Climate Break

Berkeley Law

Climate change is upon us. Fires, droughts, hurricanes, sea level rise, and melting ice caps are all part of our new normal. But something else is happening as well. Scientists, innovators, organizations, cities, companies, and citizens are taking action, making progress, and finding solutions. Climate Break brings you stories of climate progress and interviews with climate innovators from California and around the world, in under 2 minutes. Our solution-oriented, radio-ready shows are produced by students and climate law and policy experts at the University of California, Berkeley. Climate Break is a co-production of the Center for Law, Energy, and Environment at UC Berkeley Law and KALW 91.7 FM San Francisco Bay Area, in conjunction with the Berkeley School of Journalism. (For a transcript of the trailer, visit https://climatebreak.org/about-climate-break/)

  1. 4H AGO

    Rerun: Sequestering Carbon in Building Materials, with Dr. Sabbie Miller

    Introduction to the Solution UC Davis researchers are examining a novel approach to combating climate change: turning our buildings into carbon sinks. The solution is based on incorporating biochar, a carbon-rich material obtained from plant material, into common construction materials like concrete, brick, and asphalt. By embedding carbon directly into long-lasting infrastructure, this approach reduces atmospheric CO₂ and also transforms one of the most carbon-intensive industries in the world into a tool for climate mitigation. Background: How Carbon Storage in Building Materials Works Biochar is created through pyrolysis, a process involving heating organic material, such as crop residues or wood waste, in a low-oxygen environment. This process locks in carbon that plants absorb during photosynthesis and prevents it from being re-released into the atmosphere through decay or burning. The research team at UC Davis, headed by Professor Sabbie Miller and Dr. Elisabeth Van Roijen, proposes the use of biochar as a partial replacement for the materials in concrete and other construction compounds. Since more than 20 billion tons of concrete are produced every year by the construction sector, substituting 10% of that with biochar-based mixtures could store up to 1 gigaton of CO₂ annually, or the equivalent yearly emissions from Japan. Unlike temporary carbon storage methods, like soil burial, embedding biochar in durable infrastructure ensures long-term sequestration, potentially spanning decades or even centuries. It also leverages the global scale of construction as a medium for climate action. Advantages of This Solution Apart from net carbon emissions reduction, the introduction of biochar-enriched building materials has tangible engineering benefits. It has been found that the addition of biochar can enhance thermal insulation, fire resistance, and durability in some uses. The process also fits well within the circular economy principles because of the organic waste used and reduced need for virgin materials. Because construction is already a high-volume, resource-intensive industry, integrating biochar into existing supply chains could make climate-positive practices scalable and economically viable without requiring dramatic infrastructure overhauls. Equally important, this solution provides dual benefits: supporting both carbon sequestration and the development of sustainable materials. Drawbacks and Critiques The approach faces several scientific and logistical obstacles despite such a promising premise. Producing biochar requires energy in quite significant quantities, with sourcing biomass at large scales risking unforeseen ecological impacts such as nutrient depletion or habitat disruption. Some critics even ask whether its broad adoption might inadvertently encourage the removal of older buildings in favor of the construction of newer, carbon-storing ones, offsetting any climate gains. Another factor is the life cycle of the biochar-infused materials themselves. While they can store carbon for decades, it remains undetermined how these materials at the end of a building's life are to be managed to avoid re-release of CO₂. Future policy frameworks and recycling technologies will be required to address these challenges if there is to be long-term effectiveness. About the Guest Dr. Sabbie Miller is an Associate Professor of Civil and Environmental Engineering at UC Davis. Her research focuses on sustainable infrastructure materials, life-cycle assessment, and reducing the environmental footprint of the construction industry. Further Reading UC Davis News: Storing Carbon in Buildings Could Help Address Climate Change Nature Geoscience: Carbon Sequestration Using Biochar Science Magazine: Building Materials as Carbon Sinks ScienceDirect: Alternative Sequestration Options in Construction Materials For a transcript, please visit https://climatebreak.org/sequestering-carbon-in-building-materials-with-dr-sabbie-miller/

    2 min
  2. 6D AGO

    Rerun: Clean Trucks, with Ruben Aronin

    What does a zero-emission vehicle really mean? Clean transportation policies promoting sustainability have progressed over the years and have become even more important, both because transportation represents the largest portion of greenhouse gas emissions and because climate change has been accelerating at unprecedented rates. The public is likely more familiar with zero-emission cars, but zero-emission trucks are also becoming an integral part of mitigating climate and other environmental impacts. Transportation-based pollution The transportation industry as a whole has been the biggest source of greenhouse gasses over the time period since the Industrial Revolution. Impacts of emissions associated with transportation include harm to the environment as well as to human health. Trucks and other heavy-duty vehicles constitute six percent of the on-road fleet but produce up to 26 percent of transportation-based greenhouse gas emissions along with a plethora of pollutants that can cause various types of cancer, asthma, and other respiratory challenges. Diesel-fueled trucks and other large vehicles can also cause noise pollution and take an out-sized toll on road infrastructure.  Benefits of Zero-Emission Trucking Zero-emission trucking can help reduce our reliance on fossil fuels and reduce both greenhouse gas emissions and emissions of other pollutants into the environment. By one estimate, US regions could save $735 billion in public health benefits due to cleaner air and result in 1.75 million fewer asthma attacks. The Inflation Reduction Act provides incentives for the manufacturing and purchasing of zero-emission trucks. People who buy zero-emission vehicles, for example, can receive significant tax breaks, subsidies, and even discounts on road tolls. Moreover, it is common for zero-emission trucks to be exempt from vehicle dimensions and weight restrictions Drawbacks of Clean Trucks Although zero-emission trucks–battery electric trucks and hydrogen fuel cell electric trucks–as a whole have a lot of advantages, they still face significant challenges. For example, clean trucks may still be ill-suited for the range demanded of long-haul applications. Even with IRA incentives, clean trucks can be two and a half to three times more expensive than the diesel equivalent, although the cost of fuel and maintenance is likely less. Battery electric trucks can take up to four times longer than their diesel equivalent to charge. And even though hydrogen-operated trucks are more efficient than battery electric trucks, the US currently lacks the necessary hydrogen infrastructure to make them truly feasible.  In addition, hydrogen trucks, when fully charged, have a range that is about 500 miles and battery electric… [about] 180 to 250. By comparison, a diesel truck running a full load can have a range of roughly 1000 to 1200 miles. Because the sustainable alternatives are heavier, they actually would end up carrying less and more trucks would be needed to do the same amount of work as a single diesel-powered truck could, increasing operational costs and decreasing efficiency. Aronin and Zero-Emission Mobility Ruben Aronin is working to pave a path towards zero-emission mobility in the United States (especially California) with his team at Better World Group. They have worked to support multiple policies, including the Advanced Clean Truck Rule which is a significant part of California’s zero-emission truck policy. That rule mandates that manufacturers–provided with four years of lead time–increase electric truck vehicle sales every year from 2025. Additionally, it promotes a 100% sales requirement of zero-emission trucks by 2036.  Mr. Aronin believes that the Advanced Clean Truck Rule along with another policy, called the Advanced Clean Fleet Rule, will enable the quickest transitions to zero-emission trucks, particularly in the most pollution-burdened communities. His coalition includes the Teamsters and others to help ensure labor and environmental justice support. He also recognizes that it is often economically difficult or unfeasible for companies and individuals to purchase zero-emission trucks. To this end, tax credits and investments from the federal IRA and IAJ are essential. As the market grows, Mr. Aronin says that the price of the electric truck components and batteries are decreasing at a rapid pace. Who is Ruben Aronin? Ruben Aronin, current principal of The Better World Group, acts to advance clean transportation policies. He joined the BWG in 2012 and currently helps to lead BWG’s advanced transportation project work. Aronin has previously created and implemented effective environmental policy initiatives to promote energy efficiency and renewable energy in over a dozen states across the country (including California).  Resources American Lung Association, Delivering Clean Air: Health Benefits of Zero-Emission Trucks McKinsey, Preparing the world for zero-emission trucks FleetOwner, Future of zero-emission trucks: Challenges and promises ahead Further Reading MotorBiscuit, Are Pickup Trucks Really That Bad for the Environment? Tachyon, Environmental impact of trucks and sustainability practices McKinsey, How batteries drive the zero-emission truck transition For a transcript, please visit https://climatebreak.org/clean-trucks-with-ruben-aronin/.

    2 min
  3. MAY 6

    Energy Efficient Building Air Filters, with Phil Yuen

    About the Air Filters Aurabeat is a medically patented air filter technology that has proven to reduce up to 99.9% of COVID-19 bacteria from the air. This was heavily deployed in some of the most infectious environments akin to COVID-19 hospitals and quarantine facilities, where more than 500 air purifier units were placed. It was also used in over a 100 schools, hospitals, retail outlets, and major shopping centers in places like Hong Kong to aid in the reopening of public facilities during pandemic times.  Background Aurabeat manages to sterilize air up to “3.4 times in one hour” in an extremely efficient manner while remaining quite portable and accessible to everyone. Most air filtration technologies are employed through means of direct installation, which not only takes time to deploy, but also comes with other costs. For example, systems like HVAC consume large amounts of electricity which “can lead to increased carbon emissions unless the energy comes from renewable sources” (Mechanics Depot).  Advantages of this solution Additionally, the production of air filters requires heavy transportation along with the extraction of resources from the earth which can deplete the environment. Moreover, after air filters are installed, they “need to be replaced regularly” and because they are usually not biodegradable or recyclable, this adds to landfill burden. Aurabeat deftly handles a lot of these challenges, making it an environmentally friendly alternative with medical grade benefits.  Drawbacks While it may be an extremely energy efficient alternative, the noise that the purifier makes can be disturbing to some users. Additionally, Aurabeat has some other air purifying competitors that may have larger coverage.  Guest’s take on the solution Mr. Philip Yuen emphasizes that although Aurabeat's energy efficient building air filters which utilize acoustic soundwaves to filter air may seem to be a costly investment, they save money in the long run due to improved efficiency. Additionally, they help the climate by providing a significant 15-30% reduction in energy consumption. About our guest Phil Yuen has been the CEO of Aurabeat for over 5 years, leading the company through the pandemic to help building owners better protect their occupants from risk of COVID 19 infection. He achieved his M.S. in Computer Science and Engineering from Cornell University.  For a transcript, please visit climatebreak.org/energy-efficient-building-air-filters-with-phil-yuen/

    2 min
  4. APR 28

    Forging Resilience with Chandra Middleton

    What is Forging Resilience? The Forging Resilience project from UC Berkeley School of Law’s Center for Law, Energy, & the Environment seeks to “bridge the gap between climate solutions posed by experts and the on-the-ground obstacles that prevent individuals and communities from adopting those solutions.” Predicated on the idea that libraries and museums maintain a high level of trust from their communities, the project builds free toolkits for museums and libraries to encourage local, collaborative problem-solving for local environmental challenges, identifying local impacts and local solutions and resources.  How it Works Forging Resilience provides the toolkit to a host institution—either a library or museum—and community members can come out to participate in the program. The toolkits consist of several different materials including posters and banners, exhibits, conversation guides, skills-building guides, and promotional templates. The materials focus on local climate impacts, including “downscaling” work from Climate Central.  Current host partners of Forging Resilience include the Sutter County Library and Sutter County Museum, and the Chautauqua and Cattaraugus County Library System. Forging Resilience also contains a Solutions Hub, providing opportunities for individuals to reduce their contributions to carbon emissions and to understand how those emissions reductions can reduce impacts. Currently, the Solutions Hub offers guides for reducing food waste and improving insulation, with an incoming guide on installing rooftop solar.  What it Means By providing accessible and feasible pathways for citizens to make small changes to improve their climate footprint, Forging Resilience promotes the idea that climate change can be solved through collective action and community. There are over 17,000 libraries in the US.  Providing materials, including local impacts and solutions, is an on-going challenge for Forging Resilience, which has a small staff and budget. Moving forward, Forging Resilience hopes to expand their reach and grow their number of participants in order to maximize their impact.  About our Guest  Chandra L. Middleton is a Senior Research Fellow in Project Climate at the Center for Law, Energy, and Environment. Chandra’s work focuses on social and cultural dimensions of climate change and environmental policy. Her current projects include Forging Resilience and renewable energy installation permitting processes. She was previously executive producer of the Climate Break podcast. Resources Forging Resilience, forgingresilience.org Project Drawdown (climate solution guide), https://drawdown.org/ One Earth (global climate solutions), https://www.oneearth.org/ More about CLEE, https://www.law.berkeley.edu/research/clee/ For a transcript, please visit climatebreak.org/forging-resilience-with-chandra-middleton/

    2 min
  5. APR 21

    Climate-Friendly Banking, with Charley Cummings

    Introduction to solution Green banks “provide financing and technical assistance for clean energy and climate solutions” while driving “economic, health, and environmental benefits for communities across the country” (US Green Bank 50). They attempt to spend, save, and invest people’s money conscientiously so they “can grow [their] money while making the world a better place” (GreenFi).  Background The fossil fuel industry is the primary driver of our climate crisis, creating an imperative to implement reductions of greenhouse gas as soon as possible to minimize the potential for catastrophic impacts. Unfortunately, traditional banks have exacerbated this problem; specifically, they have “financed fossil fuels by $7.9 trillion dollars since the Paris Agreement,” enabling the building of new oil and gas pipelines, large-scale equipment purchases, and more oil and gas explorations to expand their businesses (Rainforest Action Network).  Advantages of Climate-Friendly Banks Green banks pledge to never fund projects involving fossil fuels. Many also donate a percentage of the monthly amount that customers pay to “non-profits that support climate action” while providing transparency about the carbon footprints of their funded businesses (GreenFi). Some “optimistic studies even estimate that [this] divestment [of resources]… can lead to an effective reduction in carbon footprint of up to 7%” (Mieux Donner). Drawbacks of this Solution However, critics argue that the impact of divestment is not equal to the carbon impact of the investment: “under the current system, divested funds can be quickly replaced by other investors, which limits the direct effect on the behaviour of companies and their CO2 emissions” (Mieux Donner). Companies can also adjust their financial strategies to offset the impact of divestment, which limits its effect on their emissions. Specifically, while green banking is well-intentioned, staying with a conventional bank may allow customers to save more money, which they could then donate to high-impact environmental nonprofits. Guest’s take Charley Cummings, the CEO of a climate-friendly bank known as Walden Mutual, emphasizes how the largest funders of fossil fuel companies are banks in the United States. He encourages listeners to switch to greener banks that divest their funds towards sustainability while remaining as reliable as traditional banks. About our guest Charley Cummings is the CEO of Walden Mutual Bank, which solely invests their holdings in local sustainable companies. Resources BusinessGreen, ‘Historic bid for greener banking': 21 universities threaten to switch billions of pounds to 'green' banks Greenfi, Greenfi Mieux Donner, A critical analysis of green neo-banks: greenwashing or effective leverage? Rainforest Action Network, Banks fossil fuel finance totals $869 billion in 2024, a dramatic increase in financing Ran, Banks Fossil Fuel Financing U.S. Green Bank 50, The U.S. Green Bank 50 Further Reading Edie, Timeline: What’s Included in the IEA’s new Net-Zero Roadmap for energy?  Financial Times, Cambridge-led coalition of universities threatens banks over fossil-fuel financing US EPA, Green Banks For a transcript, please visit climatebreak.org. For a transcript please visit climatebreak.org/climate-friendly-banking-with-charley-cummings/

    2 min
  6. APR 14

    Used Cooking Oil for Aviation Fuel

    Introduction to Solution Traditional drilling for crude oil contributes an immense amount of pollution to the Earth’s atmosphere. A study conducted by Stanford University in 2018 found that “on average, oil production emitted 10.3 grams of emissions for every megajoule of crude.” In 2022, 11.89 thousand barrels of crude oil were produced in 2022—or around 69 million megajoules. This oil is used, in part, to fuel aviation, which overall, as of 2018, contributed to 2.5 percent of all carbon emissions. Further, aviation has broader climate change implications due to the release of “contrails, NOx, water vapor, sulfate aerosol gases, soot, and other aerosols.” While this is a relatively small amount compared to other contributors—such as ground vehicles—airlines have attempted to combat their contributions to the climate crisis through integrating more sustainable aviation fuel (SAF) into their oil supply. SAF is fuel made from sources including corn grain, algae, agricultural and forestry residues, solid waste and dedicated energy crops. It has been found to have “fewer aromatic components than kerosene”—the typical jet fuel—which allows them to reduce emissions of contributors other than CO2.  Recently, the used cooking oil from restaurants has become another valuable source for airlines to find SAF. In May 2022, Dallas-Fort Worth airport partnered with Neste, an oil refining company, to collect the oil used in onsite restaurants—including 5 McDonald’s locations—to convert used fry oil to airline fuel. Neste’s subsidiary, Mahoney Environmental, takes the used up oil from restaurants to convert the oil. It currently collects from 90,000 businesses in the United States, and is one of hundreds of companies that collect oil from various restaurants around the globe. In 2023, the first transatlantic commercial flight fueled 100 percent by SAF traveled from London’s Heathrow airport to New York’s JFK airport.  According to the Washington Post, the cooking oil moves through an intense process to convert it into aviation fuel; first, the grease is maintained at 140º during transit to keep its liquid consistency. Then, Neste uses a clay substance to strip out unwanted chemicals, including “sodium left over from salty foods, phosphorus and various metals.” A catalyst removes the oxygen molecules, and the “straight hydrocarbon chains are bent into spiky, irregular branches that won’t stack up and lump themselves into a solid, even at very low temperatures.” While SAF and used cooking oil help with minimizing emissions of certain fossil fuels and particles, they do not minimize emissions of CO2. Also, critics have accused SAF in airline emissions as being a greenwashing scheme, arguing that the crops used to create SAF would be better put to use by growing food. Finally, according to the World Economic Forum, “sustainable aviation fuel currently costs around four times as much as conventional jet fuel,” resulting in low incentive to replace traditional fuel production pathways with SAF.  According to Dr. Colin Murphy, our guest for this week, policy pathways and airline incentives can encourage SAF usage. About our guest Dr. Colin Murphy is the Deputy Director of the Policy Institute for Energy, Environment, and the Economy, and co-director of the ITS-Davis Low Carbon Fuel Policy Research Initiative. He helps guide research and outreach on issues relating to transportation, energy, air quality, and carbon markets, with a primary focus on sustainable fuel policies like California’s Low Carbon Fuel Standard. Resources Stanford study finds stark differences in the carbon-intensity of global oil fields, StanfordReport It’s the wealthy frequent fliers who have the biggest carbon stamp from air travel—especially those jet-setting around on private craft, Sierra Club Aviation is responsible for 3.5 percent of climate change, study finds, NOAA Research An Airbus powered by cooking oil: Is sustainable aviation fuel the future of aviation?, Weforum These Airport McDonald’s Recycle Fry Oil into Jet Fuel – Here’s How, MacDonalds Corporate From restaurant kitchens to commercial jets: The greasy trail of used cooking oil, Washington Post How much oil is produced in the US?, USAFacts Barrels of Oil to Megajoules, UnitJuggler For a transcript, please visit climatebreak.org/used-cooking-oil-for-aviation-fuel/

    2 min
  7. APR 7

    Green Silicon Valley

    About Green Silicon Valley Green Silicon (GSV) Valley is a nonprofit organization founded and led by Wilcox High School students Ayush Garg, Dev Shah and Abhi Tenneti that aims to make environmental education more accessible and personal, while also training future climate leaders on climate education. GSV seeks to realize its mission by creating hands-on kits for elementary and middle schoolers to learn about climate phenomena and solutions, and sending high school students to present classes and sessions. Through this process, they are able to spread climate education to younger generations, while also helping high school students learn how to communicate about climate issues. This helps prepare future generations of climate leaders, as well as instilling an early understanding of the importance of climate work. According to co-founder Ayush Garg, the project arose from the business club when Garg, Shah, and Tenneti were awarded a $5,000 grant from Silicon Valley Power which allowed them to conduct six presentations at Peterson Middle School (Green Energy Futures). Each presentation includes hands-on activities such as building wind turbine models, creating water filtration systems, and running erosion experiments to help depict different climate topics. According to GSV, they have managed to reach 680 students so far across 12 partner schools in 4 different countries (Green Silicon Valley). Shah says that GSV is seeking to expand its reach to more high school chapters and partner elementary schools across the Bay Area.  As GSV grows, it will likely run into issues with obtaining sufficient funding to carry out its goals. According to Shah, “It's gonna be a lot harder to fund international and national presentations. That's definitely the hardest part right now, where we have the volunteers, we have the teachers, we have the students, but we just need the funding for the kids.” Further, the project has run into some issues making its way into classrooms, with conflicting schedules and curriculum. GSV is accepting donations, volunteer and intern applicants, and presentation requests in order to continue expanding. About our guest Dev Shah is a co-founder of Green Silicon Valley, alongside Ayush Garg and Abhi Tenneti. He is a student at Adrian Wilcox High School in Santa Clara, California.  Resources Three Students Launch Green Silicon Valley to take Climate Education to 100 Countries, Green Energy Futures Impact, Green Silicon Valley For a transcript of this episode, please visit climatebreak.org/green-silicon-valley/

    2 min
  8. MAR 31

    Methane Reduction Through Governmental Collaboration, with Shivani Shukla

    Introduction to the Solution Methane is one of the most powerful drivers of near-term global warming, and also one of the fastest opportunities to slow it down. In this episode of Climate Break, we explore how a global network of states and provinces is working together to reduce methane emissions through shared knowledge, technical assistance, and peer learning. Ethan Elkind speaks with Shivani Shukla, a methane research fellow at UC Berkeley, about the Subnational Methane Action Coalition (SMAC) and how subnational governments can play an outsized role in addressing this urgent climate pollutant.   Why Methane Matters Methane is a colorless, odorless gas responsible for nearly one-third of current global warming. Over a 20-year period, methane traps roughly 80 times more heat per molecule than carbon dioxide. Its climate impact is further amplified by the way it contributes to the formation of tropospheric ozone and adds water vapor to the stratosphere, increasing its overall warming effect. Unlike carbon dioxide, methane comes from a relatively limited set of sources. Major contributors include landfills and wastewater facilities, agriculture (particularly livestock digestion and rice cultivation), and fossil fuel systems such as oil, gas, and coal operations. Because these sources are concentrated and well understood, methane reductions are often technically feasible and cost-effective, especially when captured methane can be repurposed as fuel.   The Subnational Methane Action Coalition (SMAC) Launched at COP28 in 2023, the Subnational Methane Action Coalition is a global network of state and provincial governments working to reduce methane emissions. SMAC began with 15 founding members, spearheaded by California, and has since expanded to include dozens of subnational governments and observers worldwide. SMAC is supported by researchers at UC Berkeley’s Center for Law, Energy & the Environment, which provides participating governments with technical assistance on methane inventories, policy design, and action planning. The coalition also connects members with experts, data partners, and peer jurisdictions that have implemented successful methane reduction strategies. Climate policy is often designed and implemented at the national level, but states and provinces frequently have direct jurisdiction over major methane sources, including waste management, agriculture, and energy infrastructure. Subnational governments are therefore uniquely positioned to pilot solutions that can later be scaled nationally or replicated elsewhere. Through SMAC’s peer network, members can share lessons learned, adapt policies to their regional contexts, and avoid duplicating efforts. A state that has developed an effective approach to reducing agricultural methane, for example, can share that model with other regions facing similar challenges.   Upsides to SMAC One of SMAC’s key strengths is its emphasis on capacity-building. Many subnational governments (particularly those with limited resources) lack the technical expertise or staffing needed to design and implement methane mitigation programs. SMAC addresses this gap by offering tailored technical support, expert-led webinars, and communities of practice focused on specific methane sources. Methane mitigation also offers strong near-term climate benefits. Because methane dissipates from the atmosphere more quickly than carbon dioxide, reducing emissions can slow warming almost immediately. In many cases, methane solutions are relatively low-cost and non-repetitive, involving infrastructure upgrades or operational changes rather than ongoing behavioral shifts by individuals.   Challenges in SMAC Despite its promise, SMAC faces several challenges. Political turnover can disrupt momentum, as changes in leadership may shift climate priorities or reduce ambition. Sustained funding is another barrier, particularly for jurisdictions that need upfront investment to implement methane reduction technologies. There is also an important broader critique: focusing heavily on methane should not come at the expense of long-term carbon dioxide reductions. While methane mitigation is a powerful short-term strategy, CO₂ remains in the atmosphere far longer and continues to drive warming over centuries. SMAC does not frame methane reduction as a replacement for CO₂ action, but rather as a complementary strategy within a broader climate portfolio.   Shukla’s Take Shivani Shukla emphasizes that SMAC is fundamentally about collaboration and shared learning. By connecting subnational governments across regions and sectors, the coalition helps members overcome technical and capacity constraints while fostering leadership on methane mitigation. She also highlights the global nature of methane pollution and the importance of cross-border cooperation to address it effectively.   About Our Guest Shivani Shukla is a Research Fellow in the Project Climate program at UC Berkeley Law's Center for Law, Energy and the Environment (CLEE). Shivani co-leads the Subnational Methane Action Coalition, where she focuses on climate and environmental policies, particularly on methane and natural resources at the subnational level. Prior to joining CLEE, Shivani was a two-time EDF Climate Corps Fellow and conducted interdisciplinary climate policy research across academia, private and public sectors in the U.S.A., Ireland and India. Shivani graduated from the MPP program at the University of Chicago and a Masters in Applied Economics from University College Dublin. She is currently based in New York.   Resources U.S. Environmental Protection Agency,  Overview of Methane Emissions International Energy Agency, Methane Tracker Climate TRACE, Global Methane Emissions Data Platform Carbon Mapper, Satellite-Based Methane Detection and Analysis

    2 min

Ratings & Reviews

5
out of 5
8 Ratings

About

Climate change is upon us. Fires, droughts, hurricanes, sea level rise, and melting ice caps are all part of our new normal. But something else is happening as well. Scientists, innovators, organizations, cities, companies, and citizens are taking action, making progress, and finding solutions. Climate Break brings you stories of climate progress and interviews with climate innovators from California and around the world, in under 2 minutes. Our solution-oriented, radio-ready shows are produced by students and climate law and policy experts at the University of California, Berkeley. Climate Break is a co-production of the Center for Law, Energy, and Environment at UC Berkeley Law and KALW 91.7 FM San Francisco Bay Area, in conjunction with the Berkeley School of Journalism. (For a transcript of the trailer, visit https://climatebreak.org/about-climate-break/)

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