Podcasts about Lawrence Berkeley National Laboratory

Artificial intelligence is being called the Manhattan Project of our time by government leaders, and one of the leaders in the development of AI maintains that safety and human values are key to that advancement, KCBS Business Reporter Jason Brooks had an exclusive interview with Nvidia CEO and Founder Jensen Huang at Lawrence Berkeley National Laboratory. Photo by Randy Dumalig

Billionaire tech titan Elon Musk's time as a “special government employee” is coming to an end, but the DOGE team at the Defense Department will soon have greater influence on Pentagon contracting. Since President Donald Trump began his second term in January, Musk has spearheaded the Department of Government Efficiency's push across the federal government to find “waste, fraud and abuse,” slash certain types of spending and cut the workforce. A DOGE team was set up at the Pentagon — as well as other federal agencies — to implement those efforts. Musk wrote Wednesday night in a post on X that his time as a special government employee was coming to an end but: “The @DOGE mission will only strengthen over time as it becomes a way of life throughout the government.” In a sign that DOGE's influence will continue at the Pentagon, Secretary of Defense Pete Hegseth issued a new directive this week giving those personnel more oversight of contracting efforts. Hegseth wrote in a May 27 memo to senior Pentagon leadership, combatant commanders, and DOD agency and field activity directors that: “The Department of Defense (DoD) Department of Government Efficiency (DOGE) team will have the opportunity to provide input on all unclassified contracts. The Under Secretary of Defense for Acquisition and Sustainment (USD(A&S)), or its designee, will coordinate with DOGE to ensure that the opportunity for review of the Performance Work Statement/Statement of Work, accompanying estimates, deliverable descriptions, and requirements approval/validation documents, occurs when the requirements package is provided to a DoD contracting office to initiate a procurement or prior to the package being provided to a non-DoD assisting agency (e.g., General Services Administration).” In a video released Wednesday on X, Hegseth said the Pentagon had already saved more than $10 billion working with DOGE on previous efforts to review spending, including from a “line-by-line audit of over 50 contract vehicles.” Energy Secretary Chris Wright announced Thursday that the government would build a new supercomputer powered by NVIDIA chips and based at a department user facility at the Lawrence Berkeley National Laboratory. Officials said the supercomputer will be named Doudna after UC Berkeley scientist Jennifer Doudna, who co-invented CRISPR gene editing technology and won the Nobel Prize back in 2020. The Doudna supercomputer, which is geared toward high-performance computing and training artificial intelligence technology, will be based at the National Energy Research Scientific Computing Center. It is only the latest Energy Department project designed for the AI age: El Capitan, a supercomputer based at Lawrence Livermore National Laboratory and currently the world's fastest, is also designed with machine learning in mind, as is Frontier, a DOE supercomputer housed at the Oak Ridge National Laboratory in Tennessee. A spokesperson would not comment further on how the Doudna supercomputer's speeds might compare to other systems. Government supercomputing projects, including those focused on AI, are now supported by the same national laboratory system that incubated the Manhattan Project, which produced the world's first atomic weapons. The Daily Scoop Podcast is available every Monday-Friday afternoon. If you want to hear more of the latest from Washington, subscribe to The Daily Scoop Podcast  on Apple Podcasts, Soundcloud, Spotify and YouTube.

By 2028, Lawrence Berkeley National Laboratory forecasts that U.S. data centers could use as much as 12% of the nation's electricity. The reason: generative AI. Since 2022, AI innovation by four leading tech companies — Google, Microsoft, Meta and Amazon — has led to annual increases in both energy and water consumption. So, in this episode, Short Wave co-host Emily Kwong probes huge water footprint of AI. We begin with the rise of data centers, then look at how computers came to need so much water and, finally, what tech companies are doing to try to turn the ship around. P.S. Part 2 talks about the leading solutions in the green AI movement. So don't miss our Friday episode! Curious about tech and the environment? Email us at shortwave@npr.org — we'd love to hear from you! Listen to every episode of Short Wave sponsor-free and support our work at NPR by signing up for Short Wave+ at plus.npr.org/shortwaveLearn more about sponsor message choices: podcastchoices.com/adchoicesNPR Privacy Policy

Geologist Walter Alvarez was working away on some limestone samples in Gubbio, Italy, when he became intrigued by an odd layer of rock. He was looking at the K-T boundary. Underneath it, there are dinosaur fossils. Above it, there are none. And Walter was about to stumble on the reason why.In this final episode of our science series, we pair a rock sample from the K-T boundary with a unique portrait by Carmen Lomas Garza to tell the story of the dinosaur extinction -- how it happened, why it happened, and who figured it out.With Kirk Johnson, director of the Smithsonian's National Museum of Natural History, and Taína Caragol, curator of painting and sculpture and Latino art and history at the National Portrait Gallery.See the portraits we discussed:Walter Alvarez, by Carmen Lomas GarzaLuis Alvarez, Lawrence Berkeley National Laboratory

In this episode of the Industrial Real Estate Show, I sit down with Dave Riess, CEO of Wonder, to unpack the real-world opportunities and challenges of putting solar on industrial rooftops. From navigating aging roofs and structural concerns to understanding how rooftop solar can boost NOI, Dave explains it all in plain language. We also dive into how demand for electricity is rapidly outpacing supply — and why smart real estate owners should start thinking about solar and power infrastructure now. Whether you're solar-curious or already deep in the weeds, this conversation is packed with practical insights and surprising takeaways.About Dave:Dave holds a B.A. and B.S. in Electrical Engineering from the University of San Diego. Before co-founding Wunder in 2014, he worked in platform development for venture-backed technology organizations and with the Lawrence Berkeley National Laboratory's Energy Technologies and Grid Integrations divisions. Under his leadership, Wunder has managed over $1 billion in commercial and industrial solar transactions.Connect with Dave:LinkedIn: / davidriess Website: https://www.wunderpower.com/--

00:08 — Ben Christopher is a reporter for CalMatters covering housing policy. 00:33 — Rhodes Berry, until last month, an Assistant Chief Counsel at the Department of Energy, based at the Lawrence Berkeley National Laboratory. The post Department of Housing & Urban Development Announcement Could Evict 15,000 Californians; Plus, Update on Federal Employee Fired by DOGE appeared first on KPFA.

Researchers built the largest 3D map of our universe yet. What they found supports the idea that dark energy could have evolved over time.One of the mysteries of the universe is why it expands at the rate that it does. Back in 1998, two teams of researchers observed that not only was the universe expanding, but that the rate of expansion was increasing. That observation was the basis for a concept now known as dark energy. In the years since, cosmologists have been trying to get a handle on better measurements of that effect, and hoping to figure out what dark energy actually might be.This week, researchers on a project called DESI, the Dark Energy Spectroscopic Instrument, released results based on their first three years of data at an international physics conference. They found that it appears possible that dark energy—whatever it is—has changed over the lifetime of the universe. In other words, the so-called cosmological constant may not, in fact, be a constant. The data is not quite statistically significant yet, so researchers can't definitively say that this is true, which leaves many questions about the nature of dark energy still unresolved.Dr. Andrei Cuceu of the Lawrence Berkeley National Laboratory and Dr. Adam Riess of Johns Hopkins University and the Space Telescope Science Institute join Host Flora Lichtman to talk about the new research, and what remains to be discovered in dark energy.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.

Activate helps scientists and engineers bring their transformative technologies to life. Through a two-year paid fellowship, these science entrepreneurs receive the support they need to turn their ideas into hard-tech startups. Fellows work on climate solutions, advanced manufacturing and robotics, new uses of chemistry and materials, reimagined food and agriculture, space innovations, and more. As a nonprofit organization, Activate partners with philanthropies, universities, government programs, the corporate sector, and VC investors to help fellows bridge the gap from lab to commercialization — all without taking any equity in their startups.Cyrus Wadia is the CEO of Activate. He was previously director of worldwide product sustainability at Amazon, vice president of sustainable business & innovation at Nike, and assistant director of clean energy and materials R&D in the White House Office of Science and Technology Policy. Cyrus was also a Silicon Valley entrepreneur, a senior program officer at Lawrence Berkeley National Laboratory, and the founding co-director of the Haas School of Business CleanTech to Market initiative. He holds a Ph.D. in energy and resources from UC Berkeley and an M.S. in chemical engineering from MIT.--✅ PODCAST TOPICS:Activate has supported 249 fellows, catalyzed $3.6 billion, and helped launch 197 startups. Fellows receive a salary and a $100,000 recoverable grant to develop deep-tech startups addressing societal challenges, especially in climate.Technical founders, particularly PhD scientists, face challenges shifting their mindset from research to business objectives. They must quickly learn skills like hiring, culture-building, fundraising, and balancing technical tasks with managing a business.Cyrus emphasizes stronger university collaborations to foster entrepreneurial thinking among scientists and clearer corporate guidance about market needs and significant industry challenges. This clarity would help Activate choose Fellows aligned with commercial demand.Activate currently receives around 1,000 high-quality fellowship applications each year but can only support 50 due to limited resources. Personally, Cyrus advises prioritizing mentorship early in one's career. He maintains balance through cycling and clear work-life boundaries. He also recommends Rick Rubin's book "The Creative Act: A Way of Being" to founders and innovators.--

The predictions are coming in hot. Data centers could grow to consume more than 9% of U.S. electricity generation by 2030, according to EPRI. That's more than double its current estimated data center load. AI will increase global data center power demand 165% by 2030, says Goldman Sachs. And billions of dollars are at stake. Utilities, megasite developers, and data center operators are all basing major decisions on predictions like these. But they're also the kinds of predictions we've seen before. In 1999, when the internet was growing fast, a couple researchers claimed it would grow to consume half of all U.S. power generation within a decade — until a team at Lawrence Berkeley National Laboratory debunked it. Jonathan Koomey was one of those researchers. Although today's predictions about energy usage are tamer than those in 1999, Jonathan still has questions about the current hype around AI power demand. He's is now the founder and president of Koomey Analytics, which has published multiple papers on the topic, including a recent report for the Bipartisan Policy Center: Electricity Demand Growth and Data Centers: A Guide for the Perplexed. So what are the assumptions that go into these new predictions? And how do they hold up to scrutiny? In this episode, Shayle talks to Jonathan about why he questions the hype around AI load growth predictions and why he believes energy constraints will incentivize the AI industry to focus on efficiency. Shayle and Jonathan cover topics like: The time lags and proprietary data that hinders precise data center load estimates, both in historical analyses and future predictions The difficulty of reproducing the predictions of even prominent institutions like the IEA The two basic assumptions that go into predictions: AI demand and AI power requirements Why Jonathan believes conventional wisdom relies on questionable sources, like Nvidia's business plan The unexplored areas of AI energy efficiency, like computer architecture, software improvements, algorithms, and special purpose computers Recommended resources Lawrence Berkeley National Laboratory: 2024 United States Data Center Energy Usage Report Nature: Will AI accelerate or delay the race to net-zero emissions? Joule: To better understand AI's growing energy use, analysts need a data revolution WSJ: Internet Hype in the '90s Stoked a Power-Generation Bubble. Could It Happen Again With AI? Open Circuit: The data center boom: ‘All the cheap power is gone' Credits: Hosted by Shayle Kann. Produced and edited by Daniel Woldorff. Original music and engineering by Sean Marquand. Stephen Lacey is executive editor. Catalyst is brought to you by EnergyHub. EnergyHub helps utilities build next-generation virtual power plants that unlock reliable flexibility at every level of the grid. See how EnergyHub helps unlock the power of flexibility at scale, and deliver more value through cross-DER dispatch with their leading Edge DERMS platform, by visiting energyhub.com. Catalyst is brought to you by Antenna Group, the public relations and strategic marketing agency of choice for climate and energy leaders. If you're a startup, investor, or global corporation that's looking to tell your climate story, demonstrate your impact, or accelerate your growth, Antenna Group's team of industry insiders is ready to help. Learn more at antennagroup.com.

00:08  What happens when they cut the weather service  Eugene Cordero, professor of Meteorology and Climate Science at San Jose State University.   00:21  What it's like to get fired from a job you love  Rhodes Berry, until last month, Assistant Chief Counsel at the Department of Energy, based at the Lawrence Berkeley National Laboratory.   The post Inside the DOGE cuts appeared first on KPFA.

Later today, the National Lab Research SLAM will bring 17 early career scientists from the Department of Energy's national laboratories to present their cutting-edge research in a fast-paced, engaging competition. The event is sponsored by the House Science & National Labs Caucus and the Senate National Labs Caucus, and gives federal science agencies to showcase their role in advancing innovation and developing the next generation of STEM leaders. To learn more about the event, Federal News Network's Eric White spoke with Christine Zachow, Manager of the Academic Engagement Office & Science Education Operations at Lawrence Livermore National Laboratory, as well as Meg Rodriguez, Director of the Career Pathways office at Lawrence Berkeley National Laboratory, who you'll hear from first. Learn more about your ad choices. Visit podcastchoices.com/adchoicesSee Privacy Policy at https://art19.com/privacy and California Privacy Notice at https://art19.com/privacy#do-not-sell-my-info.

Later today, the National Lab Research SLAM will bring 17 early career scientists from the Department of Energy's national laboratories to present their cutting-edge research in a fast-paced, engaging competition. The event is sponsored by the House Science & National Labs Caucus and the Senate National Labs Caucus, and gives federal science agencies to showcase their role in advancing innovation and developing the next generation of STEM leaders. To learn more about the event, Federal News Network's Eric White spoke with Christine Zachow, Manager of the Academic Engagement Office & Science Education Operations at Lawrence Livermore National Laboratory, as well as Meg Rodriguez, Director of the Career Pathways office at Lawrence Berkeley National Laboratory, who you'll hear from first. Learn more about your ad choices. Visit podcastchoices.com/adchoices

Episode 151 Chapter 12, The History of Audio Recording Technology. Works Recommended from my book, Electronic and Experimental Music  Welcome to the Archive of Electronic Music. This is Thom Holmes. This podcast is produced as a companion to my book, Electronic and Experimental Music, published by Routledge. Each of these episodes corresponds to a chapter in the text and an associated list of recommended works, also called Listen in the text. They provide listening examples of vintage electronic works featured in the text. The works themselves can be enjoyed without the book and I hope that they stand as a chronological survey of important works in the history of electronic music. Be sure to tune-in to other episodes of the podcast where we explore a wide range of electronic music in many styles and genres, all drawn from my archive of vintage recordings. There is a complete playlist for this episode on the website for the podcast.   Playlist: THE HISTORY OF AUDIO RECORDING TECHNOLOGY   Time Track Time Start Introduction –Thom Holmes 01:30 00:00 1.     Leon Scott “Au Clair de la Lune” (1860). Phonautograph. One of about 50 recordings made around 1860 by Édouard-Léon Scott de Martinville's on his invention, the Phonautograph that were digitally restored in 2008 by the First Sounds collaborative. These were created using the Lawrence Berkeley National Laboratory's virtual stylus technology, which sought to track the wavy lines scratched on soot-covered paper as though they were standard record grooves. 00:20 01:38 2.     Alice J. Shaw, an improvised whistling performance (1888) from an Edison Records cylinder recording. 02:13 01:58 3.     George J. Gaskin, “Drill Ye Terriers Drill” (1896) from an E. Berliner's Gramophone shellac disc. 01:24 04:10 4.     Sousa's Band, “Happy Days In Dixie” (1897) from an E. Berliner's Gramophone shellac disc. 01:43 05:36 5.     Emperor Franz Joseph, short message recorded on Valdemar Poulsen's Telegraphone (1900). Early magnetic wire recording. Recording made without microphone. 00:09 07:18 6.     Sousa's Band, “The Mosquito Parade” (1904) from Columbia Records shellac disc. Note the higher fidelity of the instruments compared to earlier recordings on disc, recorded without electrical microphones but optimizing the use of acoustic horns for sound intake. 02:54 07:28 7.     Noble Sissle (vocals) and Eubie Blake (piano), medley of popular songs (1923). Recording using onto an early sound film using the Phonofilm process invented by Lee de Forest. 06:51 10:22 8.     Paul Whiteman And His Concert Orchestra, “Rhapsody In Blue” (1924) from an RCA Victor shellac disc. This is an acoustically recorded version of this piece, without the benefit of vacuum tube amplification or electrical microphones. Compare to the 1927 version (next), also by Whiteman, produced using electrical recording. 09:06 17:12 9.     Paul Whiteman And His Concert Orchestra, “Rhapsody In Blue” (1927) from RCA Victor, His Master's Voice shellac disc. An electrical recording using vacuum tube amplification and electrical microphones. 08:59 26:30 10.   Paul Hindemith, “Trickaufnahme” (excerpt) (1930), an experiment in turntablism using turntable discs to both record, mix, and playback the result. 00:58 35:28 11.   BBC, “Pieces of Tape” excerpt of a program (1933) produced by editing together segments recorded previously using the Blattnerphonesteel tape recorded that used a magnetic process. This was the first audio recording assembled using tape editing. A dozen years prior to the available of magnetic tape, edits made to steel tape had to be made by spot welding. 05:29 36:28 12.   Sidney Bechet, “Blues of Bechet” (1941) from an RCA Victor shellac disc. An early example of overdubbing/multitracking. Bechet played every instrument on this track, including the piano, clarinet and soprano saxophone. Each instrument was recorded onto a new master disc and mixed on another disc to create the final recording. 01:57 41:56   Additional opening, closing, and other incidental music by Thom Holmes. My Books/eBooks: Electronic and Experimental Music, sixth edition, Routledge 2020. Also, Sound Art: Concepts and Practices, first edition, Routledge 2022. See my companion blog that I write for the Bob Moog Foundation. For a transcript, please see my blog, Noise and Notations. Original music by Thom Holmes can be found on iTunes and Bandcamp.

The most important energy regulators in the United States aren't all in the federal government. Each state has its own public utility commission, a set of elected or appointed officials who regulate local power companies. This set of 200 individuals wield an enormous amount of power — they oversee 1% of U.S. GDP — but they're often outmatched by local utility lobbyists and overlooked in discussions from climate advocates. Charles Hua wants to change that. He is the founder and executive director of PowerLines, a new nonprofit engaging with America's public utility commissions about how to deliver economic growth while keeping electricity rates — and greenhouse gas emissions — low. Charles previously advised the U.S. Department of Energy on developing its grid modernization strategy and analyzed energy policy for the Lawrence Berkeley National Laboratory.On this week's episode of Shift Key, Rob and Jesse talk to Charles about why PUCs matter, why they might be a rare spot for progress over the next four years, and why (and how) normal people should talk to their local public utility commissioner. Shift Key is hosted by Jesse Jenkins, a professor of energy systems engineering at Princeton University, and Robinson Meyer, Heatmap's executive editor.Mentioned:PowerLinesMIT's Utility of the Future studyWho's controlling our energy future? Industry and environmental representation on United States public utility commissionsPreviously on Shift Key: How to Fix Utility Bills in AmericaRob's downshift; Jesse's downshift.--This episode of Shift Key is sponsored by …Download Heatmap Labs and Hydrostor's free report to discover the crucial role of long duration energy storage in ensuring a reliable, clean future and stable grid. Learn more about Hydrostor here.Music for Shift Key is by Adam Kromelow. Hosted on Acast. See acast.com/privacy for more information.

I jakten på de aller tyngste av våre grunnstoff spiller California en viktig rolle. Dette var nemlig arnested for mye av forskningen på de såkalte transurane grunnstoffene i etterkrigsårene, før også andre land begynte å melde seg på i kampen om å finne, og ikke minst navngi, de store blanke rommene i det periodiske system etter Uran. Denne gangen har vi derfor vimset oss borti grunnstoffet med det velklingende navnet Californium. Fremstilt på det prestisjetunge Lawrence Berkeley National Laboratory i California på 50-tallet representerer dette grunnstoffet virkelig spydspissen i menneskets jakt på å løse naturens mysterier. Idag er Californium blant de tyngre grunnstoffene som faktisk blir produsert kommersielt, på tross av en svært komplekst og ekstremt dyr produksjonsprosess. Men så kan det også søke opp gull, kurere kreft og avdekke mordere. Bli med oss på vår vimsete reise gjennom det periodiske system der vi får nerdet fra oss og gravd oss dypt ned i hvert enkelt grunnstoff, men på et nivå som alle skal kunne forstå. Med oss på reisen har vi eksperter som kan mer enn de fleste om de ulike grunnstoffene og hjelper oss å skjønne litt mer av det vi alle er lagd av. Vi er Gunstein Skomedal (materialteknolog UiA), Ole Martin Løvvik (fysiker, UiO/Sintef) og Birte Runde (journalist i Eyde-klyngen)Har du forslag til grunnstoff vi bør snakke om, gjester/eksperter vi bør invitere eller besøke, eller morsomme fakta og historier om et grunnstoff? Eller har du innspill til lyd, form, innhold eller annet? Send oss gjerne tilbakemelding på gunstein.skomedal@uia.no.Sjekk ut våre nettsider grunnstoffene.no for en periodisk oversikt over podcastepisodene. Du finner også videoer og annet stoff på vår youtube-kanal Grunnstoffene og eksperimenter - YouTube eller på Facebook

Osteosarcoma Webinar Series: Alexander Davies, DVM, PhD joins us on OsteoBites to discuss his work which is focused on dynamic tumor-microenvironment signaling cross-talk, signal integration, and the development of 3D organotypic and tissue models to study these interactions using live-cell microscopy techniques. Results from studies in the Davies Lab demonstrate the utility of a novel dynamic live-cell tissue model, the lungSITE model, to quantitatively measure and understand tumor signaling dynamics and behaviors within the context of the lung metastatic niche. Data obtained from this model provided new insights into how spatial position and temporal response influence signaling dynamics, specifically in osteosarcoma lung metastasis, to create intratumoral signaling heterogeneity and consequent single-cell drug response variation. Dr. Alexander Davies graduated with a Ph.D. in Biochemistry and Molecular Biology and a D.V.M., with an interest in comparative oncology, from the University of California, Davis. He then completed a post-doctoral fellowship in cancer biology at Lawrence Berkeley National Laboratory before joining The Ohio State University as faculty in the Department of Veterinary Biosciences. While at OSU he was a member of the Comprehensive Cancer Center and faculty in the Cancer Biology and Cancer Engineering programs. Currently, Dr. Davies is an Assistant Professor at the Knight Cancer Institute within the Division of Oncological Sciences and Cancer Early Detection Advanced Research Center (CEDAR) where his work focuses on dynamic tumor-microenvironment signaling cross-talk, signal integration, and the development of 3D organotypic and tissue models to study these interactions using live-cell microscopy techniques.

Part 4 of 4: My guest today is Rafael Rosengarten, CEO and Co-Founder of Genialis, the RNA biomarker company. Genialis is reimagining biomarkers for every target, drug, and patient using a combination of precision oncology, RNA, and AI. Rafael, a biomedical research veteran, combines academic excellence with industry innovation. A Dartmouth graduate with a Yale doctorate, he conducted postdoctoral research at Lawrence Berkeley National Laboratory, where he co-invented the j5 DNA assembly tool. As co-founder of the Alliance for AI in Healthcare, he advocates for responsible AI integration in medicine, drawing from his extensive background in evolution, immunology, bioengineering, and genetics.

Part 3 of 4: My guest today is Rafael Rosengarten, CEO and Co-Founder of Genialis, the RNA biomarker company. Genialis is reimagining biomarkers for every target, drug, and patient using a combination of precision oncology, RNA, and AI. Rafael, a biomedical research veteran, combines academic excellence with industry innovation. A Dartmouth graduate with a Yale doctorate, he conducted postdoctoral research at Lawrence Berkeley National Laboratory, where he co-invented the j5 DNA assembly tool. As co-founder of the Alliance for AI in Healthcare, he advocates for responsible AI integration in medicine, drawing from his extensive background in evolution, immunology, bioengineering, and genetics.

Part 2 of 4: My guest today is Rafael Rosengarten, CEO and Co-Founder of Genialis, the RNA biomarker company. Genialis is reimagining biomarkers for every target, drug, and patient using a combination of precision oncology, RNA, and AI. Rafael, a biomedical research veteran, combines academic excellence with industry innovation. A Dartmouth graduate with a Yale doctorate, he conducted postdoctoral research at Lawrence Berkeley National Laboratory, where he co-invented the j5 DNA assembly tool. As co-founder of the Alliance for AI in Healthcare, he advocates for responsible AI integration in medicine, drawing from his extensive background in evolution, immunology, bioengineering, and genetics.

Part 1 of 4: My guest today is Rafael Rosengarten, CEO and Co-Founder of Genialis, the RNA biomarker company. Genialis is reimagining biomarkers for every target, drug, and patient using a combination of precision oncology, RNA, and AI. Rafael, a biomedical research veteran, combines academic excellence with industry innovation. A Dartmouth graduate with a Yale doctorate, he conducted postdoctoral research at Lawrence Berkeley National Laboratory, where he co-invented the j5 DNA assembly tool. As co-founder of the Alliance for AI in Healthcare, he advocates for responsible AI integration in medicine, drawing from his extensive background in evolution, immunology, bioengineering, and genetics.

Data center power demand will grow to between 6.7% and 12% of total US power demand by 2028, per a new report published by the Lawrence Berkeley National Laboratory - growing to fit the grid. China's green hydrogen industry has achieved $1.6 per kilogram green hydrogen, but this still isn't cheap enough for mass adoption over grey hydrogen. Europe's negative power price periods become ever more frequent, further incentivizing battery developments.

In this Convo of Flanigan's Eco-Logic, Ted speaks with Charles Hua, Founder and Executive Director of PowerLines, a new nonprofit organization aiming to modernize utility regulation to accelerate affordable, reliable, and clean energy for American consumers. He is also an energy analyst who has worked at Rewiring America, DOE's Loan Programs Office, and now at the Lawrence Berkeley National Laboratory as a research affiliate.Charles wants people to pay attention to the enormous influence that public utility commissions (PUCs) have on the U.S. energy transition, and get involved with this long-neglected area, pushing for a utility regulatory system that can better serve American consumers, grow the economy, and support communities. His concern is that most states have an outdated utility regulatory system that is not prepared to tackle modern energy challenges. He also claims that there are 200 commissioners controlling the monopolistic utilities at the heart of America's electricity system, with over 200 billion dollars in utility spending.By engaging with the people, policies, and processes needed to deliver on this agenda, PowerLines approach is to pull together a big tent coalition of people interested in public utility commission (PUC) reform, including PUC staffers themselves, state legislators, clean energy providers and customers, academics and researchers, as well as grassroots groups. They'll serve as a hub for modernizing utility regulation by bringing together these diverse stakeholders to share ideas, resources, and solutions on a path forward to effective utility regulation.Charles and Ted dig into the problems with PUCs, discussing the unrestrained, unregulated authority over the U.S. electricity system. With the immense power and significance on the country's clean energy future, Charles highlights opportunities for reform, including the revision of statutes, the effectiveness of integrated resource plans, decarbonization, equity, and creating more latitude or space for regulators to embrace a more forward-thinking, innovation-oriented mindset.

In this episode of The Climate Stack,  Mansi sits down with Vish Ganti, a visionary product leader at the nexus of clean energy, AI, and fintech. Together, they explore the transformative potential of virtual power plants (VPPs) in reducing reliance on carbon-intensive peaker plants and stabilizing the grid. Vish sheds light on how VPPs integrate distributed energy resources (DERs) and the critical need for open standards to create a frictionless ecosystem.VPPs are a prime example of how smart software optimizations can revolutionize the deployment and utilization of physical energy assets. By leveraging software to orchestrate diverse DERs, VPPs enable more efficient energy management, reducing waste and enhancing grid reliability. Discover why simplifying communication between DERs is essential for advancing sustainable energy solutions and making power management through VPP aggregators a reality.Our Guest Vish GantiVish is currently serving as Senior Director of Product Management for Virtual Power Plants (VPPs) at Qcells, Vish specializes in developing scalable energy platforms that integrate first-party hardware with industry-leading solutions from partners like Enphase, Tesla, and SolarEdge. His expertise lies in transforming distributed energy resources into bankable grid assets through advanced edge AI technologies, enabling smarter energy systems and sustainable revenue models.Previously, Vish held leadership roles at AutoGrid, where he spearheaded the development of AutoGrid Flex, a SaaS platform for VPPs and 24x7 Carbon-Free Energy solutions, and contributed to the company's acquisition by Schneider Electric. He also worked with renowned organizations such as CPower Energy, Johnson Controls, and Lawrence Berkeley National Laboratory, focusing on demand response, DER optimization, and energy system innovation.Vish holds a Master of Science in Electrical & Energy Systems from San Francisco State University and a Bachelor of Science in Electronics & Communications from Jawaharlal Nehru Technological University. A thought leader in the clean energy space, Vish has co-authored industry-recognized publications and continues to drive impactful solutions that advance the global transition to renewable energy.https://www.linkedin.com/in/vishganti/Your Hosts Mansi Shah - Joshua Marker ClimateStack

You interact with about two-thirds of the elements of the periodic table every day. Some, like carbon, oxygen, and nitrogen, make up our bodies and the air we breathe. Yet there is also a class of elements so unstable they can only be made in a lab. These superheavy elements are the purview of a small group stretching the boundaries of chemistry. Can they extend the periodic table beyond the 118 in it now? Find out scientists are using particle accelerators to create element 120 and why they've skipped over element 119. Plus, if an element exists for only a fraction of a second in the lab, can we still say that counts as existing? Guests: Mark Miodownik – professor of materials and society at the University of College London and the author of “It's a Gas: The Sublime and Elusive Elements That Expand Our World.” Kit Chapman – Science historian at Falmouth University, author of “Superheavy; Making and Breaking the Periodic Table.” Jennifer Pore – Research Scientist of Heavy Elements at Lawrence Berkeley National Laboratory. Featuring music by Dewey Dellay and Jun Miyake Big Picture Science is part of the Airwave Media podcast network. Please contact advertising@airwavemedia.com to inquire about advertising on Big Picture Science. You can get early access to ad-free versions of every episode by joining us on Patreon. Thanks for your support!   Learn more about your ad choices. Visit megaphone.fm/adchoices

You interact with about two-thirds of the elements of the periodic table every day. Some, like carbon, oxygen, and nitrogen, make up our bodies and the air we breathe. Yet there is also a class of elements so unstable they can only be made in a lab. These superheavy elements are the purview of a small group stretching the boundaries of chemistry. Can they extend the periodic table beyond the 118 in it now? Find out scientists are using particle accelerators to create element 120 and why they've skipped over element 119. Plus, if an element exists for only a fraction of a second in the lab, can we still say that counts as existing? Guests: Mark Miodownik – professor of materials and society at the University of College London and the author of “It's a Gas: The Sublime and Elusive Elements That Expand Our World.” Kit Chapman – Science historian at Falmouth University, author of “Superheavy; Making and Breaking the Periodic Table.” Jennifer Pore – Research Scientist of Heavy Elements at Lawrence Berkeley National Laboratory. Featuring music by Dewey Dellay and Jun Miyake Big Picture Science is part of the Airwave Media podcast network. Please contact advertising@airwavemedia.com to inquire about advertising on Big Picture Science. You can get early access to ad-free versions of every episode by joining us on Patreon. Thanks for your support!   Learn more about your ad choices. Visit megaphone.fm/adchoices

Topic: Powerful Partnerships: Community Engagement for Renewable Energy ProjectsModerator: Glenna Wiseman, Head of Marketing and Communications for Origis Energy Guest: Joe Rand, Energy Policy Researcher in the Energy Markets and Policy Department at Lawrence Berkeley National LaboratoryIn Episode 23 of Power Players by Origis®, host Glenna Wiseman, Head of Marketing and Communications for Origis Energy, and Joe Rand, Energy Policy Researcher in the Energy Markets and Policy Department at Lawrence Berkeley National Laboratory, discuss engaging communities when developing renewable energy projects.Three key takeaways: 1. Community opposition is not a fringe or minor concern and must be addressed by developers.2. Developers who see the bigger picture and engage with local communities improve the landscape for themselves for later projects and others in additional communities to help the U.S. meet renewable energy goals. 3. Robust engagement strategies can help improve the bottom line for developers.

"Geophysics and archaeology are merging in a powerful way, helping us understand ancient communities without damaging their sites. It's about learning from the past while honoring it." In this episode, we look at how geophysics transforms archaeology by enabling researchers to uncover hidden historical sites without digging. Guests Michael Wilt and Richard Krahenbuhl discuss incredible advances in non-invasive tools like ground-penetrating radar and drones, which help archaeologists map ancient structures, even in challenging urban environments. From Egypt's pyramids to hidden city sites, learn how geophysical tools give us new ways to explore history and preserve it for future generations. KEY POINTS & TAKEAWAYS > How Geophysics is Shaping Archaeology: Discover how methods like radar, magnetics, and resistivity are helping archaeologists "see" beneath the surface without disturbing sensitive sites, preserving cultural heritage along the way. > Challenges of Urban Archaeology: Hear about the unique struggles of working in cities, where modern infrastructure like pipes and cables can interfere with data, and discover how researchers overcome these obstacles. > The Future of Non-Invasive Tech: Geophysical archaeology is evolving fast with emerging tools like drones and AI. Find out how these innovations lead to more precise data and help archaeologists uncover even the faintest traces of history. > Real-World Impact on Communities: From preserving early Christian structures to documenting West Africa's historic sites, learn how geophysics helps connect people and students with their past while respecting cultural sensitivities. > Becoming a Geophysical Archaeologist: Inspired by this field? Explore the unique blend of skills that bridge archaeology and geophysics, and hear what it takes to work in this exciting, emerging area. Listen to this episode to learn how geophysical tools push archaeology forward, giving us new ways to study and preserve our history. Dr. Richard Krahenbuhl is a research assistant professor in the Geophysics Department at the Colorado School of Mines. Dr. Michael Wilt is an affiliate with the Lawrence Berkeley National Laboratory. THIS EPISODE SPONSORED BY BLUWARE Bluware's InteractivAI is a human-powered AI seismic analysis tool, revolutionizing the way geoscientists extract value from seismic data. Unlike traditional seismic interpretation tools that just "check the box" for AI through black box algorithms, InteractivAI puts the interpreter in the driver's seat by presenting an intuitive, live feedback loop. Users experience a faster and more comprehensive interpretation, leading to higher-confidence decision-making. Learn more at https://bluware.com. LINKS * Visit https://seg.org/podcasts/episode-241-how-geophysics-is-revolutionizing-archaeological-exploration for the complete show notes and links to read this special section. SHOW CREDITS Andrew Geary at TreasureMint hosted, edited, and produced this episode. The SEG podcast team comprises Jennifer Cobb, Kathy Gamble, and Ally McGinnis. If you have episode ideas or feedback for the show or want to sponsor a future episode, email the show at podcast@seg.org.

Bo Dean and Jvanete Skiba of Wilmington, North Carolina, join Michael Sapp, CEO of the Trauma Resource Institute, and Elaine Miller-Karas, host of Resiliency Within, to discuss valuable lessons learned to enhance the well-being of survivors from Hurricane Florence and other disasters. Their reflections and the interventions they have adopted offer crucial insights for the people of the Northeast United States, who are grappling with the devastation caused by Hurricane Helene. Hurricane Helene revealed that even inland, high-elevation areas are not immune to flooding and destruction, especially in a world where planetary warming fuels more intense rainfall. Preliminary analyses have linked climate change to Helene's catastrophic rains. In particular, climate scientist Michael Wehner's study at the Lawrence Berkeley National Laboratory found that precipitation levels in Georgia and the Carolinas—exceeding 30 inches in some areas over just three days—were up to 20 times more likely due to human-induced warming. Extreme weather events like Hurricane Helene are closely tied to a range of adverse mental health outcomes. Common mental health conditions that arise in the wake of such disasters include post-traumatic stress disorder (PTSD), depression, anxiety, suicide, and substance abuse disorders (Cianconi et al., 2020). The recovery journey for those affected by Hurricane Helene has just begun. While emergency mental health workers and first responders provide initial support, the lasting impacts on the mental health of a disaster-stricken community often persist for weeks, months, or even years. Mental health systems can face severe strain as the demand for services frequently exceeds local capacity, compounding the challenges survivors must overcome.

Bo Dean and Jvanete Skiba of Wilmington, North Carolina, join Michael Sapp, CEO of the Trauma Resource Institute, and Elaine Miller-Karas, host of Resiliency Within, to discuss valuable lessons learned to enhance the well-being of survivors from Hurricane Florence and other disasters. Their reflections and the interventions they have adopted offer crucial insights for the people of the Northeast United States, who are grappling with the devastation caused by Hurricane Helene. Hurricane Helene revealed that even inland, high-elevation areas are not immune to flooding and destruction, especially in a world where planetary warming fuels more intense rainfall. Preliminary analyses have linked climate change to Helene's catastrophic rains. In particular, climate scientist Michael Wehner's study at the Lawrence Berkeley National Laboratory found that precipitation levels in Georgia and the Carolinas—exceeding 30 inches in some areas over just three days—were up to 20 times more likely due to human-induced warming. Extreme weather events like Hurricane Helene are closely tied to a range of adverse mental health outcomes. Common mental health conditions that arise in the wake of such disasters include post-traumatic stress disorder (PTSD), depression, anxiety, suicide, and substance abuse disorders (Cianconi et al., 2020). The recovery journey for those affected by Hurricane Helene has just begun. While emergency mental health workers and first responders provide initial support, the lasting impacts on the mental health of a disaster-stricken community often persist for weeks, months, or even years. Mental health systems can face severe strain as the demand for services frequently exceeds local capacity, compounding the challenges survivors must overcome.

Let us know how we're doing - text us feedback or thoughts on episode contentIn this episode, Paul sits with Stephanie Doyle, the California State Affairs Director for the Solar Energy Industries Association (SEIA), to discuss the changes that California has implemented to their net metering tariff for rooftop solar.NEM 3.0 (or also known as the Net Billing Tariff (NBT)) has reimagined the solar market in California, dramatically reducing the compensation that homeowners receive for generating excess power while incentivizing investment into battery storage and into disadvantaged communities. One year on from the launch of NEM 3.0 and we have a bit of perspective on how the new tariff is working. Paul and Stephanie dig into what NEM 3.0 is all about and the impact it's having on California's solar market.For further reference:Stephanie Doyle"NEM 3.0 in California: What you need to know" - Energy Sage"One Year In: Tracking the Impacts of NEM 3.0 on California's Residential Solar Market" - Lawrence Berkeley National Laboratory"The fight over the future of rooftop solar in California" - Canary MediaFollow Paul on LinkedIn.

Lithium Ion BatteriesLithium ion batteries are a popular type of rechargeable battery, used in a variety of devices from laptops and cell phones to hybrid and electric vehicles. Lithium ion batteries have grown in use due to their light weight, high energy density, and ability to recharge. While these batteries are used to store electricity and, therefore, as an element of alternative to fossil fuels, the process to mine and obtain lithium has harmful effects on the environment. Lithium is a soft, light metal found in rocks and subsurface fluids called brines. The mining of battery materials and manufacturing the batteries can generate significant amounts of greenhouse gas emissions. The disposal of these batteries is also a concern, as the battery cells can release toxins such as heavy metals into soil and groundwater if not properly disposed of. In these cases, lithium ion batteries have also been found to cause fires, which is especially dangerous if misplaced in a landfill. There is a growing effort  to recycle these batteries due to the environmental issues and demand for batteries, but that faces obstacles as well. A New AlternativeDue to the concerns around the safety, cost and supply of materials for lithium-ion batteries, the industry is in search of more sustainable elements to use for batteries, such as manganese. Researchers at the U.S. Department of Energy's Argonne National Laboratory are developing lithium-ion cathode technology that has sustainable increased use of manganese. When a battery charges, lithium ions flow from the cathode to the anode, a process that reverses when the battery is discharged. Researchers have already created a nickel-manganese-cobalt (NMC) cathode material that is rich in lithium that has the potential to have increased storage capacity over conventional materials. The Argonne National Laboratory is working on a version of NMC technology that boosts the lithium and manganese content to improve the batteries energy density and safety while decreasing costs. A battery with a manganese-rich cathode is less expensive and safer than one with high nickel concentrations, but not without caveats. Increasing the manganese and lithium content can decrease the cathode's stability, impacting its performance overtime.Future of BatteriesThe U.S. Department of Energy has made it a priority to find more sustainable materials for electric vehicle batteries. Other strategies include decreasing the amount of cobalt by using higher percentages of nickel, but this also poses challenges. Nickel is more abundant than cobalt but less than a fifth of the current supply is suitable for battery use. In reality, there is less nickel than expected and increased use could cause a spike in prices. At the Lawrence Berkeley National Laboratory, a consortium of scientists is developing the commercialization of a new family of battery cathode materials called DRX, or disordered rock salt. DRX could provide batteries with higher energy densities than conventional lithium-ion batteries that contained metals in short supply, like nickel and cobalt. The consortium is focused on making DRX cathodes out of more affordable and abundant metals, like manganese and titanium. About our GuestDr. Jason Croy is a Materials Scientist at Argonne National Laboratory whose work focuses on the design, synthesis, and characterization of high-energy lithium-ion electrode materials. Prior to his work at the Argonne National Laboratory, Croy was a musician and toured with his rock band for nearly ten years before attending college. He taught himself physics before enrolling in college, then going on to earn his Ph.D. in Physics from University of Central Florida. Croy is an internationally recognized expert on lithium- and manganese-rich cathode materials and has published numerous articles on the atomic-scale mechanisms governing the performance of lithium-ion electrodes.For a transcript of this episode, please visit https://climatebreak.org/improving-lithium-ion-batteries-the-magnesium-solution/

We all know that extreme weather events like hurricanes are getting worse due to climate change, but what scientists would really like to know is: By how much worse exactly? This year a team of researchers argued that hurricanes have become so much more extreme due to climate change that we need to add a new category 6 to the Saffir-Simpson scale, which measures the wind speed of hurricanes.One of those scientists was Michael Wehner from Lawrence Berkeley National Laboratory. Using the latest and fastest computers to model how a warming world is reshaping extreme weather events, Wehner is leading a  new realm of climate modeling called "end-to-end attribution." This would allow us to not only understand how much worse disastrous weather is becoming but even quantify that difference in terms of damage and destruction.Big Brains is sponsored by the Graham School for Continuing Liberal and Professional Studies.

Synopsis: In this episode of Biotech2050, Vik Bajaj, Co-founder and CEO of Foresite Labs, delves into the convergence of tech and biotech, hyper-growth phases in biotech companies, changes in finance and capital markets, and lessons from global healthcare systems, particularly the UK. He highlights the transformative potential of technology in biotech and the challenges and opportunities of rapid growth. Biography: Vik is the founder and CEO of Foresite Labs, Foresite Capital's entrepreneurial innovation hub. He is also managing director at Foresite Capital, evaluating and pursuing investments at the intersection of technology and life sciences, including in personalized and precision healthcare. Most recently, Foresite Labs, ARCH Venture Partners, and Dr. David Baker of the UW Medicine Institute for Protein Design teamed up to launch Xaira to deliver transformative medicines by harnessing AI for drug discovery and development. With $1B in funding, Xaira launched with one of the largest biotech funding rounds in history. He is also managing director at Foresite Capital, evaluating and pursuing investments at the intersection of technology and life sciences. Prior to joining Foresite Capital, Vik was the chief scientific officer of GRAIL, a life sciences company working to detect cancer early (acquired by ILMN). He is also the co-founder and former chief scientific officer of Verily (formerly Google Life Sciences) and previously served as chair of its scientific advisory board. He is also a Director of Genomics England, an initiative of the United Kingdom's Department of Health, and is a co-founder and director of numerous biotechnology companies. In the educational realm, Vik currently holds the position of Adjunct Associate Professor at the Stanford School of Medicine. He was previously an affiliate scientist at the Lawrence Berkeley National Laboratory and the University of California, Berkeley. He also served on the advisory board of the College of Chemistry at the University of California, Berkeley. Vik's research interests lie at the interface of the physical sciences, engineering, and life sciences, including in the generation and use of large biomedical datasets and new AI/ML methods to productively harness them for product development. In his academic career, he and his collaborators have developed nanotechnology probes for the early detection and molecular imaging of disease, spectroscopic tools for imaging objects on the nanoscale, microfabricated and miniaturized analytical and imaging systems for point-of-care testing, methods and devices that dramatically enhance the sensitivity and specificity of MRI, and new tools for clinical bioinformatics and integrative systems biology. Aspects of this work have been commercialized through several startups. At GRAIL, Vik led laboratory and data science teams at the forefront of industrial cancer genomics and diagnostics development. He holds a Ph.D. in physical chemistry from the Massachusetts Institute of Technology. Vik's scientific and engineering awards include the Anatole Abragam Prize (2012), the R&D 100 Award for the most promising commercialized technologies (2011 and 2013), and the Department of Energy's LBL Innovation Grant (2013).

UN negotiations took place in Ottawa last week, aimed at achieving an international plastics treaty. Leading up to these historic meetings, Lawrence Berkeley National Laboratory has just released a groundbreaking study revealing the enormous climate impact of plastic production. We're joined by Dr. Neil Tangri, Senior Fellow at University of California's Berkeley's Goldman School of Public Policy, to talk about the study and what's needed in the treaty.

What role should Nuclear Power play in energy production? This episode of the podcast explores the case for Nuclear Energy. I speak with Rachel Slaybaugh, who was an Associate Professor of Nuclear Engineering at the University of California, Berkeley, and a Division Director at the Lawrence Berkeley National Laboratory. She also served as a Program Director at the Department of Energy's ARPA‑E, where she created the nuclear fission program. She is currently a partner at DCVC. We discuss three of the main problems that people have with nuclear power: (i) The risk of plant meltdowns, (ii) the storage of nuclear waste, and (iii) the expense of setting up new nuclear plants. We also cover the environmental benefits of nuclear as a low carbon energy source, as well as some of the exciting new advanced reactor designs that are coming online right now. ►Watch on YouTube: https://youtu.be/BIMj1-GAE4E ►You can find out more about Rachel Here: https://www.dcvc.com/team/rachel-slaybaugh/ ►Follow rachel on twitter: @RachelSlaybaugh These conversations are supported by the Andrea von Braun foundation (http://www.avbstiftung.de/), as an exploration of the rich, exciting, connected, scientifically literate, and (most importantly) sustainable future of humanity. The views expressed in these episodes are my own and those of my guests.  

Tune in as host Ian Peterman talks with Beau Wangtrakuldee, Ph.D., founder and CEO of AmorSui, in a transformative discussion about innovating sustainable personal protective equipment (PPE). Beau shares her personal journey, driven by a chemical spill accident during her PhD, which unveiled the inadequacies in existing PPE and sparked the inception of AmorSui. Plus, she explains the company's mission to bridge the gap in the PPE market, focusing on safety, functionality, and sustainability.  What you'll hear about in this episode: The Origin Story of AmorSui: Bridging the Gap in PPE Addressing Sustainability in PPE: A Three-Pronged Approach Challenging the Status Quo: Reusability and Public Perception Building a Brand in the PPE Industry: Trust, Quality, and Sustainability Looking Forward: Expanding the Product Line and Embracing Circular Economy The episode explores the challenges in redefining perceptions around reusable PPE, maintaining high standards of protection, and the brand's commitment to the environment through circular economy practices. Beau discusses AmorSui's approach to product design, combining performance, functionality, and recyclability. She also talks about empowering healthcare professionals through better PPE and the future outlook of the PPE industry towards sustainability. About Beau Wangtrakuldee: Beau Wangtrakuldee, Ph.D., is a multifaceted innovator who has taken a technical approach to radically drive global impact in health and safety. As the founder and CEO of AmorSui, the first global protective wear brand for circular personal protective equipment items and subscriptions, she is on a mission to protect the health of people and the planet. Beau led AmorSui to serve over 30,000 global customers and leading R&D institutions such as Harvard, the University of Pennsylvania, Lawrence Berkeley National Laboratory, Dupont, and Amgen. Today, as a Keynote Speaker, Wangtrakuldee is also promoting gender equity, inclusion and diversity, and circular innovation through talks and presentations. Learn more about Beau Wangtrakuldee and AmorSui: https://www.linkedin.com/in/beauwangtrakuldee/  https://amorsui.com/  https://www.linkedin.com/company/amorsui/ https://www.facebook.com/amorsuiclothing https://www.instagram.com/amorsuiclothing  Download chapter 1 free: https://www.petermanfirm.com/conscious-design-chapter-1-free-download/ Find us online: YouTube Channel: http://bit.ly/3sG7VEi Blog: https://bit.ly/3kltV6s Conscious Design Book: https://www.amazon.com/dp/B09KNMN9BT Join our Newsletter: https://bit.ly/2U8IlMS Hosted by: Ian Peterman Creative Director: Sara Clark Social Media: Jacqueline Sagun Visit our website: https://www.petermanfirm.com/ consciousdesignhaus.com  Want to be a guest? Visit: https://bit.ly/3BetCkf Want to work with us? Connect with Peterman Firm: https://www.petermanfirm.com/connect/ We created this content so creative entrepreneurs like you can integrate social and environmental responsibility into your brand's DNA through Conscious Design. Ian Peterman, a leading expert in Conscious Design, hosts the Conscious Design podcast and is the co-author of the book Conscious Design. If you enjoy our content, please support us by subscribing and sharing our episodes!

In this episode of the podcast hosts Eric Kaiser and Bill Spohn welcomed Amit Gupta from AeroSeal, a company specializing in duct sealing technology. Amit shared the backstory of AeroSeal, which was originally founded based on technology invented by Dr. Mark Modera at Lawrence Berkeley National Laboratory. The technology struggled to gain traction under its initial ownership by Carrier, leading Amit, who was working at Carrier post-MBA, to see the potential for significant energy efficiency improvements in homes through duct sealing. Amit's passion for the technology led to the acquisition and reboot of AeroSeal as an independent company in 2010, focusing on sealing ducts, building envelopes, and potentially underground gas pipelines to improve energy efficiency and reduce waste. AeroSeal's technology addresses the inefficiency and energy loss in buildings by sealing air ducts and envelopes with a patented process that injects micron-sized particles to seal leaks from the inside. This approach is likened to a "fix-a-flat" for buildings, aiming to significantly reduce energy waste and contribute to the net-zero energy building goal. Amit highlighted the vast potential impact of their technology, noting that buildings contribute to a significant portion of CO2 emissions and energy consumption, primarily through heating and cooling. By improving the sealing of ducts and envelopes, AeroSeal aims to address this inefficiency systematically, offering a solution for both new construction and existing buildings. The conversation also touched on the challenges and opportunities in promoting AeroSeal's technology. Amit discussed the common acceptance of inefficient HVAC systems by homeowners and the industry's gradual shift towards recognizing the importance of energy efficiency and indoor air quality. The technology's application ranges from residential homes to iconic commercial buildings, demonstrating its scalability and effectiveness. Amit emphasized the importance of action and awareness in adopting such technologies to make a tangible impact on energy efficiency and environmental sustainability. This episode was recorded in January 2024.

At the center of climate progress are scientists. They're developing new technologies with which we can build a new, more sustainable global economy. Moving inventions from a lab to startup companies to scaled products, however, takes more than science. Research scientists had long lacked a support structure to help them build successful businesses. That's where Activate came in. Founded in 2015 at the Lawrence Berkeley National Laboratory, Activate is a fellowship program that has helped almost 200 science fellows create companies that have now collectively created about 2,000 jobs and have raised about $1.5 billion. To learn more about Activate's important work, we're joined today by Activate CEO Cyrus Wadia. Cyrus brings a unique background spanning time in the Obama Administration, academia, Nike, and Amazon. We talk about how Activate works, lessons they're gathering across climate tech verticals, examples of companies emerging from their fellowship, opportunities, gaps, and much more. I'm a big fan of the work Activate is doing and I'd guess you'll soon be too. Enjoy.In today's episode, we cover:[3:13] Cyrus' background & career journey[6:01] Activate & the problem that its aiming to solve[9:47] The ideal Activate Fellow[12:38] The support that Fellows get & how the Fellowship works[14:25] Activate's achievements[16:41] Success stories & companies that have emerged from the Fellowship[20:02] What's coming & gaps[22:20] Examples of where friction is lower for climate tech to scale[26:35] Applications of AI [31:54] The involvement of corporate partners & how they can show up[34:36] How else do we need to change our approach to addressing climate changeResources MentionedActivateSublime SystemsCalWaveFervoProject RedNoon EnergySoneraLawrence Berkeley National LabCyclotron RoadConnect with Cyrus WadiaConnect with Cyrus on LinkedInConnect with Jason RissmanOn LinkedInOn TwitterKeep up with Invested In ClimateSign up for our NewsletterLinkedInInstagram

A national network of CO2 and biomass transportation infrastructure, spanning pipelines to rail routes, will be needed to support the permanent removal of atmospheric CO2. Can the network be economically built? --- In December the Lawrence Berkeley National Laboratory published Roads to Removal: Options for Carbon Dioxide Removal in the United States, which explores pathways to permanently remove carbon dioxide from Earth's atmosphere. The report provides a granular, county-by-county look at the potential for atmospheric carbon to be captured and stored across the U.S., and highlights the fact that the best places for carbon to be captured, and stored, are frequently not the same. On the podcast, two report authors explore the need to develop a nationwide, multi-modal transportation network to move carbon dioxide and a related climate commodity, biomass, at scale, and potentially over great distances, to permanent geologic storage sites. Pete Psarras is a research assistant professor in chemical and biomedical engineering at the University of Pennsylvania's School of Engineering and Applied Sciences. Hélène Pilorgé is a research associate whose work focuses on carbon management. The two explore the geography of carbon removal and storage, the challenging logistics of a future, multi-modal carbon transportation network, and how that network might be most economically built. Pete Psarras is a research assistant professor in chemical and biomedical engineering at the University of Pennsylvania's School of Engineering and Applied Sciences, and a researcher with the University of Pennsylvania's Clean Energy Conversions Laboratory. Hélène Pilorgé is a research associate with the University of Pennsylvania's Clean Energy Conversions Laboratory. Related Content A New Era of Policy in Solar Geoengineering https://kleinmanenergy.upenn.edu/research/publications/a-new-era-of-policy-in-solar-geoengineering/ Ammonia's Role in a Net-Zero Hydrogen Economy https://kleinmanenergy.upenn.edu/research/publications/ammonias-role-in-a-net-zero-hydrogen-economy/ Why the IRA's Carbon Capture Tax Credit Could Increase Greenhouse Emissions (Podcast) https://kleinmanenergy.upenn.edu/podcast/why-the-iras-carbon-capture-tax-credit-could-increase-greenhouse-emissions/   Energy Policy Now is produced by The Kleinman Center for Energy Policy at the University of Pennsylvania. For all things energy policy, visit kleinmanenergy.upenn.eduSee omnystudio.com/listener for privacy information.

Dr. Harshini Mukundan, Program Manager and Scientist for Chemical and Biological Technologies at the Office of National and Homeland Security, Lawrence Berkeley National Laboratory, and visiting Scientist at Los Alamos National Laboratory sat down with host and AAAS STPF fellow Dr. Adejare (Jay) Atanda to discuss her research on pathogen agnostic disease detection and diagnostics, why this is important for biodefense against unknown biothreats, the role of technological innovations in pathogen agnostic detection and diagnostics, limitations of existing technological tools, and the vital importance of public-private partnerships in transforming this field. This conversation also covered the challenges women, people of color and immigrants face as scientists, the importance of mentorship in mitigating these challenges and her own mentorship and advocacy work to educate young girls about STEM careers as a AAAS IF/THEN STEM Ambassador and guest on CBS's “Mission Unstoppable” among other efforts.   This podcast does not necessarily reflect the views of AAAS, its Council, Board of Directors, officers, or members. AAAS is not responsible for the accuracy of this material. AAAS has made this material available as a public service, but this does not constitute endorsement by the association.

What is CRISPR?DNA contains the fundamental information about an organism, and is used as an instruction manual to guide organism structure and function. Until CRISPR (short for Clustered Regularly Interspaced Short Palindromic Repeats) technology was developed by Jennifer Doudna and Emmanuelle Charpentier, editing DNA sequences was very difficult. Here's the short version of the CRISPR process. First, a CRISPR enzyme is guided by an RNA strand to a DNA strand researchers want to edit. The RNA strand guides the enzyme to a specific point, and the enzyme cuts the DNA molecule. This CRISPR process can be used to eliminate DNA strands, as well as to replace DNA strands using other “repair” enzymes. It is a direct way for human beings to alter the planet's biological blueprint, and, accordingly, its impact can be a strong force for change, positive or negative. How can CRISPR be used to fight climate change?CRISPR can be used to edit the genetic sequences of plants so that they capture more carbon during photosynthesis, and store it in the ground long-term. Since around a third of the Earth's land is cropland, CRISPR-modified agriculture could potentially sequester billions of tons of carbon each year. Professor Kris Niyogi at UC Berkeley studies how CRISPR can be used to increase the efficiency of sunlight utilization in plants during photosynthesis. Photosynthesis captures carbon dioxide, and requires sunlight to do so. By not letting any sunlight go to waste, the plant can capture more carbon dioxide from the atmosphere. CRISPR can also be used to create plants with deeper roots, enabling carbon to be stored deeper in the ground. UC Berkeley Professor Peggy Lamaux studies sorghum plants, searching for the genes responsible for sorghum's deep roots. Related genes in rice and wheat could be altered to have deeper roots, like the sorghum plant. And UC Berkeley Professor Jill Banfield studies how plant-microbe interactions can be altered by CRISPR to store more carbon in soil. Soil microbes secrete sticky biopolymers, which can take soil humic substances and lock them with minerals to create long-lasting associations (potentially up to 100 years) that hold carbon. The Banfield lab aims to CRISPR-modify plants so that they chemically “talk” to microbes, emitting chemicals that encourage the microbes to create more “sticky” carbon, rather than carbon that would be emitted into the atmosphere. Who is Kris Niyogi?Kris Niyogi is a Howard Hughes Medical Institute Investigator, a professor in the Department of Plant and Microbial Biology at the University of California, Berkeley, and a faculty scientist in the Molecular Biophysics and Integrated Bioimaging Division at Lawrence Berkeley National Laboratory. The Niyogi Lab studies photosynthetic energy conversion and its regulation in algae and plants. The lab's long-term research goals are to understand how photosynthesis operates, how it is regulated, and how it might be improved to help meet the world's needs for food and fuel. Dr. Niyogi earned his biology PhD from MIT. Further ReadingIn 10 years, CRISPR transformed medicine. Can it now help us deal with climate change? | University of CaliforniaThis scientist thinks she has the key to curb climate change: super plantsSupercharging Plants and Soils to Remove Carbon from the AtmosphereCRISPR-Cas Can Help Reduce Climate ChangeCan we hack DNA in plants to help fight climate change? For a transcript, please visit https://climatebreak.org/using-crispr-to-fight-climate-change-with-professor-kris-niyogi/

In this week's episode, host Daniel Raimi talks with Will Gorman, a research scientist at Lawrence Berkeley National Laboratory, about the interconnection queue. The interconnection queue is the waiting list for developers that hope to connect power plants to the electric grid; regulators must first study the potential effects of connecting a plant to the grid before moving forward with a project. Gorman discusses the reasons for recent growth in queue wait times, the costs that are associated with connecting a new power plant to the grid, a new federal regulation that aims to improve the interconnection queue, and additional reforms that could speed up the process of connecting new power plants to the grid. References and recommendations: “Improvements to Generator Interconnection Procedures and Agreements” from the Federal Energy Regulatory Commission; https://www.ferc.gov/news-events/news/fact-sheet-improvements-generator-interconnection-procedures-and-agreements “Queued Up: Characteristics of Power Plants Seeking Transmission Interconnection” by Joe Rand, Will Gorman, Seongeun Jeong, Fredrich Kahrl, Julie Mulvaney Kemp, Ben Paulos, Dana Robson, Jo Seel, and Ryan Wiser; https://emp.lbl.gov/queues “Generator Interconnection Costs to the Transmission System” by Jo Seel, Will Gorman, Fredrich Kahrl, Julie Mulvaney Kemp, Dev Millstein, Joe Rand, and Ryan Wiser; https://emp.lbl.gov/interconnection_costs “Beyond FERC Order 2023: Considerations on Deep Interconnection Reform” by Tyler H. Norris; https://nicholasinstitute.duke.edu/publications/beyond-ferc-order-2023-considerations-deep-interconnection-reform “Energy at the Movies” television program; http://energyatthemovies.com/about/ “The Art of Energy Efficiency” by Arthur H. Rosenfeld; https://www.annualreviews.org/doi/abs/10.1146/annurev.energy.24.1.33 The “Parable” book series by Octavia E. Butler; https://www.octaviabutler.com/parableseries

Lithium BatteriesWhile the use of lithium to power electric vehicle batteries has been around for close to a decade, and while car manufacturers and scientists have been on the hunt for a more efficient battery, today most manufacturers rely on lithium batteries as their primary go-to for power. This leads to a higher demand for lithium mining. Traditional alkaline batteries cannot be repeatedly recharged, while lithium batteries can be reused and recharged efficiently. Another traditional battery—lead-acid—while cheaper to manufacture than lithium batteries has a comparatively lower energy density, which results in a shorter battery life. History of Lithium MiningWhen lithium was first discovered, it was retrieved through open-pit mining, a more energy- and resource-intensive method of extraction. In the late 1990s, companies began to extract lithium from brines drawn up from deep underground. The salt-filled groundwater brine is filled with lithium byproducts, and once the water evaporates, lithium salts can be extracted. The brine is screened and filtered, and the drying process itself can take upwards of a year. Large pools of brine are left to sit and evaporate after being pumped up from underground. In particular, the Salton Sea, located in Southern California, has been found to contain large amounts of lithium that can be extracted from the salts. If developers and scientists can secure a more efficient way of unearthing the lithium from that source, the Salton Sea could prove to be a major site for lithium production for the US. Currently, companies are focusing their efforts on developing new technology and chemical procedures to extract lithium from the deposits in a more sustainable manner. Pros and Cons of Lithium MiningWhile lithium itself provides a more sustainable, cleaner energy source, the process of acquiring lithium through mining has severe environmental impacts. Lithium mining is very disruptive to ecosystems, requiring large land areas for extraction and evaporation. This often leads to impacts on habit and even food production depending on the location of the mine. Lithium mining can also impact the natural composition of the soil in which sites are located. The extraction process is also one that is extremely water-intensive; water is crucial in dissolving the brine and flushing out the lithium. Once extracted and integrated into batteries, lithium has proved to be reliable, efficient, and essential for powering several different renewable energy sources, namely solar and wind, as well as electric vehicles.  About the guestPatrick F. Dobson is the head staff scientist of the Geothermal Systems Program at the Lawrence Berkeley National Laboratory. He is heavily involved in research surrounding geological and geochemical processes, more specifically his work focuses on the volcanic rocks and the reaction shared between water-rock relations. Dobson's current work at the lab focuses on exploring methods to extract lithium from deposits deep in the Salton Sea. He and his team are devoted to understanding more about the rock composition at the Salton Sea and how establishing geothermal systems in the area could affect lithium production. Dobson has an extensive background in laboratory research and scholarly publications, much of which has largely focused on using geochemistry to record changes in rocks located at geothermal sites. His learnings have significantly contributed to a better understanding of geothermal systems as well as helped in deciding optimal sites for geothermal drilling. Resources & Further ReadingUtilizing supercritical geothermal systems: a review of past ventures and ongoing research activitiesSalton Sea lithium deposits could help EV transition, support economically devastated areaGeochemistryThe Lithium Gold Rush: Inside the Race to Power Electric VehiclesFor a transcript of this episode, please visit https://climatebreak.org/lithium-mining-in-salton-sea-geothermal-system/

This week we welcome Dr. Jovan Pantelic, Ph.D. Research Scientist at WELL Living Lab for a show on COVID, IoT, Wildfires and IAQ. Dr. Pantelic earned his Bachelor of Mechanical Engineering and his M.S. from the Department of Thermal Engineering at the University of Belgrade (Serbia). He earned his Ph.D. from the National University of Singapore where he studied in the School of Design and Environment, Department of Building. Dr. Pantelic joined the Well Living Lab in September 2020 after transitioning from his positions as a Professional Researcher at the University of California Berkeley and Lawrence Berkeley National Laboratory, where he was completing COVID-19 related research. Over the past 17 years, Jovan has worked on various topics related to indoor air quality, spanning from the airborne spread of infectious diseases in the built environment to the impact of large-scale episodic pollution events, such as wildfires, on indoor air. For the past seven years, Jovan has worked in the field on Internet of Things (IoT) sensing and is considered as one of the leading experts in the field.

In Berkeley Talks episode 177, a panel of scholars discusses theoretical physicist J. Robert Oppenheimer and how his years at UC Berkeley shaped him, and how he shaped the university.Oppenheimer, the subject of Christopher Nolan's summer 2023 film Oppenheimer, came to Berkeley in 1929 as an assistant professor and over the next dozen years established one of the greatest schools of theoretical physics. He went on to direct the Manhattan Project's Los Alamos Laboratory during World War II, during which the first nuclear weapons were developed. He's often referred to as “the father of the atomic bomb.”“Exceptional students and postdocs flocked here to Berkeley to work with him,” began Cathryn Carson, a Berkeley professor of history and a specialist in the history of 20th century physics, who moderated the July 28 discussion at Berkeley.“As we'll hear today,” she continued, “the style of work that Oppenheimer unfolded at Berkeley was collaborative, pointed, directed at hard problems, not always successful. His modus operandi, you could say, was, ‘Work hard, play hard.'“He landed in the Bay at a time when much else was in ferment. At the same time that he devoted himself to physics, he got engaged with contemporary left-wing politics. In the Bay Area in the 1930s, that included the fight against fascism in Nazi Germany and Spain and struggles for economic justice and labor in California. The Communist Party was part of that setting, and Oppenheimer immersed himself in the life of the Berkeley faculty, efforts to unionize it and intellectual currents across the university — this broad liberal arts institution that fed his roving mind.”Panelists include:Cathryn Carson, chair and professor of Berkeley's Department of History, whose research includes nuclear history and the history of 20th century physics. She co-edited a volume of papers about Oppenheimer, Reappraising Oppenheimer: Centennial Studies and Reflections.Mark Chadwick, chief scientist and chief operating officer for weapons physics at Los Alamos National Laboratory, who edited and published a suite of papers on the technical history of the Trinity test.Jon Else, professor emeritus of Berkeley's Graduate School of Journalism, who created the documentary The Day After Trinity: J. Robert Oppenheimer and the Atomic Bomb.Yasunori Nomura, a Berkeley professor of physics and director of the Berkeley Center for Theoretical Physics.Karl van Bibber, professor of nuclear engineering at Berkeley, who spent 25 years conducting nuclear energy research at Lawrence Livermore National Laboratory.Listen to the episode and read the transcript on Berkeley News (news.berkeley.edu).Photo by Roy Kaltschmidt, courtesy of Lawrence Berkeley National Laboratory.Music by Blue Dot Sessions. Hosted on Acast. See acast.com/privacy for more information.

In this second episode of season 4 of Direct Current, we dive into a topic that's been in the news a lot lately: extreme weather. While intense storms have splashed across headlines throughout history, the frequency seems to be increasing. Interviews with Colin Zarzycki, an Assistant Professor at Penn State University, and Alan Rhoades, a research scientist with Lawrence Berkeley National Laboratory, help us explain how climate modeling is helping scientists predict what may lie ahead. 

California is set to present its strategic plan to scale an offshore wind power industry based on unconventional floating wind technology. --- In late June the California Energy Commission will submit its strategic plan for the development of offshore wind energy to the state's legislature. The plan is the culmination of two years of efforts by California to jump start its offshore wind industry and help the state reach its goal of 100% carbon free electricity by the year 2045. Yet California's offshore wind ambitions are also a bet on floating offshore wind technology that is required by the state's deep ocean waters. The technology has scarcely been applied anywhere in the world, and it presents infrastructure and economic hurdles that could complicate the state's offshore wind efforts. Tim Fischer, Executive Director for Global Wind with Ramboll, a Danish offshore wind consultancy and engineering consultant to California effort, and Joe Rand of the Lawrence Berkeley National Laboratory, discuss the challenges of quickly scaling floating wind power to meet California's energy goals. They also consider the challenges of connecting large amounts of renewable energy to the on-shore grid, taking into account the need to balance infrastructure development with community priorities. Related Content Ammonia's Role in a Net-Zero Carbon Economy https://kleinmanenergy.upenn.edu/research/publications/ammonias-role-in-a-net-zero-hydrogen-economy/ The Economics of Building Electrification https://kleinmanenergy.upenn.edu/research/publications/the-economics-of-building-electrification/ Scaling Private Finance for Global Solar Growth https://kleinmanenergy.upenn.edu/podcast/scaling-private-finance-for-global-solar-growth/   Energy Policy Now is produced by The Kleinman Center for Energy Policy at the University of Pennsylvania. For all things energy policy, visit kleinmanenergy.upenn.eduSee omnystudio.com/listener for privacy information.

Clean energy technology deployment will play a major role in meeting the Biden administration's “net zero by 2050” goal. To stay on target, America will need to shore up clean energy supply chains, reduce the cost of existing technologies, and fund innovation for up and coming solutions – like carbon capture and storage and fusion energy.  The Energy Team at the White House Office of Science and Technology Policy (OSTP) is a driving force behind these efforts. With its expertise in policy and science, the team helps develop innovation priorities that facilitate a swift, equitable energy transition.  So what is the strategy for deploying the clean energy technology needed to meet net zero goals? What is the timeline for emerging technologies? And how does the OSTP's Energy Team plan to make the transition equitable?  This week host Bill Loveless talks with Sally Benson about the OSTP's history as an innovation engine, and its current role in meeting net zero by 2050 goals. Sally is the deputy director for energy and the chief strategist for the energy transition at OSTP. She helps oversee the Net Zero Game Changers Initiative, which funds innovation in clean energy technologies for building heating and cooling, aviation, nuclear fusion, and other areas. Sally joined the Biden administration as the Precourt Family Professor of Energy Resources Engineering at Stanford University. She has also held various positions at the Lawrence Berkeley National Laboratory.

Four decades ago, three quarters would've gone a lot further than they do today. With that kind of loose change you could've picked up some milk from the grocery store, or over half a gallon of gas, or a bus ticket. But that doesn't explain why, on one fateful day in 1986, a systems administrator at the Lawrence Berkeley National Laboratory in California made such an issue over 75 missing cents.

Dr. Melissa Franklin is the Mallinckrodt Professor of Physics at Harvard University. Melissa's research aims to better understand the nature of space and time. To accomplish this, Melissa uses large particle accelerators to collide particles together. This produces a lot of energy in a relatively small space over a relatively short time. She and her colleagues observe what happens when these particles collide under the conditions of excited spacetime that they created. Some of Melissa's favorite things to do when she's not working include reading, watching movies, listening to music, and going for walks. On a sunny day, you can often find her enjoying a scenic walk alongside the nearby pond in Cambridge. She completed her undergraduate studies in Physics at the University of Toronto and received her PhD in Physics from Stanford University. Next, Melissa conducted research as a postdoctoral fellow at the Lawrence Berkeley National Laboratory. She served on the faculty of the University of Illinois, Urbana-Champaign and was a Junior Fellow in the Society of Fellows at Harvard before joining the faculty there. Melissa has been named a Fellow of the Alfred P. Sloan Foundation and a Fellow of the American Physical Society, and she has been awarded the Spark Award for Women in Science from the Women in Science at Harvard-Radcliffe, as well as a Doctorate Degree in Law from Queens University in Canada. Melissa is with us today to tell us all about her journey through life and science.