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    transistors

    Explore " transistors" with insightful episodes like "Scaling Transistors & Accelerating Backside Power with Intel", "Demystifying VLSI Technology: Exploring Its Future Possibilities", "Demystifying VLSI Technology: Exploring Its Future Possibilities", "Demystifying VLSI Technology: Exploring Its Future Possibilities" and "Demystifying VLSI Technology: Exploring Its Future Possibilities" from podcasts like ""Embedded Insiders", "UC San Diego (Video)", "UC San Diego (Audio)", "Computer Science Channel (Video)" and "Computer Science Channel (Audio)"" and more!

    Episodes (19)

    Scaling Transistors & Accelerating Backside Power with Intel

    Scaling Transistors & Accelerating Backside Power with Intel

    On this episode of Embedded Insiders, Paul Fischer, senior principal engineer in the Components Research Department at Intel, discusses the trends and challenges surrounding transistor scaling and backside power. So, ICYMI, these were some of the the top technical research breakthroughs Intel presented this year at IEDM. 

    Then, Rich and Vin are joined by Lattice Semiconductor’s Senior Director, Gordon Hands, to talk FPGAs. Specifically, today’s landscape surrounding the mid-range market of FPGAs.


    But first, Rich and Ken are spilling their 2024 predictions... stay tuned. 


    For more information, visit embeddedcomputing.com

    Demystifying VLSI Technology: Exploring Its Future Possibilities

    Demystifying VLSI Technology: Exploring Its Future Possibilities
    Very large-scale integration technology (VLSI) is the magic that helps us cram a huge amount of electronic components onto a tiny microchip, enabling the creation of smaller and more powerful electronic devices that we use in our daily lives. VLSI technology is a continually evolving field, and new advancements and innovations continue to be made by researchers and engineers worldwide. Carver Mead, the 2022 Kyoto Prize Laureate in Advanced Technology is widely regarded as one of the pioneers of modern microelectronics having made significant contributions to the field of VLSI technology and semiconductor devices. Mead is joined by John Smee and Sanjay Jha for a roundtable discussion hosted by UC San Diego professor Andrew Kahng to demystify the technology and explore future possibilities for VLSI. Series: "Computer Science Channel" [Science] [Show ID: 38823]

    Demystifying VLSI Technology: Exploring Its Future Possibilities

    Demystifying VLSI Technology: Exploring Its Future Possibilities
    Very large-scale integration technology (VLSI) is the magic that helps us cram a huge amount of electronic components onto a tiny microchip, enabling the creation of smaller and more powerful electronic devices that we use in our daily lives. VLSI technology is a continually evolving field, and new advancements and innovations continue to be made by researchers and engineers worldwide. Carver Mead, the 2022 Kyoto Prize Laureate in Advanced Technology is widely regarded as one of the pioneers of modern microelectronics having made significant contributions to the field of VLSI technology and semiconductor devices. Mead is joined by John Smee and Sanjay Jha for a roundtable discussion hosted by UC San Diego professor Andrew Kahng to demystify the technology and explore future possibilities for VLSI. Series: "Computer Science Channel" [Science] [Show ID: 38823]

    Demystifying VLSI Technology: Exploring Its Future Possibilities

    Demystifying VLSI Technology: Exploring Its Future Possibilities
    Very large-scale integration technology (VLSI) is the magic that helps us cram a huge amount of electronic components onto a tiny microchip, enabling the creation of smaller and more powerful electronic devices that we use in our daily lives. VLSI technology is a continually evolving field, and new advancements and innovations continue to be made by researchers and engineers worldwide. Carver Mead, the 2022 Kyoto Prize Laureate in Advanced Technology is widely regarded as one of the pioneers of modern microelectronics having made significant contributions to the field of VLSI technology and semiconductor devices. Mead is joined by John Smee and Sanjay Jha for a roundtable discussion hosted by UC San Diego professor Andrew Kahng to demystify the technology and explore future possibilities for VLSI. Series: "Computer Science Channel" [Science] [Show ID: 38823]

    Demystifying VLSI Technology: Exploring Its Future Possibilities

    Demystifying VLSI Technology: Exploring Its Future Possibilities
    Very large-scale integration technology (VLSI) is the magic that helps us cram a huge amount of electronic components onto a tiny microchip, enabling the creation of smaller and more powerful electronic devices that we use in our daily lives. VLSI technology is a continually evolving field, and new advancements and innovations continue to be made by researchers and engineers worldwide. Carver Mead, the 2022 Kyoto Prize Laureate in Advanced Technology is widely regarded as one of the pioneers of modern microelectronics having made significant contributions to the field of VLSI technology and semiconductor devices. Mead is joined by John Smee and Sanjay Jha for a roundtable discussion hosted by UC San Diego professor Andrew Kahng to demystify the technology and explore future possibilities for VLSI. Series: "Computer Science Channel" [Science] [Show ID: 38823]

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law
    Carver Mead is a pioneer of modern microelectronics. He proposed a new methodology, very large-scale integration (VLSI), that would make it possible for creating millions or billions of transistors on a single integrated circuit (microchip). His research investigated techniques for VLSI, designing and creating high-complexity microchips. This design process has advanced electronic technologies and transformed the lives of most of the people inhabiting our planet. Mead also paved the way to VLSI design automation and facilitating the revolutionary development of today's VLSI-based electronics and industry. For his work and contributions, Mead was awarded the 2022 Kyoto Prize in Advanced Technology. In his talk entitled, "Engineering Concepts Clarify Physical Law" Mead will discuss a simplified theory that might serve as an entry point for further development by generations of young people who feel disenfranchised by the existing establishment. Series: "Computer Science Channel" [Science] [Show ID: 38572]

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law
    Carver Mead is a pioneer of modern microelectronics. He proposed a new methodology, very large-scale integration (VLSI), that would make it possible for creating millions or billions of transistors on a single integrated circuit (microchip). His research investigated techniques for VLSI, designing and creating high-complexity microchips. This design process has advanced electronic technologies and transformed the lives of most of the people inhabiting our planet. Mead also paved the way to VLSI design automation and facilitating the revolutionary development of today's VLSI-based electronics and industry. For his work and contributions, Mead was awarded the 2022 Kyoto Prize in Advanced Technology. In his talk entitled, "Engineering Concepts Clarify Physical Law" Mead will discuss a simplified theory that might serve as an entry point for further development by generations of young people who feel disenfranchised by the existing establishment. Series: "Computer Science Channel" [Science] [Show ID: 38572]

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law
    Carver Mead is a pioneer of modern microelectronics. He proposed a new methodology, very large-scale integration (VLSI), that would make it possible for creating millions or billions of transistors on a single integrated circuit (microchip). His research investigated techniques for VLSI, designing and creating high-complexity microchips. This design process has advanced electronic technologies and transformed the lives of most of the people inhabiting our planet. Mead also paved the way to VLSI design automation and facilitating the revolutionary development of today's VLSI-based electronics and industry. For his work and contributions, Mead was awarded the 2022 Kyoto Prize in Advanced Technology. In his talk entitled, "Engineering Concepts Clarify Physical Law" Mead will discuss a simplified theory that might serve as an entry point for further development by generations of young people who feel disenfranchised by the existing establishment. Series: "Computer Science Channel" [Science] [Show ID: 38572]

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law
    Carver Mead is a pioneer of modern microelectronics. He proposed a new methodology, very large-scale integration (VLSI), that would make it possible for creating millions or billions of transistors on a single integrated circuit (microchip). His research investigated techniques for VLSI, designing and creating high-complexity microchips. This design process has advanced electronic technologies and transformed the lives of most of the people inhabiting our planet. Mead also paved the way to VLSI design automation and facilitating the revolutionary development of today's VLSI-based electronics and industry. For his work and contributions, Mead was awarded the 2022 Kyoto Prize in Advanced Technology. In his talk entitled, "Engineering Concepts Clarify Physical Law" Mead will discuss a simplified theory that might serve as an entry point for further development by generations of young people who feel disenfranchised by the existing establishment. Series: "Computer Science Channel" [Science] [Show ID: 38572]

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law

    Carver Mead - 2022 Kyoto Prize Laureate in Advanced Technology: Engineering Concepts Clarify Physical Law
    Carver Mead is a pioneer of modern microelectronics. He proposed a new methodology, very large-scale integration (VLSI), that would make it possible for creating millions or billions of transistors on a single integrated circuit (microchip). His research investigated techniques for VLSI, designing and creating high-complexity microchips. This design process has advanced electronic technologies and transformed the lives of most of the people inhabiting our planet. Mead also paved the way to VLSI design automation and facilitating the revolutionary development of today's VLSI-based electronics and industry. For his work and contributions, Mead was awarded the 2022 Kyoto Prize in Advanced Technology. In his talk entitled, "Engineering Concepts Clarify Physical Law" Mead will discuss a simplified theory that might serve as an entry point for further development by generations of young people who feel disenfranchised by the existing establishment. Series: "Computer Science Channel" [Science] [Show ID: 38572]

    Sisters Akousmatica - Some electromagnetic activities in lutruwita/Tasmania

    Sisters Akousmatica - Some electromagnetic activities in lutruwita/Tasmania

    Welcome to the Music Tas Podcast. In this episode, we hear from the Sisters Akousmatica. Their expanded radio projects explore radical transmission possibilities through voice, radio receivers and transmitters, amplified mineral samples, re-kindled transistor parts, pulsar, wind, waves, and words. Recently they drove their Broom Broom vehicle of transmission at Junction Festival in various public spaces, where audiences could draw on the car and take control of hyperlocal airwaves. They also have a Borderadio artwork presented at the group exhibition Shaping the Aether at the espace multimedia Gantner in France curated by Pali Meursault.

    The nipaluna/Hobart based radio queens share some recordings concerned with collective electromagnetic practices and ownership of the airwaves located in high magnetic latitude in the southern hemisphere. They interview Dr Warren Hankey, a PhD on globular clusters at the Grote Reber Museum and a member of The Sound Preservation Association of Tasmania team, who shares their knowledge of radio waves lutruwita-Tasmania.  In the conversation, they talk about an impromptu sewage sound, and lament a horde of musical wind creatures.

    In this episode, all sounds were researched, performed, and recorded on the unceded land of the palawa people between 2017 and 2021.

    Questioning the limits of Moore’s law

    Questioning the limits of Moore’s law

    Visit https://thermofisher.com/bctl to register for your free Bringing Chemistry to Life T-shirt and https://www.alfa.com/en/chemistry-podcasts/ to access our episode summary sheet, which contains links to recent publications and additional content recommendations for our guest.

    The unstoppable progress in computational power that we have experienced in the last few decades, and that has changed the world as we know it, is almost entirely due to the relentless efforts of cramming an increasing number of transistors in microprocessors. Moore’s law, predicting a linear increase in microchip transistor density, doubling every two years, has been consistently proven right, but we are now approaching physical limitations as resolution breaking the 5 nm barrier is quickly approaching molecular dimensions. This is why many think Moore’s law is dead and this is why Rudy Wojtecki and the conventions-challenging teams at IBM Almaden Research Center are working on developing new paradigms for the computers of the future.

    Rudy is a polymer chemist by background and a true multidisciplinary scientist at heart. His work on self-assembling polymers and surface chemistry is innovating the way microchips are manufactured, and the way research is done at Almaden is providing a brilliant example of different scientific disciplines working together to accelerate progress.

    We read every email so please share your questions and feedback with us! 

    • Email helloBCTL@thermofisher.com

     

    About Your Host

    Paolo Braiuca grew up in the North-East of Italy and holds a PhD in Pharmaceutical Sciences from nearby esteemed University of Trieste, Italy.  He developed expertise in biocatalysis during his years of post-doctoral research in Italy and the UK, where he co-founded a startup company. With this new venture, Paolo’s career shifted from R&D to business development, taking on roles in commercial, product management, and marketing. He has worked in the specialty chemicals, biotechnology, and pharmaceutical markets in Germany and the UK, where he presently resides.

     

    He is currently the Director of Global Market Development in the Laboratory Chemicals Division  at Thermo Fisher Scientific™ which put him in the host chair of the Bringing Chemistry to Life podcast. A busy father of four, in what little free time he has, you’ll find him inventing electronic devices with the help of his loyal 3D-printer and soldering iron. And if you ask him, he’ll call himself a “maker” at heart. 

    19. Injectable Microchips, 2D Transistors, AI For Spacecraft Diagnosis

    19. Injectable Microchips, 2D Transistors, AI For Spacecraft Diagnosis

    Take a few seconds to leave us a review. It really helps! https://apple.co/2RIsbZ2 if you do it and send us proof, we’ll give you a shoutout on the show. 

     

    (0:42) - Injectable Microchips:

    Researchers at Columbia University have developed a microchip the size of a grain of salt that can be injected into a patient and act as a wireless temperature sensor. The chip is powered by and communicates to a standard ultrasound probe from outside the body. 

     

    (9:00) - 2D Transistors:

    Moore’s law has dictated the progress of computational power for the past few decades but lately, it seems like we’ve hit the physical limit of transistor development. There’s now an international effort led by MIT and UC Berkeley to explore 2D transistors which could pave the way for keeping up with Moore’s Law again. 

     

    (17:10) - AI For Spacecraft Diagnosis:

    NASA Pathways intern Evanna Gizzi has been working on Research in Artificial Intelligence for Spacecraft Resilience (RAISR) which aims to autonomously detect the root cause of spacecraft failures. RAISR is like an AI engineer that lives in the brain of a spacecraft to identify and remedy spacecraft failures.

    Stay Curious (w/ Safi Bahcall)

    Stay Curious (w/ Safi Bahcall)

    Chris sits down today with Safi Bahcall--physicist, biotech entrepreneur and author of the recent book: "Loonshots: How to Nurture the Crazy Ideas That Win Wars, Cure Diseases, and Transform Industries."

    We talk about his career and using curiosity to check in with his direction, and we dive in to his recent book and talk about incentivizing innovation, making sure that both the artists and the soldiers feel equally loved, and why talking about "disruption" is for historians. Nurture the crazy ideas, and you too might just change the world.

    Chris also talks about giving in to the absurdity of the world of business.

    Pick up a copy of Loonshots.
    Read "Sisyphus Smiled: How to Embrace the Absurdity of Business"

    Check us out!
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    Writer, Host: Chris Thierfelder
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    Copyright 2023 TWC Media Group All Rights Reserved

    Magnetofunky #42

    Magnetofunky #42
    image: one is a transistor and one isn't...
    interdependence [andrzejek’s F.I.F.L.A.R. Mix] - divisor/; Theory - No Appetite For Arduino Pie Yet; I Won't - K-Gizzle, A'pastrophy - Soy Sauce Control, Tabulasa - Broke For Free; Geeknotes: 10/16 - W4tB feat. Laura Winton @ Uncharted Books, Chicago, 10/18 - Human Rights Happy Hour @ SF ACLU, 10/20 - MOON Reading at Little Indie Press Festival, Chicago, 10/20 - Flash Fiction Night @ Alley Cat Books; Practice - SStone 5.X, 3V Battery; Something Elated - Broke For Free

    Carbon nanotubes scaling up to surpass single-story silicon

    Carbon nanotubes scaling up to surpass single-story silicon
    A Stanford University engineering team has been busy bringing its grand achievement of 2013 -- the world's first carbon nanotube computer -- to a grand scale by making the performance competitive with silicon-based processors. And the researchers are much closer! With continued support from the National Science Foundation (NSF), and in collaboration with IBM and other industry leaders, the researchers are now making carbon nanotube transistors that rival conventional silicon. Building a multilayered chip -- carbon nanotube transistors and memory devices stacked on top of each other like the floors of a high rise -- is the Holy Grail for the team. Ultimately, the researchers are aiming to launch a new generation of electronic devices that are smaller, cheaper, faster and more energy efficient than what is currently available.