Podcasts about nanoscale science

How close are we to a future powered by the incredible flexibility of graphene? Pranoti Kshirsagar sits down with Dr. Martin Rejhon, a leading group leader at Charles University in Prague, to unravel his pioneering work in straintronics – manipulating graphene's properties through mechanical strain. Learn about the critical steps towards scalable production and the exciting possibilities for next-generation electronic devices. This episode delves into cutting-edge research in materials science and nanotechnology.Beyond the scientific breakthroughs, Martin shares his perspective on Prague as a burgeoning center for research and confirms the exciting news: the Nanoscale Science and Technology Forum (NSFE), a key event in nanotechnology, will be held in Prague, Czech Republic, in September 2026!Want a deeper dive into this fascinating conversation?Find key highlights, memorable quotes, and links to explore further in our companion blog post.

Send us a textIn part two of our insightful conversation, Dr. Susan Sharfstein builds on our previous discussion of developability assessment to explore how AI is revolutionizing protein manufacturability predictions.As a Professor of Nanoscale Science and Engineering at the University of Albany, she shares groundbreaking insights from her collaboration with DeepSeq AI, demonstrating how artificial intelligence is transforming our ability to assess and predict protein manufacturability early in development.Key Takeaways:Discover how AI tools are enhancing traditional developability assessments by predicting protein expression and stability before entering the labLearn why integration of experimental validation with AI predictions is crucial for successful manufacturability assessment, and how industry partnerships are making this possible at unprecedented scaleUnderstand how the synergy between AI, DNA synthesis capabilities, and robotics is creating a "positive spiral" that will accelerate protein manufacturing innovationWhether you're involved in candidate selection, process development, or curious about AI's impact on developability assessment, this episode offers valuable insights into the future of protein manufacturing. Plus, Dr. Sharfstein shares invaluable career advice for emerging biotech scientists.Join us to explore how AI is reshaping developability assessment and learn why this field continues to offer life-changing possibilities for patients worldwide.Connect with Susan Sharfstein:LinkedIn: https://www.linkedin.com/in/susan-sharfstein-b7552111/College of Nanotechnology, Science, and Engineering, University at Albany: https://www.albany.edu/cnseNext Steps:Wondering how to develop cell and gene therapies with peace of mind? Schedule your free assessment to propel your success: https://bruehlmann-consulting.com/assessmentDevelop biologics better, faster, at a fraction of the cost with our 1:1 Strategy Call. Book your call at https://stan.store/SmartBiotech/p/book-a-11-call-with-me-j4vhuo6t

Send us a textIn this eye-opening episode, we dive deep into the critical yet often overlooked world of protein manufacturability with Dr. Susan Sharfstein, Professor of Nanoscale Science and Engineering at the University of Albany. As part of the broader developability assessment process, manufacturability evaluation helps determine whether a therapeutic candidate can be successfully produced at commercial scale.Drawing from her extensive experience in bioprocessing and cell culture technology, Dr. Sharfstein reveals why seemingly promising protein candidates can fail during manufacturing—and how to spot these issues early.Key Takeaways:Discover why efficacy isn't enough: Learn how to evaluate protein candidates beyond clinical performance to ensure manufacturing successMaster early-stage assessment: Understand the critical parameters that can make or break successful scale-up, from cell line selection to protein foldingFuture-proof your development: Gain insights into how AI is transforming protein manufacturability assessment and what this means for process developmentWhether you're selecting protein candidates or optimizing your bioprocess, this episode offers invaluable guidance for making smarter decisions earlier in development. Join us to learn how to bridge the gap between discovery and manufacturing success.Listen now to transform how you approach protein manufacturability and save valuable time and resources in your development journey.Connect with Susan Sharfstein:LinkedIn: https://www.linkedin.com/in/susan-sharfstein-b7552111/College of Nanotechnology, Science, and Engineering, University at Albany: https://www.albany.edu/cnseNext Steps:Wondering how to develop cell and gene therapies with peace of mind? Schedule your free assessment to propel your success: https://bruehlmann-consulting.com/assessmentDevelop biologics better, faster, at a fraction of the cost with our 1:1 Strategy Call. Book your call at https://stan.store/SmartBiotech/p/book-a-11-call-with-me-j4vhuo6t

  Today we welcome Dr. Margaret Kocherga to the podcast. Margaret is the founder and CEO of Margik, a hardware tech company looking to make organic-based lighting mainstream. A self-described ‘accidental entrepreneur', Margaret started Margik while earning her PhD in Nanoscale Science at the University of North Carolina at Charlotte. After founding the company, Margaret was awarded a NC IDEA grant, completed the Department of Energy's Chain Reaction Innovation program, and even appeared on Amazon Prime's Unicorn Hunters television series. We cover many topics in this episode, including how Margaret… Immigrated from Kyiv, Ukraine to Charlotte, NC at the age of 15 Recovered from an ACL tear that prematurely ended her ballet career Discovered her passion for science out of necessity Navigated different funding sources and grants to finance Margik Knocked on doors in Silicon Valley to land Margik's first commercial pilot …as well as how Charlotte can stop losing hardware tech startups to places like Silicon Valley, and more! Please enjoy this conversation with Margaret Kocherga.   William Bissett is the owner of and an Investment Advisor Representative of Portus Wealth Advisors, a Registered Investment Adviser. Registration does not imply a certain level of skill or training. Opinions expressed on this program do not necessarily reflect those of Portus Wealth Advisors. The topics discussed and opinions given are not intended to address the specific needs of any listener.    Portus Wealth Advisors does not offer legal or tax advice, listeners are encouraged to discuss their financial needs with the appropriate professional regarding your individual circumstance.   Investments described herein may be speculative and may involve a substantial risk of loss. Interests may be offered only to persons who qualify as accredited investors under applicable state and federal regulation or an eligible employee of the management company. There generally is no public market for the Interests. Prospective investors should particularly note that many factors affect performance, including changes in market conditions and interest rates, and other economic, political or financial developments. Past performance is not, and should not be construed as, indicative of future results. 

In Today's episode, Markus speaks with Alain Diebold, Ph.D. Dr. Diebold is the Empire Innovation Professor Emeritus of Nanoscale Science at SUNY Polytechnic Institute in Albany New YorkIn This Episode, they speak about:Was there a distinction between lab and fab in early incarnations of Metrology?Success Stories from Alain's Relationship with SEMATECHHow to address the “Valley of Death” between a well-nurtured academic idea and an actual productWhat is an effective way to approach future metrology challenges?The Purpose and “why” behind the 2022 Frontiers of Characterization and Metrology for Nanoelectronics Conference. (FCMN)Alain's main Takeaways from the most recent conference To make sure you never miss an episode of The High EQ Market podcast, subscribe on Apple Podcasts, Spotify, or anywhere you listen to your podcasts!Listening on a desktop & can't see the links? Just search for Understanding Semiconductors in your favorite podcast player.

Dr. Linda Schadler is the Dean of The College of Engineering and Mathematical Sciences at the University of Vermont (UVM). She has a PhD from the University of Pennsylvania where she studied the micromechanical behavior of fiber and polymer composites and a B.S. in Material Science from Cornell University. Dr. Schadler has many publications and academic awards. She is an outdoor enthusiast and has two grown children.Episode NotesDr. Linda Schadler shares her experiences becoming a dean and running the College of Engineering & Mathematical Sciences at UVM. She is incredibly accomplished and driven, and also talks about how her and her husband have always had a policy of family first.She talks about material science and what got her interested in materials science and academia. She shares some really fantastic and fun sounding projects during her career and how being in the groove with her students is the funnest part of her job. Music used in the podcast: Higher Up, Silverman Sound StudioAcronyms, Definitions, and Fact CheckProvost is a senior administrative officer in certain colleges and universities.The Molecularium Project is an informal science education project of Rensselaer Polytechnic Institute. The Molecularium Project introduces young audiences to the world of atoms and molecules using character driven stories, immersive animation, interactive games and activities, and state of the art molecular visualizations. Rensselaer's three principal scientist and educators behind the project are Linda Schadler, Richard W. Siegel, and Shekhar Garde. The Molecularium Project began as an outreach project of Rensselaer's Nanoscale Science and Engineering Center. To realize the productions, the scientists employed the creative team Nanotoon Entertainment, led by writer and director V. Owen Bush, and writer/producer Kurt Przybilla. The Molecularium Project is funded by Rensselaer, the National Science Foundation, and New York State.In 2002, Dr. Schadler and Dr. Garde produced a seven-minute pilot show for the local planetarium called “Molecularium” for the Digistar II Planetarium system. It introduces children to the concepts of atoms and molecules from small molecules like H2O to larger molecules like polymers. (wikipedia)The Peter principle is a concept in management developed by Laurence J. Peter, which observes that people in a hierarchy tend to rise to "a level of respective incompetence": employees are promoted based on their success in previous jobs until they reach a level at which they are no longer competent, as skills in one job do not necessarily translate to another. (wikipedia)University of Vermont (UVM) - Since 1791, the University of Vermont has worked to move humankind forward. Today, UVM is a top research university of a perfect size, large enough to offer a breadth of ideas, resources, and opportunities, yet small enough to enable close faculty-student mentorship across all levels of study, from bachelor's to M.D. programs. (https://www.uvm.edu)

In this episode of the “Stories from the NNI” podcast, David Muller, the Samuel B. Eckert Professor of Engineering in  Applied and Engineering Physics at Cornell University and the co-director of the Kavli Institute at Cornell for Nanoscale Science, highlights the progress made over the years to continuously improve the resolution of electron microscopes in order to explore atomic structures in more detail.   If you would like to learn more about nanotechnology, go to nano.gov or email us at info@nnco.nano.gov. Closed captioning is provided on our YouTube channel. For this episode, go to: https://youtu.be/bUrhtmQIMlA CREDITS Special thanks to:  David MullerCornell University Produced by:Andrew Pomeroy Music:  Inspirational Outlook by Scott Holmes  https://freemusicarchive.org/music/Sc...https://creativecommons.org/licenses/... Any opinions, findings, conclusions, or recommendations expressed in this podcast are those of the guest and do not necessarily reflect the views of the National Nanotechnology Coordination Office or United States Government. Additionally, mention of trade names or commercial products does not constitute endorsement or recommendation by any of the aforementioned parties. Any mention of commercial products, processes, or services cannot be construed as an endorsement or recommendation.

In this episode of the “Nano Matters” podcast, David Muller, the Samuel B. Eckert Professor of Engineering in Applied and Engineering Physics at Cornell University and the co-director of the Kavli Institute at Cornell for Nanoscale Science, describes how he and his team have set a world record in the resolution of an electron microscope. If you would like to learn more about nanotechnology, go to nano.gov or email us at info@nnco.nano.gov. Closed captioning is provided on our YouTube channel. For this episode, go to: https://youtu.be/YI3n-Dj-ST8 CREDITS Special thanks to:  David MullerCornell University Produced by:Andrew Pomeroy Music:  Inspirational Outlook by Scott Holmes  https://freemusicarchive.org/music/Sc...https://creativecommons.org/licenses/... Any opinions, findings, conclusions, or recommendations expressed in this podcast are those of the guest and do not necessarily reflect the views of the National Nanotechnology Coordination Office or United States Government. Additionally, mention of trade names or commercial products does not constitute endorsement or recommendation by any of the aforementioned parties. Any mention of commercial products, processes, or services cannot be construed as an endorsement or recommendation.

Fernando Gómez-Baquero leads Runway, the Startup Postdoc Program at the Jacobs Technion – Cornell Institute at Cornell tech. The program is part business school, part research institution, and part startup incubator. It's led to the creation of numerous deep tech startups led by post-docs from all over the world. Fernando holds a Ph.D. in Nanoscale Science and Engineering from the University at Albany SUNY, and has been a co—founder and early technology lead at companies such as Besstech, NanoColombia, Innovate Prefabricate, Dendron Nanomed, Midstate, Revela Medical, and FlashCharge Batteries. Check out this video about the program and click here to apply by February 15th for the next cohort. In this episode we talk his experience forming Besstech, the value of customer development, patenting tips, how to be Bob Langer, what advice they give post-docs at Runway, and much more. More about Fernando Fernando's research has focused on advanced nanomaterials for energy storage applications, on the economic impact of pervasive nanotechnologies, and on tech entrepreneurship. He has more than 15 years of experience in the nanotechnology industry, starting with production and characterization of carbon nanotubes and developing of polymer/nanotube composite materials. He is a leader in the fabrication of nanoengineered electrodes for lithium-ion batteries using semiconductor processes and using nanotechnology to improve the performance of lithium-ion batteries. Dr. Gómez-Baquero has several publications in nanomaterials research and on the economic impact of nanotechnologies and number of patent applications in diverse applications of nanomaterials. Check out his Google Scholar profile. Fernando is also a leading voice of the Day One Project, an initiative dedicated to democratizing the government policymaking process by working with new and expert voices across the science and technology community. The letter he authored advocating for the creation of a national fellowship for entrepreneurial scientists and engineers can be found here. Fernando is also a core instructor for The National Science Foundation's Innovation Corps (I-Corps™), a program that uses experiential education to help researchers gain valuable insight into entrepreneurship, starting a business or industry requirements and challenges. Find Fernando on Twitter at @FerGomezBaquero More about Runway Based at the Jacobs Technion-Cornell Institute, Runway ushers recent PhDs in digital technology fields through a paradigm shift — from an academic mindset to an entrepreneurial outlook. Startup Postdocs arrive with ideas for unproven products and markets that require time and specialized guidance to develop. These startups demand more than a few months to launch. They need a bit of a “runway.” That's why our program lasts 12–24 and incorporates academic and business mentorship. The Runway Startup Postdoc Program provides an impressive package valued at $277,000 that includes a salary, research budget, housing allowance, space and more in the first year. In addition, the Startup Postdoc receives significant benefits and perks and corporate support valued at $300,000.

Dr. Paul McEuen, director of the Kavli Institute for Nanoscale Science at Cornell, tells Tonya Hall about the latest research surrounding microbots. FOLLOW US  - Subscribe to ZDNet on YouTube: http://bit.ly/2HzQmyf - Watch more ZDNet videos: http://zd.net/2Hzw9Zy - Follow ZDNet on Twitter: https://twitter.com/ZDNet - Follow ZDNet on Facebook: https://www.facebook.com/ZDNet - Follow ZDNet on Instagram: https://www.instagram.com/ZDNet_CBSi - Follow ZDNet on LinkedIn: https://www.linkedin.com/company/zdnet-com/ - Follow ZDNet on Snapchat: https://www.snapchat.com/add/zdnet_cbsi Learn more about your ad choices. Visit megaphone.fm/adchoices

PFAS, or per- and polyfluorinated alkyl substances (PFAS) are a problem. Also called "forever chemicals" PFAS are commonly used in non-stick coatings, lubricants and fire-fighting foams, but they are turning up everywhere.The chemical has been linked to everything from cancer, increased cholesterol and pregnancies problems.They have seeped into water systems across the nation and just this week, the FDA announced that it found "substantial levels" of PFAs in food; it was in everything from grocery store meats and seafood to an off-the-shelf chocolate cake. It's even in my wells.So what are we doing about it? Not much. Some states have started suing manufacturers, but the nation seems crippled by the cleanup cost, which is estimated in the tens of billions of dollars.However, researchers from the Flinders University Institute for NanoScale Science and Technology in Adelaide, Australia have created a safe, environmentally friendly and low cost way to remove PFAS from water -- it turns out that Australia has quite the PFAS problem too.The researchers made an absorbent polymer from waste cooking oil and sulfur combined with powdered activated carbon (PAC).PAC is a low cost sorbent used to remove micropollutants from water. However, is creates a hazardous dust that is flammable and a respiration hazard. It can also cake, which blocks filters and membranes. The sulfur polymer support solves these problems.In initial tests, the polymer-carbon blend reduced the PFAS in a waters from 150 parts per trillion (ppt) to less than 23 parts per trillion (ppt), well below the 70 ppt limit set by the EPA and other health organizations.The research was recently published in ACS Sustainable Chemistry & Engineering.Next, the team plans to test the blend on a commercial scale to prove that it is capable of purifying thousands of gallons of water. They are also looking into ways to recycle the material and destroy the PFAS.

Discover how Harvard University Professor Joanna Aizenberg’s research is inspired by biology to design slippery surfaces that mimic those found in nature. Her novel nanostructured materials will have huge impacts in areas as diverse as medicine, construction, shipping industries, aircraft industries, fluid handling and transportation, and optical sensing. Inspired by the slippery surfaces of a pitcher plant, Professor Aizenberg and team have invented new technology to create self-healing, anti-fouling materials, called Slippery, Lubricant-Infused Porous Surfaces, or SLIPS. These novel nanostructured materials outperform state-of-the-art materials in their ability to resist ice and microbes sticking to surfaces, repel various simple and complex liquids, prevent marine fouling, or reduce drag. This lecture took place at the University of Sydney in celebration of the launch of the Australian Institute for Nanoscale Science and Technology at the University of Sydney, which is discovering and harnessing new science at the nanoscale.

Sean and Craig discuss the morning activities at the 2012 Smalbany event at the College of Nanoscale Science and Engineering in Tech Valley.

Abstract: Just past this centenary of the discovery of superconductivity, the design of new and more useful superconductors remains as enigmatic as ever. As high-density current carriers with little or no power loss, high-temperature superconductors offer unique solutions to fundamental grid challenges of the 21st century and hold great promise in addressing our global energy challenge in energy production, storage, and distribution. The recent discovery of a new class of high-temperature superconductors has made the community more enthusiastic than ever about finding new superconductors. Historically, these discoveries were almost completely guided by serendipity, and now, researchers in the field have grown into an enthusiastic global network to find a way, together, to predictively design new superconductors. I will share our general guidelines and hope to convey the renewed passion we share in this international pursuit. I will also share some of our advances in understanding the still-unknown mechanisms of high-temperature superconductivity by probing strong electronic correlations with quasiparticle scattering spectroscopy. Dr. Greene is Swanlund Professor of Physics and Center for Advanced Study Professor of Physics, Frederick Seitz Materials Research Lab, Center for Nanoscale Science and Technology, Department of Physics, University of Illinois, Urbana-Champaign; Co-Associate Director, Center for Emergent Superconductivity Energy Frontier Research Center. Her lecture was given on April 5, 2012.

PhD student for the Nanoscale Science and Technology Centre

Nanotechnology, nanocars, molecular manufacturing, carbon nanotubes, semiconductors. Dr. James Tour is a synthetic organic chemist. His research comprises three main areas -- molecular computing, bottom-up molecular nanofabrication, and carbon nanotube growth and modifications for composites. Dr. Tour holds 20 U.S. patents and has published more than 270 research papers. Dr. Tour's first paper on single-molecule nanocars, published October 2005 in the journal, Nano Letters, was the most-accessed article from any American Chemical Society journal for all of 2005.

Nanotechnology, nanocars, molecular manufacturing, carbon nanotubes, semiconductors. Dr. James Tour is a synthetic organic chemist. His research comprises three main areas -- molecular computing, bottom-up molecular nanofabrication, and carbon nanotube growth and modifications for composites. Dr. Tour holds 20 U.S. patents and has published more than 270 research papers. Dr. Tour's first paper on single-molecule nanocars, published October 2005 in the journal, Nano Letters, was the most-accessed article from any American Chemical Society journal for all of 2005.