Podcasts about Materials science

Jonathan Godwin is co-founder and CEO of Orbital Materials, an AI-first materials-engineering start-up. The company open-sourced Orb, a state-of-the-art simulation model, and now designs bespoke porous materials—its first aimed at cooling data-centres while capturing CO₂ or water. Jonathan shares how his DeepMind background shaped Orbital's “design-before-experiment” approach, why the team chose data-center sustainability as a beachhead market, and what it takes to build a vertically integrated, AI-native industrial company. The conversation explores the future of faster, cheaper R&D, the role of advanced materials in decarbonization, and the leap from software to physical products.In this episode, we cover: [02:12] Johnny's path from DeepMind to materials start-up[04:02] Trial-and-error vs AI-driven design shift[06:40] University/industry dynamics in materials R&D[10:17] Generative agent plus simulation for rapid discovery[13:01] Mitigating hallucinations with virtual experiments[18:18] Choosing a “hero” product and vertical integration[25:43] Dual-use chiller for cooling and CO₂ or water capture[32:26] Partnering on manufacturing to stay asset-light[35:58] Building an AI-native industrial giant of the future[36:51]: Orbital's investorsEpisode recorded on April 30, 2025 (Published on May 27, 2025) Enjoyed this episode? Please leave us a review! Share feedback or suggest future topics and guests at info@mcj.vc.Connect with MCJ:Cody Simms on LinkedInVisit mcj.vcSubscribe to the MCJ Newsletter*Editing and post-production work for this episode was provided by The Podcast Consultant

In this podcast episode, MRS Bulletin's Laura Leay interviews Harry Atwater from the California Institute of Technology about his study on lightsail propulsion in order to understand how the device can be developed to do fly-by space travel riding a beam of laser light. Atwater's research group made a square prototype device where the researchers incorporated springs at each corner, etched out of a single sheet of silicon nitride, fastening it to the support frame. They tested its behavior in a two-beam interferometry experiment. Their comprehensive analysis provides a thorough understanding of key parameters that are essential for lightsail propulsion and paves the way for the next step of research: untethered flight. This work was published in a recent issue of Nature Photonics.  

In this podcast episode, MRS Bulletin's Laura Leay interviews Ashwin Shahini and Alan Taub from the University of Michigan about their group's simulations and experimental work detailing the formation mechanisms, morphologies, and microstructures of an in situ Al/TiC metal matrix nanocomposites processed via salt flux reaction. Using these insights, the microstructure of a material can be tuned in order to optimize the materials properties. While the three-dimensional imaging is critical to gaining insight into the structure, computational models can facilitate this optimization. This work was published in a recent issue of Acta Materialia. 

What if the breakthrough isn't about fixing your speech but letting go of the pressure to hide it? As a kid, Dennis did everything he could to try and keep everything under control, especially his stutter. Now a PhD engineer and public speaker, he opens up about the real work behind his personal and professional growth: learning to meet himself where he is and speak from a place of presence. In this warm, story-rich episode, Dennis and I explore what personal growth through self-expression really looks like. We talk about overcoming perfectionism in communication, the emotional cost of always trying to “sound right,” and how learning to communicate more authentically changed Dennis's confidence, career, and relationships. Whether you're a high-achieving professional who struggles with speaking with confidence, or someone navigating the internal tension between how things look on the outside and how they feel on the inside, I invite you to listen to Dennis' story and remember that communication growth starts with self-compassion. In this conversation on personal growth through self-expression, Dennis shares the personal and professional growth that came from embracing his stutter rather than hiding it. Here's what you'll discover: How perfectionism shaped his early communication and why he's let it go Why speaking with presence matters more than speaking “right” The connection between mental state, mindfulness, and confident communication How spontaneity became more powerful than fluency A real-life “Billy Madison moment” that unexpectedly shifted his relationship with stuttering What it means to meet yourself where you are and how that changes everything And much more TIMESTAMPS 00:00 – Introduction to TranscendingX 00:39 – Meet Dr. Dennis: the people-person PhD who stutters 01:34 – The personal growth journey of Dennis Szymanski 02:07 – Diving into semiconductors: life as a high-performing engineer 05:13 – Life and career of a semiconductor engineer 07:08 – Overcoming stuttering: childhood stories and mindset shifts 12:28 – How mindfulness and yoga support confident communication 21:37 – Spontaneity vs. fluency: a new paradigm for speaking with confidence 35:48 – The pressure of unscheduled conversations 36:23 – How mental state impacts stuttering and speaking performance 37:11 – Using yoga and mindfulness to improve self-expression 39:32 – Embracing imperfections 40:01 – Meeting yourself where you are 40:48 – Mental resilience and its role in effective communication 41:29 – Saying no without guilt & setting boundaries 41:53 – Navigating social interactions 42:15 – A speech science hack for smoother, more natural speaking 42:31 – Language constraints, adaptability, and confidence in speaking 50:41 – The power of mantras in reframing your communication mindset 55:53 – High school memories and stuttering: a Billy Madison moment 01:03:24 – Advice to a younger self: letting go of perfectionism 01:04:55 – Final reflections   ABOUT OUR GUEST Meet Dennis Szymanski, a Long Island native who has lived up and down the East Coast while developing his relationship with stuttering. Now settled in a quiet North Carolina beach town with his partner Sam, their dog Rocky, and turtle Lennie, Dennis fully embraces coastal living. With a PhD in Materials Science and Engineering from NCSU, he works as a Product Engineer for a British semiconductor firm. When not in the lab, Dennis hits the disc golf course, practices yoga, plays trumpet, explores entrepreneurship, and enjoys all things water-related. The beach remains his sanctuary - a place to truly "Be As You Are" (yes, that's a Kenny Chesney reference - he's a country music fan). Dennis began speech therapy in public school, later transitioning to private practice, but that was just the beginning. His journey through stuttering has involved numerous highs and lows that shaped his entire being. Various therapeutic approaches beyond speech therapy have helped him develop a more mindful relationship with his stutter. As an active Toastmaster serving as Treasurer for his Jacksonville, NC club, Dennis continuously pushes beyond his comfort zone while building his speaking toolbox and competing in speech competitions. His philosophy? Growth happens outside your comfort zone - and for those who stutter, joining a public speaking club definitely qualifies. But as Dennis would say: You can do it. You will do it.   ABOUT YOUR HOST Uri Schneider, M.A. CCC -SLP is co-founder and leader at Schneider Speech; creator and host of Transcending Stuttering; and faculty at the University of California, Riverside School of Medicine.   SEE FULL SHOW NOTES https://www.transcendingx.com/podcast-episode/dennis-szymanski  LEARN MORE Visit http://www.transcendingx.com or http://www.schneiderspeech.com

In this podcast episode, MRS Bulletin's Sophia Chen interviews Xingchen Ye of Indiana University about his research group's studies on the fundamental behavior of colloidal materials. Colloidal materials consist of liquids with nanoparticles suspended in them. Ye's team is interested in how a colloidal material's properties change as the team spatially rearranges the nanoparticles in the liquid. They looked specifically at the self-assembly of gold nanocubes into a lattice structure. Ye's team studied how that structure gives rise to the material's bulk properties. This work was published in a recent issue of Nature Chemical Engineering.

In this podcast episode, MRS Bulletin's Laura Leay interviews Fabian Meder from the Italian Institute of Technology in Genova and the Sant'Anna School of Advanced Studies in Piza, Italy about his research group's device that makes use of wind-driven plant leaf motion to generate electricity which can power a chemical delivery system. Their triboelectric nanogenerator involves an artificial leaf made of a 500 μm silicone elastomer layer and an electrode made from indium tin oxide. This is attached to the leaf of a plant. A gold-coated pin electrode inserted in the stem of the plant harvests charges from the plant tissue. This work was published in a recent issue of Bioinspiration & Biomimetic. 

Joe Andrews is Co-founder and President at Aztec Labs, the leading privacy-first Layer 2 on Ethereum that empowers developers to build applications protecting user privacy while ensuring compliance. Joe also serves as Head of Product at Aztec and Product Lead at CreditMint since February 2018. He holds a BEng in Materials Science from Imperial College London and was previously Co-founder & Chief Technology Officer of Radish, a food tech startup acquired by Tovala. Joe is an experienced developer and was an EF9 Cohort Member at Entrepreneur First. LinkedIn / Twitter

Joe Andrews is Co-founder and President at ⁠Aztec⁠ Labs, the leading privacy-first Layer 2 on Ethereum that empowers developers to build applications protecting user privacy while ensuring compliance. Joe also serves as Head of Product at Aztec and Product Lead at CreditMint since February 2018. He holds a BEng in Materials Science from Imperial College London and was previously Co-founder & Chief Technology Officer of Radish, a food tech startup acquired by Tovala. Joe is an experienced developer and was an EF9 Cohort Member at Entrepreneur First. ⁠LinkedIn⁠ / ⁠Twitter⁠

In this podcast episode, MRS Bulletin's Sophia Chen interviews Bowen Deng, a graduate student in Gerbrand Ceder's group at the University of California, Berkeley, about their work on increasing the accuracy of artificial intelligence/machine learning materials prediction models. The use of computer simulations to predict the interaction between atoms in a given molecule is being replaced by machine learning. Researchers describe the atoms' collective interactions as a quantity of energy, where higher energies correspond to stronger forces holding the molecule together. Now, Deng's research group studied three machine learning models and found that they tend to predict lower energies than what is accurate by about 20 percent. The researchers have determined that these underpredictions were caused by biased training data and they found a way to remedy the situation. This work was published in a recent issue of NPJ Computational Materials.

We're experimenting and would love to hear from you!In this episode of 'Discover Daily', we begin with rumors about Apple's iPhone 17 lineup. Recent leaks suggest the phones will have a dramatic redesign, featuring a  horizontal camera bar across all models and introducing the ultra-thin iPhone 17 Air. The Pro Max variant may also have a cutting-edge metalens technology that could transform the iconic Dynamic Island, potentially setting new standards for smartphone design.OpenAI's latest update to ChatGPT marks a significant shift in AI interaction, removing restrictive warning messages while maintaining essential safety protocols. This change, championed by product head Nick Turley, allows for more natural conversations around complex topics like mental health and fiction, addressing long-standing concerns about the platform's limitations while ensuring responsible AI usage.The final story features an innovative breakthrough from Filipino scientists at Ateneo de Manila University, who have developed a cost-effective method to create transparent aluminum oxide. This remarkable achievement uses simple microdroplets of acid and minimal electricity, potentially revolutionizing industries from electronics to solar energy. While experts remain cautiously optimistic about scaling challenges, this development could transform everything from smartphone screens to building materials, showcasing how innovative thinking can solve complex engineering challenges.From Perplexity's Discover Feed:https://www.perplexity.ai/page/iphone-17-design-may-be-drasti-oylUbPVXRh.42WcTn.8bpg https://www.perplexity.ai/page/chatgpt-removes-content-warnin-IJNbBZ5OTT2aLK9HSoW84g https://www.perplexity.ai/page/see-through-aluminum-breakthro-ahsOUUCvQfCTByCO5ylvSA **Introducing Perplexity Deep Research:**https://www.perplexity.ai/hub/blog/introducing-perplexity-deep-research Perplexity is the fastest and most powerful way to search the web. Perplexity crawls the web and curates the most relevant and up-to-date sources (from academic papers to Reddit threads) to create the perfect response to any question or topic you're interested in. Take the world's knowledge with you anywhere. Available on iOS and Android Join our growing Discord community for the latest updates and exclusive content. Follow us on: Instagram Threads X (Twitter) YouTube Linkedin

Sodium-ion batteries are at a critical moment of commercialization. With challenges in the lithium-ion supply chains, alternative battery chemistries are gaining attention. Could sodium-based solid-state batteries provide a safer, more sustainable path for large-scale grid storage? With low cost and readily available materials, sodium-ion technology could be a huge competitor. This week, Quentin Scrimshire is joined by Dr. Neil Kidner, Co-Founder and Chief Scientific Officer at Adena Power, to discuss why sodium-based solid-state batteries could be a game-changer for energy storage. With a background in materials science and decades of experience in advanced battery technologies, Neil explains how Adena Power is pioneering sodium-based solutions, the key differences from lithium-ion, and what the future holds for alternative battery chemistries.In this episode, we'll cover:Why sodium-based solid-state batteries could be a safer and more sustainable alternative to lithium-ion.The challenges of lithium-ion supply chains and the potential for domestic alternatives.How Adena Power is developing high-temperature sodium-based battery technology.The role of alternative battery chemistries in long-duration energy storage.What investors and policymakers should consider when looking beyond lithium-ion.About our GuestDr. Neil Kidner leads the scientific and technological development at Adena Power, focusing on innovative sodium-based solid-state batteries designed for safer and more efficient grid energy storage. With a Ph.D. in Materials Science and over 15 years of experience in product development, Neil has been instrumental in advancing alternative battery technologies that utilize abundant materials like sodium and aluminum. His work at Adena Power builds on years of research in solid-state electrochemistry, with a focus on commercializing next-generation battery storage solutions.For more information on Adena Power, check out their website. About Modo EnergyModo Energy helps the owners, operators, builders, and financiers of battery energy storage solutions understand the market - and make the most out of their assets.All of our podcasts are available to watch or listen to on the Modo Energy site. To keep up with all of our latest updates, research, analysis, videos, podcasts, data visualizations, live events, and more, follow us on LinkedIn or Twitter. Check out The Energy Academy, our bite-sized video series breaking down how power markets work.

Sodium-ion batteries are at a critical moment of commercialization. With challenges in the lithium-ion supply chains, alternative battery chemistries are gaining attention. Could sodium-based solid-state batteries provide a safer, more sustainable path for large-scale grid storage? With low cost and readily available materials, sodium-ion technology could be a huge competitor. This week, Quentin Scrimshire is joined by Dr. Neil Kidner, Co-Founder and Chief Scientific Officer at Adena Power, to discuss why sodium-based solid-state batteries could be a game-changer for energy storage. With a background in materials science and decades of experience in advanced battery technologies, Neil explains how Adena Power is pioneering sodium-based solutions, the key differences from lithium-ion, and what the future holds for alternative battery chemistries.In this episode, we'll cover:Why sodium-based solid-state batteries could be a safer and more sustainable alternative to lithium-ion.The challenges of lithium-ion supply chains and the potential for domestic alternatives.How Adena Power is developing high-temperature sodium-based battery technology.The role of alternative battery chemistries in long-duration energy storage.What investors and policymakers should consider when looking beyond lithium-ion.About our GuestDr. Neil Kidner leads the scientific and technological development at Adena Power, focusing on innovative sodium-based solid-state batteries designed for safer and more efficient grid energy storage. With a Ph.D. in Materials Science and over 15 years of experience in product development, Neil has been instrumental in advancing alternative battery technologies that utilize abundant materials like sodium and aluminum. His work at Adena Power builds on years of research in solid-state electrochemistry, with a focus on commercializing next-generation battery storage solutions.For more information on Adena Power, check out their website. About Modo EnergyModo Energy helps the owners, operators, builders, and financiers of battery energy storage solutions understand the market - and make the most out of their assets.All of our podcasts are available to watch or listen to on the Modo Energy site. To keep up with all of our latest updates, research, analysis, videos, podcasts, data visualizations, live events, and more, follow us on LinkedIn or Twitter. Check out The Energy Academy, our bite-sized video series breaking down how power markets work.

No Risk, No Reward. How This Semiconductor CEO Uses $MRAM Memory To Improve The World. Everspin Tech CEO $MRAMGuest:Sanjeev Aggarwal, President & CEO Everspin Technology (Ticker: $MRAM)Website:https://www.everspin.com/Ticker: MRAMBIO: Sanjeev Aggarwal, Ph.D., President and Chief Executive Officer. With over 25 years of expertise in the non-volatile memory and semiconductor industry, Sanjeev has been instrumental in shaping Everspin since its inception in 2008 through various leadership positions. Most recently, he served as the Chief Technology Officer driving product and technology roadmaps and business agreements with partners, vendors, and suppliers. As the Vice President of Technology R&D, he directed cross-functional teams to develop and qualify new technology and products. As Vice President of Operations, he managed manufacturing operations, supply chain, and managed joint development agreements for technology transfer and production. Before Everspin, Sanjeev was at Freescale Semiconductor and part of the team that spun out to form Everspin Technologies. Prior to his work on MRAM, Sanjeev worked on developing Ferroelectric memories at Texas Instruments. In 2005, he was awarded the Technical Excellence Award by the International Symposium on Integrated Ferroelectrics for his contributions to commercializing FRAM technology. Sanjeev is Senior Member, IEEE and his technical contributions include over 100 issued patents, more than 100 publications and numerous invited presentations. He graduated from Cornell University with a doctorate in Materials Science and Engineering and received his bachelors from Indian Institute of Technology, Varanasi in Ceramic Engineering. Sanjeev is also a member of the Everspin Board of Directors.

In this podcast episode, MRS Bulletin's Laura Leay interviews David Cahen from the Weizmann Institute of Science, Israel, about the impact surface defects have on bulk properties, specifically in the case of lead halide perovskites. In a perspective he co-authored, Cahen connected numerous experimental data from other researchers that exposed this phenomenon. By understanding how surface defects control the material's electronic behavior, researchers can pursue new materials for the development of long-lasting devices. This work was published in a recent issue of Advanced Materials. 

In this podcast episode, MRS Bulletin's Sophia Chen interviews Gwangmin Bae of Korea University about his work with colleagues on the design of a new smart window system that utilizes compression. Like other smart windows, this window makes use of pores within the material to adjust its transparency. However, instead of using a stretchy material that controls light scattering through the pores, Bae and colleagues used a material that compresses in thickness. That is, the window becomes more transparent when it is compressed. The researchers place this structured porous material made of the polymer polydimethylsiloxane or PDMS between two panes of glass to create the smart window. This work was published in a recent issue of Nature Communications.

Nick Sonnentag is a Senior Principal Engineer at Oshkosh, where he contributes to the development of some of the world's toughest vehicles using additive manufacturing (AM). Drawing on experience from ATI, DuPont, and more, Nick possesses broad and deep expertise in 3D printing. In this episode of the 3DPOD, we discuss alloys, vehicle manufacturing, applications, and the readiness of directed energy deposition technology for widespread use. Not limiting his exploration of 3D printing to his work at Oshkosh, Nick founded Sunnyday Technologies to tackle the significant challenges in construction 3D printing. Rather than focusing on machines, he concentrates on the binders and the precise formulations needed to achieve specific properties in final structures. This approach stands out for its elegance and promise, diverging from conventional methods of discovering applications and materials. It makes this episode especially insightful. Nick also wanted to clarify that at one point, he mistakenly referenced General Atomics instead of General Dynamics and asked me to note this for accuracy.

In this podcast episode, MRS Bulletin's Laura Leay interviews Leif Asp of Chalmers University of Technology about his group's development of an all-carbon fiber-based structural battery. The negative electrode uses carbon fiber and, for the positive electrode, the carbon fiber is coated with lithium iron phosphate. In both cases the carbon fiber takes on the roles of mechanical reinforcement and current collection. This work was published in a recent issue of Advanced Materials.

In a recent episode of Category Visionaries, we spoke with Preston Bryant, Co-Founder, Executive Chair and Chief Commercial Officer of Momentum. The company has developed a groundbreaking materials science technology that enables efficient recycling of critical metals from batteries and other electronic waste. Originally focused on rare earth magnet recycling, Momentum pivoted to tackle the growing challenge of battery recycling, offering a solution that requires significantly less capital investment than traditional methods. Topics Discussed: Evolution from oil and gas exploration to sustainable materials processing Development of MSX technology for efficient metal extraction Journey from rare earth magnet recycling to battery recycling Building strategic partnerships in the battery recycling ecosystem Transitioning from founder-CEO to Executive Chair and CCO Navigating the challenges of commercializing deep tech Fundraising experiences and investor dynamics Future vision for controlling critical materials supply chains   GTM Lessons For B2B Founders: Operate on shoestring budgets during hard tech development: Bryant emphasized the importance of being extremely selective with spending during the early stages. He noted, "You need to figure out how to make your dollar go further. You have to be very choosy about the projects and the feedstocks that you're willing to process." Early-stage founders should maintain strict financial discipline while validating their technology. Find the right commercial application through iteration: Momentum spent four years exploring different applications before finding product-market fit in battery recycling. Bryant shared, "From 2016 to 2020...we tried automation, we tried many different supply partnerships, and none of them really worked out for magnet recycling. But boy, did it take off for the battery recycling piece." Founders should be prepared to pivot their technology to different applications until finding the right market opportunity. Build strategic partnerships to demonstrate full value chain: Momentum's partnership with Cerbus Solutions and 6K demonstrated a complete supply chain solution from collection to end product. Bryant explained, "We decided okay, that would be a worthwhile, even though this was very custom to one sort of customer, it would show that we could do the whole supply chain." Deep tech founders should consider strategic partnerships that showcase their technology's role in the broader ecosystem. Navigate the transition from technical founder to scaled leadership: As the company grew, Bryant transitioned from CEO to Executive Chair and CCO roles. He reflected, "It requires different things of you, from being a startup founder to then being an actual manager of people to then being executive chairman...You've got to be willing to change or you'll quickly get swept aside." Founders should prepare themselves mentally for evolving leadership roles as their companies scale. Leverage accelerator programs for credibility: Getting into Halliburton Labs during COVID helped attract investor attention. Bryant noted, "That was great because they helped us not only build a product, but that name helped attract attention to us from investors." Deep tech founders should seek reputable accelerator programs that can provide both technical validation and investor credibility.   //   Sponsors: Front Lines — We help B2B tech companies launch, manage, and grow podcasts that drive demand, awareness, and thought leadership. www.FrontLines.io The Global Talent Co. — We help tech startups find, vet, hire, pay, and retain amazing marketing talent that costs 50-70% less than the US & Europe.  www.GlobalTalent.co      

Timestamps: 10:34 - What is high precision electronics manufacturing? 17:52 - How to understand the problems of potential customers 22:03 - Giving robots proximity sensors 26:55 - Inveel's fundraising strategy 33:38 - The money candle and the motivation candle  This episode was produced in collaboration with startup days, taking place next year on May 14th 2025. Click ⁠here⁠ to purchase your ticket. About Barbara Horvath: Barbara Horvath is the co-founder and CEO of Inveel, a startup providing technology for low-cost and high speed production of extreme-high resolution printed electronics. She holds a PhD in Materials Science & Engineering from the Budapest University of Technology and Economics, and worked as a researcher at the National Institute for Materials Science (Japan), the Centre National de la Recherche Scientifique (France) and the Paul Scherrer Institut (Zurich) before starting Inveel in 2024. Inveel fabricates 100 nm - 2 µm linewidth wires and electrodes with low resistivity — this what they term their “high precision electronics”. At first they struggled with finding a market, since the applications for their tech were very numerous, but eventually settled on robotics. Inveel adds value to a robot by basically giving it another layer of “skin”, full of “nerve endings”, which help the robot better understand how it is interacting with the world. For instance: If a robot is holding an egg, having an Inveel skin is useful to know how much pressure to apply in order to maintain grip but not crush the egg. If the egg starts slipping, the robot will know because it will feel the egg in different parts of their “hand”, and can adjust the movements of their “hand” to prevent the egg from escaping their grasp. If a robot bumps their knee, it is very easy for their whole balance to be thrown off and for them to fall over. If their knee is wearing an Inveel skin, the robot can react faster to the perception of having bumped it and more quickly readjust their body posture so as not to fall down. If a robot needs to go up and down stairs, or walk in terrain where there are voluminous rocks, having an Inveel skin on the soles of their “feet” will help them ascertain whether they're placing their “feet” correctly on the steps of the stairs, and will help them quickly realize they've stepped on a rock, and again adapt their body posture so as not to fall over. Inveel skins also give robots proximity sensors, which allow them to sense if a person (or object) is nearby. Currently, robots have cameras through which they perceive the presence of people, and when they detect people, they slow down quite a lot as a form of risk mitigation. Inveel's proximity sensors allow robots to remain fast even in environments filled with people, because they make them much quicker in reacting to the presence of a person and avoiding collision.  Inveel is currently establishing pilots with big players and kicking their R&D into turbo mode in order to cater successfully to the robotics industry. The cover portrait was edited by ⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠www.smartportrait.io⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠.

It's our final episode of 2024! We close out the year by learning about an alumnus who's making a difference in his community, chatting with members of the Mean Green Racing student organization and hearing from one of our Fall 2024 Great Grads. In this episode: Our new YouTube series, UNT Works, goes on the job with Mean Green alumni to see how their time at UNT helped them build their careers. Student correspondent Anthony Simone speaks with Metrocrest Services CEO Tracy Eubanks about how UNT prepared him for his career in business and nonprofit. (1:47-6:40) Our new Student Org Spotlight series kicks off with members of Mean Green Racing to learn more about their student organization. Learn more about UNT student organizations. (6:41-17:23) We hear the story of Anurag Gumaste, who started from humble beginnings in a small town in India and has now earned his Ph.D. in Materials Science and Engineering. (17:24-32:48) Q&A: The hosts discuss their resolutions and goals for 2025. We also check in with students to see what they have planned for the new year. Tell us your goals or resolutions by emailing us at podcast@unt.edu or calling 940-565-4341. (32:49-35:41) Helpful links: Follow our Podcast ⁠Transcripts⁠ Join the Conversation Email us at podcast@unt.edu Call us at 940-565-4341 Connect with us using #HFNT on X @UNTSocial or on Instagram @UNT

A program trains women as tactile medical examiners to identify tumors before they show up on imaging scans. And, in a materials science discovery, scientists made a liquid silk solution that hardens and picks up objects—not unlike Spider-Man's web.How Blind Women In India Are Detecting Early Breast CancerBreast cancer is the second most common cancer worldwide, just behind lung cancer. And the earlier a breast tumor is found, the more likely it is that the person survives their diagnosis.An international program called Discovering Hands trains blind women to detect even the smallest lumps and bumps through breast exams. The idea is to leverage the blind examiners' sense of touch, which may be more acute than sighted people's, to feel for breast abnormalities and, hopefully, catch cancer in an early stage.Discovering Hands has a cohort in India, a country where only around one in every two people diagnosed with breast cancer survive, and imaging equipment can be expensive or hard to come by.SciFri producer Rasha Aridi talks with science journalist Kamala Thiagarajan, who reported on Discovering Hands' program in India for NPR's global health blog, Goats and Soda.Accidental Breakthrough Makes Web-Slinging Silk A RealityWe're all familiar with Spider-Man—the red-suited hero who swings through New York using spider silk that shoots from his hands. While Peter Parker has a radioactive spider to thank for his shooting webs, scientists at Tufts University have made their own version of liquid silk that solidifies and can pick up objects.This discovery was made accidentally, says biomedical engineer Dr. Marco Lo Presti of the Tufts University Silklab. Lo Presti found that combining silk from a silkworm with dopamine and acetone made the silk change from a flexible liquid to a hardened fiber that attaches to objects.Lo Presti joins guest host Kathleen Davis to talk about the possibilities of liquid silk adhesives, and the advancements he'd like to see to make the technology better.Transcripts for each segment will be available after the show airs on sciencefriday.com. Subscribe to this podcast. Plus, to stay updated on all things science, sign up for Science Friday's newsletters.

On today's show, we have Will Gaviria Rojas, co-founder of Coactive AI, a groundbreaking startup transforming how organizations interact with unstructured visual data. With a robust background in electrical engineering from MIT and a PhD in materials science from Northwestern University, Will and the Coactive AI leverage advanced artificial intelligence to enable users to search, analyze, and gain insights from images and videos without the cumbersome need for extensive metadata tagging. Did you know more than 80% of our data is in images and videos? Is this the next Snowflake or Databricks?

This episode is sponsored by Netsuite by Oracle, the number one cloud financial system, streamlining accounting, financial management, inventory, HR, and more.   NetSuite is offering a one-of-a-kind flexible financing program. Head to  https://netsuite.com/EYEONAI to know more.  In this episode of the Eye on AI podcast, we explore the cutting-edge world of semiconductor innovation and its role in the future of artificial intelligence with Kai Beckmann, CEO of Merck KGaA.   Kai takes us on a journey into the heart of semiconductor manufacturing, revealing how next-generation chips are driving the AI revolution. From the complex process of creating advanced chips to the increasing demands of AI on semiconductor technology, Kai shares how Merck is pioneering materials science to unlock unprecedented levels of computational power.   Throughout the conversation, Kai explains how AI's growth is reshaping the semiconductor industry, with innovations like edge AI, heterogeneous integration, and 3D chip architectures pushing the boundaries of performance. He highlights how Merck is using artificial intelligence to accelerate material discovery, reduce experimentation cycles, and create smarter, more efficient processes for the chips that power everything from smartphones to data centers.   Kai also delves into the global landscape of semiconductor manufacturing, discussing the challenges of supply chains, the cyclical nature of the industry, and the rapid technological advancements needed to meet AI's demands. He explains why the semiconductor sector is entering the "Age of Materials," where breakthroughs in materials science are enabling the next wave of AI-driven devices.   Like, subscribe, and hit the notification bell to stay tuned for more episodes! Stay Updated: Craig Smith Twitter: https://twitter.com/craigss Eye on A.I. Twitter: https://twitter.com/EyeOn_AI (00:00) Introduction  (02:48) Merck KGaA (05:21) Foundations of Semiconductor Manufacturing   (07:57) How Chips Are Made (09:24) Exploring Materials Science (13:59) Growth and Trends in the Semiconductor Industry   (15:44) Semiconductor Manufacturing   (17:34) AI's Growing Demands on Semiconductor Tech (20:34) The Future of Edge AI  (22:10) Using AI to Disrupt Material Discovery   (24:58) How AI Accelerates Innovation in Semiconductors   (27:32) Evolution of Semiconductor Fabrication Processes   (30:08) Advanced Techniques: Chiplets, 3D Stacking, and Beyond   (32:29) Merck's Role in Global Semiconductor Innovation   (34:03) Major Markets for Semiconductor Manufacturing   (37:18) Challenges in Reducing Latency and Energy Consumption   (40:21) Exploring New Conductive Materials for Efficiency   

Battery tech is pivotal as the world leans into electrification to power decarbonization in the race against climate change. But rising demand is putting more attention on the limits and drawbacks of current generation lithium-ion (Li-ion) battery technology. Learn more about your ad choices. Visit podcastchoices.com/adchoices

R&D for materials-based products can be expensive, because improving a product's materials takes a lot of experimentation that historically has been slow to execute. In traditional labs, you might change one variable, re-run your experiment, and see if the data shows improvements in your desired attributes (e.g. strength, shininess, texture/feel, power retention, temperature, stability, etc.). However, today, there is a way to leverage machine learning and AI to reduce the number of experiments a material scientist needs to run to gain the improvements they seek. Materials scientists spend a lot of time in the lab—away from a computer screen—so how do you design a desirable informatics SAAS that actually works, and fits into the workflow of these end users?         As the Chief Product Officer at MaterialsZone, Ori Yudilevich came on Experiencing Data with me to talk about this challenge and how his PM, UX, and data science teams work together to produce a SAAS product that makes the benefits of materials informatics so valuable that materials scientists depend on their solution to be time and cost-efficient with their R&D efforts.        We covered: (0:45) Explaining what Ori does at MaterialZone and who their product serves (2:28) How Ori and his team help make material science testing more efficient through their SAAS product (9:37) How they design a UX that can work across various scientific domains (14:08) How “doing product” at MaterialsZone matured over the past five years (17:01) Explaining the "Wizard of Oz" product development technique (21:09) The importance of integrating UX designers into the "Wizard of Oz" (23:52) The challenges MaterialZone faces when trying to get users to adopt to their product (32:42) Advice Ori would've given himself five years ago (33:53) Where you can find more from MaterialsZone and Ori     Quotes from Today's Episode “The fascinating thing about materials science is that you have this variety of domains, but all of these things follow the same process. One of the problems [consumer goods companies] face is that they have to do lengthy testing of their products. This is something you can use machine learning to shorten. [Product research] is an iterative process that typically takes a long time. Using your data effectively and using machine learning to predict what can happen, what's better to try out, and what will reduce costs can accelerate time to market.” - Ori Yudilevich (3:47) “The difference [in time spent testing a product] can be up to 70% [i.e. you can run 70% fewer experiments using ML.]  That [also] means 70% less resources you're using. Under the ‘old system' of trial and error, you were just trying out a lot of things. The human mind cannot process a large number of parameters at once, so [a materials scientist] would just start playing only with [one parameter at a time]. You'll have many experiments where you just try to optimize [for] one parameter, but then you might have 20, 30, or 100 more [to test]. Using machine learning, you can change a lot of parameters at once. The model can learn what has the most effect, what has a positive effect, and what has a negative effect. The differences can be really huge.” - Ori Yudilevich (5:50) “Once you go deeper into a use case, you see that there are a lot of differences. The types of raw materials, the data structure, the quantity of data, etc. For example, with batteries, you have lots of data because you can test hundreds all at once. Whereas with something like ceramics, you don't try so many [experiments]. You just can't. It's much slower. You can't do so many [experiments] in parallel. You have much less data. Your models are different, and your data structure is different. But there's also quite a lot of commonality because you're storing the data. In the end, you have each domain, some raw materials, formulations, tests that you're doing, and different statistical plots that are very common.” - Ori Yudilvech (11:24) “We'll typically do what we call the ‘Wizard of Oz' technique. You simulate as if you have a feature, but you're actually working for your client behind the scenes. You tell them [the simulated feature] is what you're doing, but then measure [the client's response] to understand if there's any point in further developing that feature. Once you validate it, have enough data, and know where the feature is going, then you'll start designing it and releasing it in incremental stages. We've made a lot of progress in how we discover opportunities and how we build something iteratively to make sure that we're always going in the right direction” - Ori Yudilevich (15:56) “The main problem we're encountering is changing the mindset of users. Our users are not people who sit in front of a computer. These are researchers who work in [a materials science] lab. The challenge [we have] is getting people to use the platform more. To see it's worth [their time] to look at some insights, and run the machine learning models. We're always looking for ways to make that transition faster… and I think the key is making [the user experience] just fun, easy, and intuitive.” - Ori Yudilevich (24:17) “Even if you make [the user experience] extremely smooth, if [users] don't see what they get out of it, they're still not going to [adopt your product] just for the sake of doing it. What we find is if this [product] can actually make them work faster or develop better products– that gets them interested. If you're adopting these advanced tools, it makes you a better researcher and worker. People who [adopt those tools] grow faster. They become leaders in their team, and they slowly drag the others in.” - Ori Yudilevich (26:55) “Some of [MaterialsZone's] most valuable employees are the people who have been users. Our product manager is a materials scientist. I'm not a material scientist, and it's hard to imagine being that person in the lab. What I think is correct turns out to be completely wrong because I just don't know what it's like. Having [material scientists] who've made the transition to software and data science? You can't replace that.” - Ori Yudilevich (31:32)     Links Referenced Website: https://www.materials.zone LinkedIn: https://www.linkedin.com/in/oriyudilevich/ Email: ori@materials.zone

Activists are celebrating billions in new spending to build transmission lines for renewable energy and to connect the U.S. power grids to each other (including, for the first time, the Texas grid). This spending spree is billed as a way of moving renewable energy across regions to cure the problem of wind and solar energy being complete no-shows at certain places and times. Is the smart way to solve our self-made energy shortages? The smartest people in the space say “No.” Dr. Bennett explains. He is Policy Director at Life:Powered, an initiative of the Texas Public Policy Foundation to raise America's energy IQ, and holds a Ph.D in Materials Science. Follow Jacki: X: @JackiDailyHost TruthSocial: JackiDaily Rumble: TheJackiDailyShow YouTube: TheJackiDailyShow Instagram: JackiDaily Facebook: The Jacki Daily Show

In this podcast episode, MRS Bulletin's Laura Leay interviews Nancy Sottos, the Maybelle Leland Swanlund Endowed Chair and head of the Department of Materials Science and Engineering at the University of Illinois–Urbana Champaign (UIUC), and Justine Paul, a former student at UIUC who now holds a position at DuPont, about their work with frontal polymerization. By mimicking patterns in biological materials such as shells, their research group took a multidisciplinary approach to control crystalline patterning, which ultimately enabled them to control mechanical properties of polymers. By applying heat, they made slight changes in the chemical reactions to achieve specific crystalline patterns. This work was published in a recent issue of Nature.

 Walter Metz is a Full Professor in the School of Media Arts at Southern Illinois University Carbondale. He earned a Ph.D. in Radio/Television/Film at the University of Texas at Austin in 1996, and holds an S.B. degree in Materials Science and Engineering from MIT (1989). He is the author of three books: Engaging Film Criticism: Film History and Contemporary American Cinema, published by P. Lang, and two titles published by Wayne State University Press, Bewitched, and Gilligan's Island. He is also the author of sixty refereed journal articles and book chapters about the intertextual relationships between film, television, novels, and theatre. His work roves across disciplines, grappling with the importance of audio-visual productions for understanding such disparate subjects as gender, comedy, poetry, opera, the Cold War, the Holocaust, science, and animals. His latest book is Gilligan's Island, part of Wayne State University Press TV Milestones Series. https://wsupress.wayne.edu/9780814333723/

Episode: 1280 On making data tell their story.  Today, let's figure out how to plot a graph.

In this podcast episode, MRS Bulletin's Laura Leay interviews Reza Moini of Princeton University about his group's development of an enhanced additive manufacturing technique to fabricate cementitious materials with excellent fracture toughness. They based their design of the material on the double-helical or double-bouligand structure of coelacanth fish scales that resist deformation. In order to fabricate the material, Moini's research team used a two-component robotic additive manufacturing process. The extrusion system was controlled using specialist algorithms. This work was published in a recent issue of Nature Communications.

In this podcast episode, MRS Bulletin's Sophia Chen interviews postdoctoral research fellow Rohit Pratyush Behera and Prof. Hortense Le Ferrand of Nanyang Technological University in Singapore about their design of a strong and tough ceramic that absorbs energy, inspired from biology. They borrowed microscopic designs found in a mollusk, a mantis shrimp, and the enamel casing surrounding human teeth. The researchers stacked round discs of aluminum oxide particles in horizontal layers in a helical structure, then encased the structure in an extra protective layer made of alumina nanoparticles. The aluminum oxide in the discs is designed to respond to an external magnetic field, modifying the orientation of the discs layer by layer, consequently adjusting the properties of the ceramic composites. This work was published in a recent issue of Cell Reports Physical Science.

Timestamps: 8:20 - The current state of the lab meat industry  14:10 - Does lab meat have the same nutritional value & taste?  15:40 - Sallea's go-to-market strategy 17:45 - When all your partners are also startups 20:30 - What happens to the farmers? This episode was sponsored by NordPass. Use code “swisspreneur” at checkout to get 30% off Business and Teams plans. About Nicole Kleger: Nicole Kleger is the co-founder and CTO at sallea, a biotech startup enabling the cultivation of high-value, textured whole cuts of (lab) meat and fish. She holds a PhD in Materials Science from ETH and has been a Sports Instructor at Akademischer Sportverband Zürich since 2015. She started sallea in 2022. sallea's propriety scaffolds enable the cultivation of whole cuts of meat and fish, as opposed to the thin layers currently being produced. This in turn will enable the sale and consumption of these products in a non-processed way: we'll be able to eat a lean fillet of lab meat, instead of eating lab meat sausage or ground lab meat. Furthermore, sallea's scaffolding platform allows each of their customers to pre-define the texture, nutritional value, taste, and other key attributes of the end product. They are currently raising CHF 2.2M in external funds.  Don't forget to give us a follow on⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠ Twitter⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠,⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠ Instagram⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠,⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠ Facebook⁠⁠⁠⁠⁠⁠⁠⁠⁠ ⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠and⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠ Linkedin⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠⁠, so you can always stay up to date with our latest initiatives. That way, there's no excuse for missing out on live shows, weekly giveaways or founders' dinners.‍

What do you love about the show? Let us know! In this episode of Discover Daily, hosts Alex and Sienna dive into the mysterious craters appearing in Siberia's permafrost. Recent scientific investigations reveal these massive holes, measuring up to 230 feet across and 160 feet deep, are caused by climate change triggering explosive releases of methane gas. As Arctic temperatures rise, surface ice melt travels into underground pockets of unfrozen, salty soil called cryopegs. This builds up immense pressure over years until it cracks the permafrost above and triggers sudden explosive methane releases, forming huge craters.The hosts also discuss a discovery by chemists at UCLA who have upended a century-old rule in organic chemistry. By successfully synthesizing molecules that were thought to be impossible under Bredt's Rule, the researchers have opened up exciting new possibilities for drug discovery and materials science. These "anti-Bredt" molecules could lead to novel medicines that interact with the body in powerful new ways.For the final segment, Sienna explores a study that shows evolution may be more predictable than previously thought. Using machine learning to analyze bacterial genomes, scientists uncovered deterministic patterns in how genes interact and evolve over time. With the ability to forecast evolutionary trajectories, this research could transform fields from medicine to environmental science - enabling us to combat antibiotic resistance, engineer microbes to break down pollution, and even develop solutions to climate change. From Perplexity's Discover Feed: https://www.perplexity.ai/page/mysterious-siberian-craters-fo-We7IoRDnQpSeh7.zj.0QsAhttps://www.perplexity.ai/page/100-year-chemistry-rule-debunk-KoJfcmkFRy26nRNJLWT4hAhttps://www.perplexity.ai/page/machine-learning-shows-predict-cE80E41uS_29DojZ8Dx40QPerplexity is the fastest and most powerful way to search the web. Perplexity crawls the web and curates the most relevant and up-to-date sources (from academic papers to Reddit threads) to create the perfect response to any question or topic you're interested in. Take the world's knowledge with you anywhere. Available on iOS and Android Join our growing Discord community for the latest updates and exclusive content. Follow us on: Instagram Threads X (Twitter) YouTube Linkedin

Send us a textGeoff Gaw is an experienced mechanical engineer specializing in the medical device industry. With a degree in Mechanical Engineering and minors in Materials Science and Energy Engineering from Cal Poly Pomona, he has held leadership roles at Edwards Lifesciences, Medtronic, and Applied Medical. His expertise spans project management, product and process development, and manufacturing support. He has overseen the development of complex medical devices, scaling teams, and driving operational excellence from early development stages to mass production. Currently, he serves as a Sr. Principal Engineer at Edwards Lifesciences.Aaron Moncur, hostAbout Being An Engineer The Being An Engineer podcast is a repository for industry knowledge and a tool through which engineers learn about and connect with relevant companies, technologies, people resources, and opportunities. We feature successful mechanical engineers and interview engineers who are passionate about their work and who made a great impact on the engineering community. The Being An Engineer podcast is brought to you by Pipeline Design & Engineering. Pipeline partners with medical & other device engineering teams who need turnkey equipment such as cycle test machines, custom test fixtures, automation equipment, assembly jigs, inspection stations and more. You can find us on the web at www.teampipeline.us

HZO Inc. is a provider of conformal coatings solutions for electronics and other products made for a variety of markets ranging from consumer electronics, medical devices, aerospace, semiconductors, and more. In this sponsored episode, Sean Clancy, Ph.D.—Senior Director of Materials Science at HZO—shares industry insights gained from many years of performing root-cause failure analysis in these products and markets.

Do you prefer multistory episodes, single story episodes, or a mix? Let us know! In this episode of 'Discover Daily' by Perplexity, hosts Alex and Sienna explore groundbreaking discoveries in reproductive biology and the world's longest-running laboratory experiment. They delve into how researchers used the Nobel Prize-winning AI tool AlphaFold to identify a trimeric protein complex on sperm that functions as a molecular "key" in vertebrate fertilization. This discovery could revolutionize our understanding of fertility and potentially lead to new treatments for infertility.Finally, Alex and Sienna then take a deep dive into the fascinating Pitch Drop Experiment, initiated in 1927 at the University of Queensland. They explore how this experiment, which demonstrates the surprising fluidity of pitch, has captivated scientists and the public for nearly a century. The hosts discuss the experiment's latest findings, its implications for materials science, and what it reveals about the nature of seemingly solid substances.Perplexity is the fastest and most powerful way to search the web. Perplexity crawls the web and curates the most relevant and up-to-date sources (from academic papers to Reddit threads) to create the perfect response to any question or topic you're interested in. Take the world's knowledge with you anywhere. Available on iOS and Android Join our growing Discord community for the latest updates and exclusive content. Follow us on: Instagram Threads X (Twitter) YouTube Linkedin

Physicist Matthias Kling studies photons and the things science can do with ultrafast pulses of X-rays. These pulses last just attoseconds – a billionth of a billionth of a second, Kling says. He uses them to create slo-mo “movies” of electrons moving through materials like those used in batteries and solar cells. The gained knowledge could reshape fields like materials science, ultrafast and quantum computers, AI, and medical diagnostics, Kling tells host Russ Altman on this episode of Stanford Engineering's The Future of Everything podcast.Have a question for Russ? Send it our way in writing or via voice memo, and it might be featured on an upcoming episode. Please introduce yourself, let us know where you're listening from, and share your quest. You can send questions to thefutureofeverything@stanford.edu.Episode Reference Links:SStanford Profile: Matthias KlingMatthias' Lab: SLAC National Accelerator LaboratoryConnect With Us:Episode Transcripts >>> The Future of Everything WebsiteConnect with Russ >>> Threads or Twitter/XConnect with School of Engineering >>> Twitter/XChapters:(00:00:00) IntroductionRuss Altman introduces guest Matthias Kling, a professor of photon science and applied physics at Stanford University.(00:02:52) Ultrafast Electronics OverviewThe technologies enabling ultrafast photonics and electronic advancements.(00:05:32) Attosecond Science ApplicationsCapturing electron and molecular movements with attosecond pulses.(00:09:31) Photoelectric Effect InsightsAttosecond science's impact on understanding the photoelectric effect and quantum mechanics.(00:13:27) Real-Time Molecular MeasurementsUsing light waves to capture images of molecules at room temperature.(00:19:32) Future of Ultrafast ElectronicsHow attosecond light pulses could revolutionize computing with petahertz speed.(00:23:28) Energy-Efficient Quantum ComputingPotential for room-temperature quantum computers using light wave electronics.(00:26:33) AI and Machine Learning in ScienceAI's role in optimizing research and data collection in ultrafast electronics.(00:28:51) Real-Time AI Data AnalysisMachine learning enables real-time analysis of massive experimental data.(00:32:15) Conclusion Connect With Us:Episode Transcripts >>> The Future of Everything WebsiteConnect with Russ >>> Threads or Twitter/XConnect with School of Engineering >>> Twitter/X

In this podcast episode, MRS Bulletin's Sophia Chen interviews Yen-Hung Lin of Hong Kong University of Science and Technology about his work to eliminate defects in perovskite solar cells. Lin's group treated the perovskites with a category of molecules known as amino-silanes, which bind vacancies in the perovskites, preventing recombination of the electrons and holes. The amino-silane treatment retained the device's performance at 95% power conversion efficiency for more than 1500 hours. This work was published in a recent issue of Science. 

In this podcast episode, MRS Bulletin's Laura Leay interviews Michael Pettes, deputy group leader and staff scientist at the Center for Integrated Nanotechnologies in Los Alamos National laboratory about a characterization technique that employs a four-dimensional scanning transmission electron microscope (4D-STEM) paired with complex computational data analysis to directly measure the thermal expansion coefficient (TEC) of monolayer epitaxial tungsten diselenide. The standard technique for directly measuring the TEC involves X-ray diffraction, but 2D materials are too thin. 4D-STEM uses a patterned electron probe which enables diffraction positions to be accurately mapped in real space. This method overcomes the challenges of indirect measurements and spatial resolution. This work was published in a recent issue of ACS Nano. 

When cars, planes, ships or computers are built from a material that functions as both a battery and a load-bearing structure, the weight and energy consumption are radically reduced. A research group at Chalmers University of Technology in Sweden is now presenting a world-leading advance in so-called massless energy storage - a structural battery that could halve the weight of a laptop, make the mobile phone as thin as a credit card or increase the driving range of an electric car by up to 70 percent on a single charge. "We have succeeded in creating a battery made of carbon fibre composite that is as stiff as aluminium and energy-dense enough to be used commercially. Just like a human skeleton, the battery has several functions at the same time," says Chalmers researcher Richa Chaudhary, who is the first author of a scientific article recently published in Advanced Materials. Research on structural batteries has been going on for many years at Chalmers, and in some stages also together with researchers at the KTH Royal Institute of Technology in Stockholm, Sweden. When Professor Leif Asp and colleagues published their first results in 2018 on how stiff, strong carbon fibres could store electrical energy chemically, the advance attracted massive attention. The news that carbon fibre can function as electrodes in lithium-ion batteries was widely spread and the achievement was ranked as one of the year's ten biggest breakthroughs by the prestigious Physics World. Lower weight requires less energy Since then, the research group has further developed its concept to increase both stiffness and energy density. The previous milestone was reached in 2021 when the battery had an energy density of 24 watt-hours per kilogramme (Wh/kg), which means roughly 20 percent capacity of a comparable lithium-ion battery. Now it's up to 30 Wh/kg. While this is still lower than today's batteries, the conditions are quite different. When the battery is part of the construction and can also be made of a lightweight material, the overall weight of the vehicle is greatly reduced. Then not nearly as much energy is required to run an electric car, for example. "Investing in light and energy-efficient vehicles is a matter of course if we are to economise on energy and think about future generations. We have made calculations on electric cars that show that they could drive for up to 70 percent longer than today if they had competitive structural batteries," says research leader Leif Asp, who is a professor at the Department of Industrial and Materials Science at Chalmers. When it comes to vehicles, of course, there are high demands on the design to be sufficiently strong to meet safety requirements. There, the research team's structural battery cell has significantly increased its stiffness, or more specifically, the elastic modulus, which is measured in gigapascal (GPa), from 25 to 70. This means that the material can carry loads just as well as aluminium, but with a lower weight. "In terms of multifunctional properties, the new battery is twice as good as its predecessor - and actually the best ever made in the world," says Leif Asp, who has been researching structural batteries since 2007. Several steps towards commercialisation From the start, the goal was to achieve a performance that makes it possible to commercialise the technology. In parallel with the fact that the research is now continuing, the link to the market has been strengthened - through the newly started Chalmers Venture company Sinonus AB, based in Borås, Sweden. However, there is still a lot of engineering work to be done before the battery cells have taken the step from lab manufacturing on a small scale to being produced on a large scale for our technology gadgets or vehicles. "One can imagine that credit card-thin mobile phones or laptops that weigh half as much as today, are the closest in time. It could also be that components such as electronics in cars or planes are powered ...

Join us for this look into materials chemistry, developed under the guiding principles of sustainability and a systems approach.Dr. Zlatka Stoeva, Co-founder and Managing Director of DZP Technologies, discovered her love of chemistry out of boredom as a child. She then traveled to unknown lands to master her science and discover the value of mentors while doing amazing work on lithium-ion battery chemistry. A stint in the technology transfer office at Cambridge showed her how fundamental research can be translated into real-world solutions that can change lives, and this inspired her to start her own company.In providing CRO services and developing IP to help companies address market needs using unique materials, Stoeva and her colleagues approach problems with a systems mindset that is common in engineering, but not always chemistry. We hear about their work in “plastic electronics” that leverage biological materials and consider sustainability aspects while delivering results. We also hear about their exciting work using graphene materials to produce digitized materials that can code information about how they're made and their interactions with the environment.Check out this great episode that balances a wonderful personal story, amazing science, and great bits of advice to guide your science and career development!Related episodes:Season 5, Ep.1: Batteries unplugged: past, present and the electrifying futureSeason 4, Ep.4: Women in chemistry: learnings from one of the greatestSeason 4, Ep.2: The father of green chemistrySeason 3, Ep.9: Energy harvesting and self-sustainable greenhousesSeason 2, Ep.8: Sustainability as an entrepreneurial choiceSeason 2, Ep.3: Rethinking catalysisBonus content!Access bonus content curated by this episode's guest by visiting www.thermofisher.com/chemistry-podcast for links to recent publications, podcasts, books, videos and more.View the video of this episode on www.thermofisher.com/chemistry-podcast.A free thank you gift for our listeners!Request your free Bringing Chemistry to Life t-shirt on our episode website.Use code cHeMcas+ng in October and KemThrReDs in November. We read every email so please share your questions and feedback with us! Email helloBCTL@thermofisher.com

In this episode, Martin King will share with us his practice of AI in the context of Quality and Regulatory affairs for medical devices. This will explain to you some best practices to maintain to avoid some pitfalls.  Who is Martin King?  Martin Cranston King, a Swiss consultant working with medical devices, in vitro diagnostics (IVD), and pharmaceuticals since 1979. Martin is a leading expert in quality assurance, regulatory compliance, and product development, developing active wearable devices since the 1980s.  Known for his hands-on approach and deep understanding of complex regulatory environments, Martin has guided companies around the globe through successful regulatory submissions. His expertise spans across six continents, making him a sought-after advisor in his field.  Martin holds advanced degrees in Micro-electronics and Materials Science, and Electronic Engineering. He is a trained Lead Auditor for ISO 13485:2016 and is well-versed in international standards such as 21 CFR 820 and MDR 745/2017. Recognized as one of the top 25 MedTech Leading Voices on LinkedIn, Martin also shares valuable insights through his popular weekly regulatory roundup.  Who is Monir El Azzouzi?  Monir El Azzouzi is the founder and CEO of Easy Medical Device a Consulting firm that is supporting Medical Device manufacturers for any Quality and Regulatory affairs activities all over the world. Monir can help you to create your Quality Management System, Technical Documentation or he can also take care of your Clinical Evaluation, Clinical Investigation through his team or partners. Easy Medical Device can also become your Authorized Representative and Independent Importer Service provider for EU, UK and Switzerland.  Monir has around 16 years of experience within the Medical Device industry working for small businesses and also big corporate companies. He has now supported around 100 clients to remain compliant on the market. His passion to the Medical Device filed pushed him to create educative contents like, blog, podcast, YouTube videos, LinkedIn Lives where he invites guests who are sharing educative information to his audience. Visit easymedicaldevice.com to know more.  Link Martin Kings LinkedIn: https://www.linkedin.com/in/martink2/  QARA Whatsapp group: https://chat.whatsapp.com/Dkl3XrjiXzW51Fgipf96k2  QARA Whatsapp channel: https://whatsapp.com/channel/0029VaaBTj9CxoAwG0CUBn1x  Social Media to follow Monir El Azzouzi Linkedin: https://linkedin.com/in/melazzouzi Twitter: https://twitter.com/elazzouzim Pinterest: https://www.pinterest.com/easymedicaldevice Instagram: https://www.instagram.com/easymedicaldevice

C-Zero and Zach Jones, its co-founder and CEO, are using innovative thermocatalysis technology to convert natural gas into zero-emission hydrogen, offering the tantalizing potential to decarbonize major industries while scaling the fuel of the future. Hydrogen is one of the most promising sources of clean energy in existence, and a key component in alternative fuels capable of decarbonizing hard-to-electrify industries like heavy shipping. But there's a catch: the current processes used to extract hydrogen from hydrocarbons like natural gas create a rather unsustainable byproduct – carbon dioxide. Hard-tech firm C-Zero has the answer: a revolutionary method to convert natural gas into hydrogen and a solid carbon byproduct instead, which could have industry, or even world-changing, implications. And Zach, a biomedical engineer, multi-time founder, and venture capital investor with a lifelong passion for hydrogen, is perfectly positioned to take this technology to the next level, having spent his entire career in and around the innovation economy. Hear Zach share how his interest in hydrogen led him to the idea that would become C-Zero, why “turquoise hydrogen” is the secret to Hydrogen 3.0, and why thermocatalysis could decarbonize the future of energy. Episode Highlights:00:00 Zach Jones on turquoise hydrogen 00:54 Conor Gaughan introduces Zach and C-Zero06:05 Ranch life, interest in chemistry, and Duke University10:39 Entrepreneurial bug, business school, and investing career 18:17 The hydrogen thesis, origin of C-Zero, and the TAM25:42 Turquoise hydrogen, transport, and public private partnerships34:32 Pitching investors, global markets, and the long-term horizon44:19 Fighting climate change, future scale, and exciting innovations50:16 Staying positive and leaving a legacy52:29 Where to learn more53:09 End credits If you liked this, listen next to our episode with Dr. Seonghoon Woo of Amogy on Materials Science, Decarbonized Transport, and Alternative FuelsMore on C-Zero and Zach Jones:czero.energy linkedin.com/company/c-zero linkedin.com/in/zachjones06 Connect with Conor Gaughan on linkedin.com/in/ckgone and threads.net/@ckgoneHave questions, or a great idea for a potential guest? Email us at CiC@consensus-digital.com If you enjoyed this episode, please rate and review the show on Apple Podcasts and Spotify – it really makes a difference! Consensus in Conversation is a podcast by Consensus Digital Media produced in association with Reasonable Volume.

Send us a Text Message.This summer is a sports fan's dream! Beyond some major soccer tournaments, Paris 2024 kicks off at the end of July. If you think about it, sports are science in motion, which means that buried in incredible athletic feats is a lot of data about how athlete bodies are using and responding to chemistry, biology and physics. That data is helping scientists design new or better tools for athletes. Today, in honor of this very sporty summer, Sam and Deboki delve into how scientists go about developing the equipment that helps move athletes, and how that equipment is holding importance for the medical field as well, for instance in diagnosing cystic fibrosis in infants. Sam and Deboki will also cover the creative experiments one scientist did to design a better bike saddle for female pro cyclists, who endured decades of intense injuries that ultimately required many to undergo labiaplasties, until American racing cyclist Alison Tetrick came along and said “enough is enough.” Title IX may have revolutionized female sports participation, but until more recently building gender-specific sports equipment from the ground up was unheard of.Email us your science stories/factoids/news at tinymatters@acs.org for a chance to be featured on an upcoming Tiny Show and Tell Us episode!Subscribe to our newsletter at bit.ly/tinymattersnewsletterLinks to the Tiny Show & Tell stories are here and here. Pick up a Tiny Matters mug here! All Tiny Matters transcripts are available here.

Dr. BJ Johnson knows that if you want to make the biggest climate impact in the least amount of time, you start by improving upon an existing technology. And he's doing exactly that as the co-founder and CEO of ClearFlame, a startup modifying diesel engines to run on decarbonized liquid fuels. Before co-launching ClearFlame, BJ studied mechanical engineering and energy systems at Stanford University, earning three (3!) degrees: undergraduate, graduate, and doctoral. He was also a world-class athlete, competing for the US National Swim Team at the World Championships in 2013 and 2014, the same time he was working on his Ph.D, which would ultimately lead him to the idea that would become ClearFlame. That idea might be simple in its approach, but it could make a game-changing impact for both the planet and business alike. By modifying existing diesel engines, ClearFlame's technology can cut carbon emissions in half for heavy-duty transportation fleets, without requiring charging infrastructure or engine replacements. With many clean fuels already cheaper than diesel, it can simultaneously provide major bottom line savings too.Hear BJ share how he balanced world-class athletics and doctoral work, the critical importance of ‘bridge technologies' to making an immediate impact, and why ClearFlame's accelerated path towards cheaper, sustainable diesel engines is poised to make them the Tesla of heavy duty transportation.Episode Highlights00:00 BJ Johnson on ClearFlame as the Tesla of heavy duty00:48 Conor Gaughan introduces BJ and ClearFlame4:04 Studying energy at Stanford, Silicon Valley, and athletics15:28 The idea for ClearFlame, combustion tech, and liquid fuels 23:28 Carbon negative solutions, the first sale, and scaling growth30:20 Total addressable market, tech unicorns, and doing good and well38:10 Diversifying entrepreneurship, exciting innovations, and finding optimism42:47 Wrap up and end creditsIf you liked this episode, listen next to Dr. Seonghoon Woo of Amogy on Materials Science, Decarbonized Transport, and Alternative Fuels Watch this short video to see how ClearFlame's technology works: youtube.com/watch?v=WDvGDFqFtHo More on ClearFlame and BJ Johnson:clearflame.com linkedin.com/company/clearflameenglinkedin.com/in/bj-johnson-6b9213120Connect with Conor Gaughan on linkedin.com/in/ckgone and threads.net/@ckgoneHave questions, or a great idea for a potential guest? Email us at CiC@consensus-digital.comIf you enjoyed this episode, please rate and review the show on Apple Podcasts and Spotify – it really makes a difference! Consensus in Conversation is a podcast by Consensus Digital Media produced in association with Reasonable Volume. Hosted on Acast. See acast.com/privacy for more information.

Dr. Robert S. Langer is the David H. Koch Institute Professor at the Massachusetts Institute of Technology (MIT). Being one of the eight Institute Professors is the highest honor that can be awarded to a faculty member at MIT. Much of Bob's research is at the interface between materials and medicine. His lab has created nanoparticles and drug delivery systems, engineered tissues and organs for things like artificial skin for burn victims, and made organ-on-a-chip technology to help develop and test new drugs that may someday help patients. When he's not working, Bob enjoys spending time with his family, taking his kids to sporting events, lifting weights, and going on walks with his wife. He received his bachelor's degree in chemical engineering from Cornell University and his Sc.D. in chemical engineering from Massachusetts Institute of Technology. Afterwards, Bob worked as a postdoctoral fellow at the Children's Hospital Boston and at Harvard Medical School. He joined the faculty at MIT in 1978. Since then, Bob has accepted more than 220 major awards and honors, including the U.S. National Medal of Science, the U.S. National Medal of Technology and Innovation (he is one of 3 living individuals to have received both these honors), the Charles Stark Draper Prize (often called the Engineering Nobel Prize), Queen Elizabeth Prize for Engineering, Albany Medical Center Prize, Breakthrough Prize in Life Sciences, Kyoto Prize, Wolf Prize for Chemistry, Millennium Technology Prize, Priestley Medal (highest award of the American Chemical Society), Gairdner Prize, Hoover Medal, Dreyfus Prize in Chemical Sciences, BBVA Frontiers of Knowledge Award in Biomedicine, Balzan Prize, and the Dr. Paul Janssen Award. In 1998, he received the Lemelson-MIT prize, the world's largest prize for invention for being “one of history's most prolific inventors in medicine,” and he was inducted into the National Inventors Hall of Fame in 2006. He is an elected Fellow of the Institute of Medicine of the National Academy of Sciences, the National Academy of Engineering, the National Academy of Sciences, and National Academy of Inventors, and the Royal Academy of Engineering. He has been awarded over 1,000 patents and has received 42 honorary doctorate degrees, including degrees from Harvard, Yale, Columbia, and Northwestern. In our conversation, he shares more about his life and science.

Can innovative new lithium extraction methods prevent a supply chain crisis?New lithium extraction methods are essential to meet the rising demand driven by EVs and grid storage. Traditional methods are time-consuming, geographically limited, and in some cases environmentally damaging. The concentration of lithium mines worldwide has implications for the supply chain; the fewer producers there are, the higher the likelihood of disruption. Lithium often travels tens of thousands of miles, so reducing these scope 3 emissions is critical. Xerion is a company who are trying to address this issue. John Busbee is Founder and CEO, and he chats to David about Xerion's development of new lithium extraction techniques.Xerion are also developing methods to create newer, more efficient batteries with the lithium they extract. Paul Braun is the Director of the Materials Research Laboratory, and Professor of Materials Science and Engineering at the University of Illinois. He also joins the show, and says there's no escaping lithium as a key component for EVs and batteries, so the question is how to mine it efficiently and with minimal environmental impact. New techniques in extraction and battery production promise to reduce CAPex by two-thirds and emissions by 40%. How do they do it? Can these technologies make clean energy more accessible and affordable? David finds out. The Interchange will be at the annual Solar & Energy Storage Summit in San Francisco from the 12th of June. We'll be recording some special shows from the event, with all the conversation and analysis on the solar sector in the US and beyond. Get your ticket at woodmac.com/events/solar-energy-storage-summitSee Privacy Policy at https://art19.com/privacy and California Privacy Notice at https://art19.com/privacy#do-not-sell-my-info.

One of the biggest environmental issues in our modern world is plastic, which has become integral in the manufacturing of everything from electronics to furniture. Our reliance on plastic has led to a recycling crisis: A vast amount of plastic that winds up in our recycling bins isn't actually recyclable, and ultimately winds up in landfills.Large companies have committed to reducing plastic packaging and cutting back on waste. But there's still no good way to scale up the removal of plastic that already exists. Waste-eating bacteria and enzymes have been shown to work in lab settings, but the scale-up process has a long road ahead.Judith Enck, former EPA regional administrator and founder of the organization Beyond Plastics, has dedicated her career to advocating for making plastics more recyclable and keeping toxic chemicals out of the manufacturing process. She joins guest host Maggie Koerth to talk about why plastics are such a difficult environmental issue to solve, and what makes her feel hopeful this Earth Day.Transcripts for this segment will be available the week after the show airs on sciencefriday.com. Subscribe to this podcast. Plus, to stay updated on all things science, sign up for Science Friday's newsletters.

The Professor of Materials Science at Queen Mary University of London, Sir Colin Humphreys joins to discuss his book "The Mystery of the Last Supper: Reconstructing the Final Days of Jesus"See omnystudio.com/listener for privacy information.

Today three students will join us, Ezra Troy who is a senior at the University of Pennsylvania majoring in economics. He has been the lay leader of the orthodox Jewish prayer services at Penn since 2021.  Talia Khan is an MIT graduate student in Mechanical Engineering (sustainable material design) who completed a double major in Music and Materials Science & Engineering at MIT in 2020. She is the president of the MIT Israel Alliance, an organization at the forefront of the battle against antisemitism on campus. A staunch supporter of Israel, Talia brings a diverse perspective on current events, as the daughter of an Ashkenazi Jewish mother and Afghan Muslim father. Talia's letter will be shared as testimony tomorrow in the hearing of MIT President Sally Kornbluth in Congress, addressing rampant antisemitism on campus. Plus, Lior Alon, Israeli post-doc student at MIT.See omnystudio.com/listener for privacy information.