Synopsis of Social media discussions
The discussions highlight an array of opinions and sentiments regarding the research, with phrases such as 'Awesome and terrifying at the same time' and 'Future of AI?' demonstrating excitement but also apprehension about the potential implications of these technologies. Users also compare the speed of these programmable resistors to biological processes, saying they are '10,000 times faster' and celebrating the breakthrough's potential to transform AI hardware. The tone often blends enthusiasm and concern, reflecting a complex sentiment towards the fusion of neuroscience and artificial intelligence.
Agreement
Moderate agreementA majority of discussions reflect a positive view of the publication, indicating moderate agreement with its findings.
Interest
High level of interestPosts indicate high curiosity and relevance surrounding the advancements in programmable resistors and their implications for deep learning.
Engagement
Moderate level of engagementWhile many users show some engagement, most interactions range from sharing links to brief insights, suggesting a moderate depth of discussion.
Impact
High level of impactThere is a strong belief that this research has significant potential to influence future technologies in AI, with many expressing awe at the implications.
Social Mentions
YouTube
2 Videos
91 Posts
Blogs
11 Articles
News
60 Articles
Metrics
Video Views
500
Total Likes
282
Extended Reach
9,440,158
Social Features
164
Timeline: Posts about article
Top Social Media Posts
Posts referencing the article
Advancements in Protonic Resistors for AI Computation
MIT researchers have made strides in developing nanoscale ionic programmable resistors that potentially offer faster operation than biological neurons. These silicon-compatible devices enable rapid control of proton movement at room temperature, promising improvements in AI computation efficiency.
Advancements in mRNA Vaccines and Nanosecond Protonic Resistors
This week sees a lot of medical news, including developments in mRNA vaccines and new antibiotic approaches. Significantly, new nanoscale ionic programmable resistors are created for faster analog deep learning, demonstrating efficient modulation of conductance.
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Onen, Murat; Emond, Nicolas; Wang, Baoming; Zhang, Difei; Ross, Frances M.; Li, Ju; Yildiz, Bilge; del Alamo, Jesús A. (29 July 2022). "Nanosecond protonic programmable resistors for analog deep learning" (PDF). Science. 377 (6605): 539–543. doi:10.1126/science.abp8064.
view full postSeptember 19, 2024
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Memia
@memialabs (Twitter)Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/Hzzg9F1bvY
view full postAugust 3, 2024
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Rob Cain
@cain_rob (Twitter)@futurism the actual 2022 paper here: https://t.co/vQyhVu2fo7
view full postAugust 3, 2024
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Mustafa Işık
@ISIK_MUSTAFA (Twitter)İyonik snaps, analog #derinöğrenme, Analog #DeepLearning: Nanosecond #protonic programmable resistors for analog deep learning https://t.co/DhQhQj6qXZ
view full postAugust 3, 2024
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Dai Miyamoto
@DaiMiyamoto1109 (Twitter)Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/sDEYRWdjfZ
view full postMay 17, 2024
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しばば
@bashibaba2 (Twitter)なんか、アナログ・ディープラーニングなるものがあるらしい、!、!、! Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/jX3etvnuBC
view full postFebruary 7, 2024
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aaron - /acc of some sort
@stevenson408 (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/sFtifepqxa
view full postNovember 16, 2023
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James Torre
@jpt401 (Twitter)RT @punishdtriangls: Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/HI1DxK66Dj
view full postJuly 12, 2023
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∤∤∤∤∤
@punishdtriangls (Twitter)Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/HI1DxK66Dj
view full postJuly 12, 2023
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Teortaxes▶️ (DeepSeek 推特
@teortaxesTex (Twitter)@hamandcheese @PaleoAutist It's so handwavy as to be meaningless, but if we're a little charitable, something similar in effect could happen with substrate shifts, and earlier. E.g. moving from transistors to https://t.co/X9eNF6oJOh personally I think a person's brain is equal to ~2,5 H100s tho
view full postMay 28, 2023
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Science Society
@ScienceSociety8 (Twitter)https://t.co/W2oZXzqTXw with Murat Onen https://t.co/iPJroP1f8e
view full postSeptember 16, 2022
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Catarina Cunha
@clemoscatarina (Twitter)https://t.co/rthQ0LuKPb Speaking with Murat Onen https://t.co/R51fOCPOhP
view full postSeptember 16, 2022
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Catarina Cunha
@clemoscatarina (Twitter)@ScienceSociety8 @wonderactionv @SerenaM17009865 @frankschoschka @Clubhouse https://t.co/rthQ0LviEJ
view full postSeptember 16, 2022
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Gianlink
@GianLink (Twitter)@neurosock @RockinRedSF @Not_Elm0 @omarnomad @RyanTanaka3 @seeingwithsound @AntonioLozanoDL By @MIT https://t.co/7xwLf2JghL
view full postSeptember 13, 2022
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Kuba
@kubanetics (Twitter)RT @moreisdifferent: Awesome and terrifying at the same time: "Nanosecond protonic programmable resistors for analog deep learning" http…
view full postAugust 18, 2022
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M1Κ4_3L
@M1K4_3L (Twitter)Nanosecond protonic programmable resistors for analog deep learning Future of #AI? https://t.co/fDIGsttu6j
view full postAugust 17, 2022
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Cody Fenwick
@codytfenwick (Twitter)RT @moreisdifferent: Awesome and terrifying at the same time: "Nanosecond protonic programmable resistors for analog deep learning" http…
view full postAugust 17, 2022
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Dan Elton
@moreisdifferent (Twitter)Awesome and terrifying at the same time: "Nanosecond protonic programmable resistors for analog deep learning" https://t.co/tLb6cRkJhH It's basically proven at this point that hardware breakthroughs are guaranteed to accelerate AI progress..
view full postAugust 17, 2022
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Brent Segal
@bsegal73 (Twitter)Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/Eq81R1nIcw
view full postAugust 11, 2022
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SG
@719AbcXyz (Twitter)https://t.co/oeNY3kt5ln
view full postAugust 11, 2022
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Aliasghar Honarmand | علی اصغر هنرمند
@aahonarmand (Twitter)منابع و اطلاعات بیشتر: https://t.co/uxzN3oRuEX https://t.co/1RCIzTIB0O ضمنا اگر میخواهید بدانید چرا مدل آنالوگ نسبت به دیجیتال بهینهتر عمل میکند این ویدیو را ببینید: ۶/۶ https://t.co/MLhhe6oPBs
view full postAugust 10, 2022
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ed
@edimoldovan (Twitter)10,000 times faster speed of thought compared to animals—The speed of biological information processing in neurons and synapses is limited by the aqueous medium through which weak action potentials of about 100 millivolts propagate…https://t.co/p35RtTx4A9 https://t.co/bwHLnQDzrg
view full postAugust 10, 2022
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金森重樹@ダイエットonlineサロン
@ShigekiKanamori (Twitter)人工シナプス 生物学的なものの1/1000のナノスケールで金属酸化物半導体互換材料で作られる 速度は生物学的シナプスの10000倍高速 天神=雷神 通りゃんせ 通りゃんせ ここはどこの 細道じゃ 天神さまの細道じゃ 勿論注射針は余裕で通ります PEGでBBB突破だね https://t.co/7fbSKo2RGz
view full postAugust 8, 2022
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DavidSan Riveros
@20usdave (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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henrry
@henrry46273498 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Dorkicles of Oregon
@RevelansMentis (Twitter)This is a pretty cool bit of neuromorphic hardware, trying to replicate the chemical process of neurons but smaller and faster. https://t.co/AGz6BJeahh
view full postAugust 8, 2022
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Angela Barnett
@Angela_Biochem (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Martin Henderson
@Hazykush4200 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Marcella
@Mella12597571 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Task Force On American Innovation
@InnovTaskForce (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Wiranda Technology
@wiranda_tech (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Jason Mullikin
@jason_mullikin (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Terry Hébert
@THebertMcGill (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Pepe
@Pepe_natbio (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Leo
@Leo25205678 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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sa
@asvas (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Organoid Intelligence
@Wallnut81846648 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Simon Bulgacs
@SPBASS1 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Igor Pener
@igorpener (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Jordan R. Hansford
@auscancadoc (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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W.E.P.S.Y.
@_WEPSY_ (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Siyawaka
@siyawaka_handz (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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خرمگس
@no31415 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Stephan Roche
@StephanSroche (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Paul Reece Ham⭐️⭐️⭐️⭐️⭐️⭐️
@PaulReeceHam (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Joh
@JumaHamisi123 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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peter lv
@peterlvwu (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Nature Nanotechnology
@NatureNano (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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mstdn.social/@KayNelson
@Kay4BlueTexas (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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RonenJacovi
@RJacovi (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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valentinavanovac RE9
@valentinavanov3 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Dieter
@Wuhle (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Libert Nicolas
@dr_Libert_N (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Dr.med. Bernd Kynast
@DrKynast (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Victor Flores
@vfloresb21 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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sciencenews
@Scieducation1 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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syawal™ シ
@syawal (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Michal Pisa ⚡
@MichalPisa_ (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Eliyahu
@RosenthalEllery (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Thomas N. Sato
@island1005tns (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Steppenwolf
@ghotar (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Toughbutfair
@Toughbutfair2 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Porecomesis
@Porecomesis (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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Science Magazine
@ScienceMagazine (Twitter)A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 times smaller—and 10,000 times faster—than biological synapses, researchers report in Science. Learn more: https://t.co/22bU1rGxkG https://t.co/RANAhPGaNj
view full postAugust 8, 2022
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Vitor Santos
@jornalistavitor (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 8, 2022
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ぬん。
@amasawa_seiji (Twitter)/Nanosecond protonic programmable resistors for analog deep learning | Science https://t.co/U8y4ABZq9F
view full postAugust 7, 2022
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Ryan Conklin, MD
@ryanconklin14 (Twitter)@elonmusk https://t.co/ruYBwZDuQV
view full postAugust 5, 2022
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Mauro Loi
@isteddos (Twitter)Artificial brain incoming?
view full postAugust 4, 2022
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Max Pinheiro Jr
@max_jr (Twitter)#DeepLearning https://t.co/Ys4P96kX6V
view full postAugust 4, 2022
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Houcemeddine Turki
@Csisc1994 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Stefan W
@StefanW54906562 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Singularity Sunrise
@SingularitySun (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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MuktiM
@MuktiM10 (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Kaiser Matin
@kaisermatin (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Chandrakanth R
@ChanDunMyselF (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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RedFrog
@_RedFrog (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Fonseca
@RZbycho (Twitter)RT @ScienceMagazine: A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 time…
view full postAugust 3, 2022
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Science Magazine
@ScienceMagazine (Twitter)A new approach to nanoscale ionic programmable resistor design enables artificial “synapses” that are up to 1,000 times smaller—and 10,000 times faster—than biological synapses, researchers report in Science. Learn more: https://t.co/22bU1rGxkG https://t.co/b32y0fRSYw
view full postAugust 3, 2022
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Walter Ikamba
@WWleros (Twitter)https://t.co/Igz2GSZ66A
view full postAugust 3, 2022
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Salil
@salilkallianpur (Twitter)Scientists at MIT claim to have successfully created analog synapses that are one million times faster than those in our human brains. https://t.co/TltuaNN8Wd
view full postAugust 2, 2022
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Theta Global
@ThetaGlobal1 (Twitter)https://t.co/t9GZAeQs3U
view full postAugust 1, 2022
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Daniel Marchel
@DanielMarchel_ (Twitter)#Nanosecond #protonic #programmable resistors for analog #deep #learning. #ai #neuromorphic https://t.co/RfQd1kSg88
view full postAugust 1, 2022
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DO ENGINEERING
@doengineering (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/L55Uo453YV
view full postAugust 1, 2022
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Igor Alvarado
@ialvarad (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/CjCunPrieg
view full postAugust 1, 2022
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Chip Kent
@chip_kent (Twitter)https://t.co/GCQEq2oMVB
view full postJuly 31, 2022
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Aderlieste
@Mynameistekkno (Twitter)RT @DNA_Nanotech: Nanosecond protonic programmable resistors for analog deep learning https://t.co/FkzUhM1P4J https://t.co/dUlr9zR786
view full postJuly 30, 2022
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Yoel Ohayon
@DNA_Nanotech (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/FkzUhM1P4J https://t.co/dUlr9zR786
view full postJuly 30, 2022
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Carlos R. Ferreira
@carlosrof (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/kHmFWAktHX
view full postJuly 29, 2022
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Yastrebov Oleg
@YastrebovOleg (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/WgQs74gWSt
view full postJuly 29, 2022
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Vrancisca ZEITELHUBA
@VranciscaZ (Twitter)Nanosecond protonic programmable resistors for analog deep learning https://t.co/MNJ9YGLvx0
view full postJuly 29, 2022
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サイエンスあれこれ
@sarekore (Twitter)ワークを迅速にトレーニングできるアナログ深層学習システムを可能にします。このデバイスの動作メカニズムは、最小のイオンであるプロトンを電気化学的に絶縁性の酸化物(二酸化ケイ素)に挿入して、その電子伝導性を変化させます。Science誌https://t.co/CVWXUMO30X
view full postJuly 29, 2022
Abstract Synopsis
- Nanoscale ionic programmable resistors are significantly smaller than biological cells and have potential for faster operation compared to neurons, although their exact speed is still undetermined.
- The study focused on creating silicon-compatible protonic programmable resistors that work effectively under extreme electric fields, enabling rapid control of proton movement in nanoseconds at room temperature.
- These devices demonstrated efficient and reversible modulation of conductance with a 20-fold dynamic range, suggesting they could outperform biological synapses in terms of space, time, and energy efficiency.
(Light Bringer) + (Black in German)
@CosmicInglewood (Twitter)