www.nikkan.co.jp/articles/view/717092 (2024.07.04)

[4] “全固体熱トランジスタの制御幅3.5倍…北大、廃熱の高度利用提案”, Yahooニュース https://news.yahoo.co.jp/articles/7cca9a40a9fc20f496300c2eff89edabc460dd11 (2024.07.05)

[5] “北海道大学ら、熱トランジスタの高性能化に成功”, EE Times Japan https://eetimes.itmedia.co.jp/ee/articles/2407/05/news074.html (2024.07.05)

[6] “北大など、熱伝導率制御幅を従来比1.5倍にした「熱トランジスタ」を開発”, マイナビニュース https://news.mynavi.jp/techplus/article/20240703-2978616/ (2024.07.03)

[7] “全固体熱トランジスタの制御幅3.5倍…北大、廃熱の高度利用提案”, gooニュース https://news.goo.ne.jp/article/newswitch/business/newswitch-42142.html (2024.07.05)

[8] “北大など、熱伝導率制御幅を従来比1.5倍にした「熱トランジスタ」を開発”, BIGLOBEニュース https://news.biglobe.ne.jp/it/0703/mnn_240703_9276501371.html  (2024.07.03)

[9] “北大など、熱伝導率制御幅を従来比1.5倍にした「熱トランジスタ」を開発”, exciteニュース https://www.excite.co.jp/news/article/Cobs_2785030/image/1/ (2024.07.05)

[10] “北大など、熱伝導率制御幅を従来比1.5倍にした「熱トランジスタ」を開発”, マピオン https://www.mapion.co.jp/news/column/cobs2785030-1/(2024.07.03)

[11] “全固体熱トランジスタの制御幅3.5倍…北大、廃熱の高度利用提案”, dmenuニュースhttps://topics.smt.docomo.ne.jp/article/newswitch/business/newswitch-42142(2024.07.05)

[12] “北大など、熱伝導率制御幅を従来比1.5倍にした「熱トランジスタ」を開発”, Rakuten Infoseek News https://news.infoseek.co.jp/photo/mynavi_2785030/ (2024.07.05)

[13] “北大など、高性能な全固体熱トランジスタ　廃熱利用に”, NIKKEI Tech Foresight  https://www.nikkei.com/prime/tech-foresight/article/DGXZQOUC1219J0S4A710C2000000 (2024.07.17)

[14] “熱の伝わりやすさを制御”, 日本経済新聞 (2024.7.30)

[15] “熱の伝わりやすさを制御、廃熱利用目指す　北大など”, 日本経済新聞オンライン (2024.07.30)

[16]  “平和な用途に”, 日刊工業新聞 (2024.07.08)

[1] “高性能熱電材料「Ba1/3CoO2」の単結晶化に成功――サファイア基板上から単結晶膜を剥離　北海道大学ら”, fabcrossエンジニア, 2023.10.24

[2] “熱電変換材料としての実用化に一歩　北大などの研究Gが実用的な発電材料の単結晶化に成功”, 文教速報デジタル版, 2023.10.25

[1] “北大，全固体電気化学熱トランジスタを開発”, Optronics Online, 2023.2.22

[2] “北大、熱伝導率を電気スイッチで切り替え　全固体熱トランジスタ開発”, 日刊工業新聞（電子版）, 2023.2.24

[3] “熱伝導率を制御する全固体電気化学熱トランジスタを作製　北海道大学”, fabcross for エンジニア, 2023.2.24

[4] “北大、実用化可能な全固体電気化学熱トランジスタの作製に成功”, マイナビニュース, 2023.2.24

[5] “北大、実用化可能な全固体電気化学熱トランジスタの作製に成功”, Mapionニュース, 2023.2.24

[6] “熱伝導率を電気スイッチで切り替え、北大が開発「全固体熱トランジスタ」がスゴい”, ニュースイッチ, 2023.2.27

[7] “熱伝導率を電気スイッチで切り替え、北大が開発「全固体熱トランジスタ」がスゴい”, Yahoo!ニュース, 2023.2.27

[8] “熱伝導率を電気スイッチで切り替え、北大が開発「全固体熱トランジスタ」がスゴい”, NEWSPICKS, 2023.2.27

[9] “熱伝導率を電気スイッチで切り替え、北大が開発「全固体熱トランジスタ」がスゴい”, gooニュース, 2023.2.27

[10] “熱伝導率を電気スイッチで切り替え、北大が開発「全固体熱トランジスタ」がスゴい”, dmenuニュース, 2023.2.27

[11] “Solid-state thermal transistor demonstrated”, Science Daily, 2023.2.22

[12] “Solid-state thermal transistor demonstrated”, Nano Werk, 2023.2.22

[13] “Solid-state thermal transistor demonstrated”, EurekAlert!, 2023.2.22

[14] “Solid-state thermal transistor demonstrated”, Bioengineer.org, 2023.2.22

[15] “Scientists develop solid-state electrochemical thermal transistor”, Technewsboy, 2023.2.22

[16] “Scientists Develop Solid-State Electrochemical Thermal Transistor”, NEWS AZI, 2023.2.22

[17] “Scientists develop solid-state electrochemical thermal transistor”, Today Headline, 2023.2.22

[18] “Solid-state thermal transistor demonstrated”, NewsBeezer, 2023.2.22

[19] “Solid-state thermal transistor demonstrated”, VERVE TIMES, 2023.2.22

[20] “Scientists make solid-state thermal transistor”, Compound Semiconductor Magazine, 2023.2.22

[21] “Solid-State Thermal Transistor: The Future of Thermal Management Technology”, AZO MATERIALS, 2023.2.22

[22] “Solid-State Thermal Transistor Demonstrated”, Lab Manager, 2023.2.22

[23] “Solid-State Thermal Transistor Demonstrated”, RealClear Science, 2023.2.22

[24] “Developed Solid State Electrochemical Thermal Transistor”, Optimum Physics, 2023.2.22

[25] “Solid-state thermal transistor demonstrated”, One Eye News, 2023.2.22

[26] “Solid-state thermal transistor demonstrated”, KNOWLEDIA, 2023.2.22

[27] “Solid-state thermal transistor demonstrated”, AlphaGalileo, 2023.2.24

[28] “Solid-State Electrochemical Thermal Transistor Without Using Liquid”, Semiconductor Engineering, 2023.2.24

[29] “Solid-state thermal transistor demonstrated”, Plato Data Intelligence, 2023.2.24

[30] “Scientists develop solid-state electrochemical thermal transistor”, NEWS BREAK, 2023.2.23

[31] “Scientists develop solid-state thermoelectric transistors”, News 7F, 2022.2.23

[32] “Hokkaido University: Solid-State Thermal Transistor Demonstrated”, Targeted News Service, 2023.2.23

[33] “Scientists develop solid-state electrochemical thermal transistor”, Newsbit, 2023.2.22

[34] “Solid-State Thermal Transistor Demonstrated”, Eurasia Review, 2023.2.22

[35] “Scientists develop solid-state electrochemical thermal transistor”, Tech Xplore, 2023.2.22

[36] “Solid-state thermal transistor demonstrated”, asiaresearchnews, 2023.2.21

[37] “Solid-state thermal transistor demonstrated”, Mirage News, 2023.2.21

[38] “Scientists develop solid-state electrochemical thermal transistor”, Techstreet Now, 2023.2.22

[39] “Tranzystor termiczny, jakiego jeszcze nie było. Wykorzystuje się go częściej, niż myślisz”, Chip.pl, 2023.2.22

[40] “Transistor thermique à semi-conducteurs démontré | Alerte Eurek !”, Posts US News, 2023.2.22

[41] “Criado primeiro transstor trmico de estado slido”, Vision Art News, 2023.2.28

[42] “浅析固态热晶体管开启热管理技术新时代”, 电子发烧友, 2023.2.25

[43] “展示了固态热晶体管”, 0XZX, 2023.2.22

[44] “首個固態電化學熱晶體管問世”, 科技日報 2023.2.22

[45] “経営ひと言／北海道大学・太田裕道教授「熱を曲げたい」”, 日刊工業新聞（オンライン）, 2023.3.1

[46] “北大、実用化可能な全固体電気化学熱トランジスタの作製に成功”, Rakuten Infoseek News, 2023.2.24

[47] “北海道大学などが全固体電気化学熱トランジスタ、熱伝導率を電気制御”, 日経クロステック, 2023.3.20

[48] “Solid-State Electrochemical Thermal Transistors – A New Transistor Class with Great Potential”, NETZSCH (blog), 2023.4.13

[1] “北大、透明酸化物半導体「ITZO」の高電子移動度の起源を解明”, マイナビニュース, 2022.10.11

[2] “北大，高性能透明酸化物の高電子移動度の起源解明”, オプトロニクスオンライン, 2022.10.11

[3] “北大、透明酸化物半導体「ITZO」の高電子移動度の起源を解明”, マピオン, 2022.10.11

[4] “北大、透明酸化物半導体「ITZO」の高電子移動度の起源を解明”, BIGLOBE, 2022.10.11

[5] “北大、透明酸化物半導体「ITZO」の高電子移動度の起源を解明”, NEWS PICKS, 2022.10.11

[6] “北大、透明酸化物半導体「ITZO」の高電子移動度の起源を解明”, Rakuten Infoseek News, 2022.10.11

[7] “Clarification of material properties for clearly better displays”, Mirage, 2022.10.14

[8] “Clarification of material properties for clearly better displays”, AlphaGalileo, 2022.10.14

[9] “Clarification of material properties for clearly better displays”, nanowerk, 2022.10.14

[10] “Analyzing a new material that promises faster, higher resolution displays”, Phys.org, 2022.10.14

[11] “Clarification of material properties for clearly better displays”, ScienceDaily, 2022.10.14

[12] “Clarification of material properties for clearly better displays”, Day to news.com, 2022.10.15

[13] “Clarification Of Material Properties For Clearly Better Displays”, VerveTimes, 2022.10.15

[14] “Clarification Of Material Properties For Clearly Better Displays”, SWIFT TELECAST, 2022.10.15

[15] “Analyzing A New Material That Promises Faster, Higher Resolution Displays”, SWIFT TELECAST, 2022.10.15

[16] “Clarification of material properties for clearly better displays”, Asia Research News, 2022.10.15

[17] “Clarification of fabric properties for clearly higher shows”, NM PRO News Magazine, 2022.10.16

[18] “Clarify material properties for better presentations with clarity”, precaliga, 2022.10.15

[19] “Clarification of material properties for dramatically better visualizations”, pandora-uk.org, 2022.10.15

[20] “重磅！ITZO电子迁移率是IGZO的5倍以上”, Wit OLED, 2022.10.15

[21] “New Material Offers Faster and Higher Resolution Displays”, AZO Materials, 2022.10.17

[1] 日刊工業新聞, “酸化物系熱電変換材、600℃で安定動作　北大・産総研が開発” (2022.07.13)

[2] “Efficient, Stable, and Eco-Friendly Thermoelectric Material Discovered”, Lab Manager

[3] “New Eco-Friendly Thermoelectric Material Can Resist Temperatures of 600 °C”, AZO Materials

[4] “Scientists discover reliable, stable, and environmentally beneficial thermoelectric material”, ThePrint

[5] “Efficient, stable, and eco-friendly thermoelectric material discovered”, ScienceDaily

[6] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Bioengineer.org

[7] “Scientists discover reliable, stable, and environmentally beneficial thermoelectric material”, ANI

[8] “Researchers Synthesize Barium Cobalt Oxide Thermoelectric Converter, Potential Source of Energy Conservation”, The Science Times

[9] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Swift Telecast

[10] “Science News | Scientists Discover Reliable, Stable, and Environmentally Beneficial Thermoelectric Material”, Latest LY

[11] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Eurek Alert!

[12] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Scienmag

[13] “Efficient, Stable, And Eco-Friendly Thermoelectric Material Discovered — ScienceDaily”, Verve Times

[14] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Yark Story

[15] “Efficient, stable, and eco-friendly thermoelectric material discovered — ScienceDaily”, News Leaflets

[16] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Flipboard

[17] “Efficient, stable, and eco-friendly thermoelectric material discovered”, One News Page

[18] “Efficient, stable, and eco-friendly thermoelectric material discovered”, The blog 101

[19] “Efficient, stable and environmentally friendly thermoelectric material discovered”, Short Saveall

[20] “Efficient, Stable, And Eco-Friendly Thermoelectric Material Discovered”, Whatsnew2day

[21] “Environment friendly, secure, and eco-friendly thermoelectric material discovered”, Zipponews

[22] “New material revolutionizes the reuse of heat to generate electricity”, Tecno Break

[23] “Environment friendly, steady, and eco-friendly thermoelectric materials found”, Orlando News Station

[24] “Researchers Discover A Sustainable Thermoelectric Material”, electronics foru.com

[25] “Environment friendly, secure, and eco-friendly thermoelectric materials found”, TechSardar

[26] “Efficient, stable and environmentally friendly thermoelectric material discovered”, TrainersAdda

[27] “Environment friendly, secure, and eco-friendly thermoelectric materials found”, One Day Deals

[28] “EFFICIENT, STABLE, AND ECO-FRIENDLY THERMOELECTRIC MATERIAL DISCOVERED”, ITdigitalSeva

[29] “Efficient, stable and environmentally friendly thermoelectric material discovered”, Somjournal

[30] “Efficient, stable and environmentally friendly thermoelectric material discovered”, Trendradars

[31] “Efficient, stable, and eco-friendly thermoelectric material discovered”, MondayDaily

[32] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Happy Euro Anime

[33] “Scientists discover reliable, stable, and environmentally beneficial thermoelectric material”, NewKerala.com

[34] “Environment friendly, secure, and eco-friendly thermoelectric materials found”, Frayd US

[35] “Environment friendly, secure, and eco-friendly thermoelectric materials discovered”, The movies

[36] “高温・空気中で安定した性能を示す実用的な熱電変換材料を発見～再現性良く実用レベルの高性能を示す酸化物熱電材料～”, Tii技術情報

[37] “高温／空気中で安定した性能を示す熱電変換材料を発見――実用的な酸化物熱電材料　北大と産総研”, fabcross for エンジニア

[38] “Efficient, stable, and eco-friendly thermoelectric material discovered”, Phys.org

[39] “Technology Focus: Scientists discovered an eco-friendly thermoelectric material which is more efficient and stable to conduce the high heat”, AanWorld

[40] “Efficient, stable, and eco-friendly thermoelectric material discovered”, The Shastra

[41] “Efficient, stable, and eco-friendly thermoelectric material discovered”, NewsBreak

[42] “Scientists discover reliable, stable, and environmentally beneficial thermoelectric material”, BigNewsNetwork.com

[43] “发现高效、稳定、环保的热电材料”, 明日科学网

[44] “कुशल, स्थिर और पर्यावरण के अनुकूल थर्मोइलेक्ट्रिक सामग्री की खोज की गई”, zaroorat

[45] “Effizientes, stabiles und umweltfreundliches thermoelektrisches Werkstoff entdeckt”, Bunte Zeitung

[46] “Nutzlose Abwärme wird wertvoller Strom”, pressetext

[47] “北海道大学太田裕道教授团队《ACS AMI》：Ba1/3CoO2 — 一种高效、稳定、环境友好的热电材料”, Chem-MSE

[48] “熱を電気に変換する新材料、高温でも安定動作　北大など”, 日本経済新聞（電子版）(2022.7.22)

[49] “高温・空気中で安定した性能を示す実用的な熱電変換材料を発見 －再現性良く実用レベルの高性能を示す酸化物熱電材料－(産総研)”, CEMD.JP（2022年7月27日）

[50] “産総研など　高温・空気中で実用レベルの熱電変換材料”, 日刊ケミカルニュース (2022年7月25日)

[51] “熱電変換、高温でも安定動作”, 日経産業新聞 (2022年8月1日)

[52] “Thermoelectric devices without rare earths”, Institute of Materials, Minerals & Mining, 4 October 2022 by Nick Warburton