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Can We Eat Our Way Out of the Climate Crisis?

News Feed
Sunday, September 22, 2024

This story was originally published by Grist and is reproduced here as part of the Climate Desk collaboration. Early into his new book, The Blue Plate: A Food Lover’s Guide to Climate Chaos, ecologist Mark Easter poses a playful, but loaded, question: “How could a morning piece of toast or a plate of dinner pasta be such a world-altering culprit?” This, like many ideas Easter digs into in his illuminating debut, is a glimpse at how the author goes about breaking down the climate toll of the US agricultural system: One dish at a time.   Seafood, salad, bread, chicken, steak, potatoes, and pie are just some of the quintessentially “American” kitchen table staples Easter structures the book around as he tries to help readers understand how greenhouse gases move into and out of soils and plants on land across the country. Each of the nine chapters examines how a single dish is made; from the soil needed to grow the ingredients, to the people who manage the land and the laborers who toil to get it to the table, and the leftovers that remain—documenting the emissions created each step of the way.  The Blue Plate also takes a look at some of the innovative practices being implemented around the US to make such culinary favorites more climate-friendly. Stopping off at an Arizona produce farm, a Wyoming fertilizer plant, a Colorado landfill, an Idaho fish farm, and several dairies, Easter shows how small businesses are making conscientious changes to how they work. He theorizes how each could be applied at scale while quantifying how the widespread adoption of such techniques, and minimal shifts in consumer purchasing and consumption habits, could reduce agriculture’s gargantuan role in warming.  It’s a topic driven by Easter’s own family history. His great-grandmother was a farmer during the Dust Bowl of the 1930s who, along with others growing grain at the time in the Great Plains, unknowingly contributed to the release of one of the greatest known pulses of carbon emissions. The book uses her story to probe how the Great Plains was transformed from one of the planet’s most carbon-rich grasslands into one of its largest agricultural complexes.  By analyzing the emissions released when food is grown, produced, harvested, and shipped, The Blue Plate makes the case that curbing the carbon footprint of what we eat won’t require an agricultural revolution. It’s already happening, in bite-sized cases across the country.  Grist sat down with Easter, a research affiliate at Colorado State University, to discuss what his vision of eating our way out of the climate crisis would look like in practice. This conversation has been condensed and edited for clarity.  In The Blue Plate, you dig into the emissions impact of the production and consumption of everything from husks of corn to hunks of meat. What led you to decide to focus on the ingredients of, in your words, “a typical meal at an American weekend dinner party”?  I sat down one evening with a plate of food in front of me, and I looked at it, and I realized that there were critical stories tied to the climate crisis in every single item of food that was on the plate. I also realized I’ve been working with farmers and ranchers around the world who were already implementing the practices that could help reduce and actually reverse those emissions. And I saw the basis for the book in that moment.  At Colorado State University, you belonged to a team of “greenhouse gas accountants” who tally the tens of billions of tons of carbon that move each year between the Earth’s plants and atmosphere—a huge focus of the book. What, exactly, does that look like?  It’s very much like what an accountant for a business or a bank does. We’re basically trying to tally the flow of carbon and nitrogen back and forth between the Earth and the atmosphere and try to understand, “Do we have too much flowing in the wrong directions?” And that’s basically what’s been happening. Not just from the fossil fuel industry, and for generating electricity, for heating homes, for transportation, but also from the way we’ve been growing food and managing forests. We’ve been essentially exhausting the ecosystem capital of organic matter and sending that into the atmosphere. When really, what we need is for that flow to be stabilized and reversed, so that we have that flow of carbon back into forests, into pastures, into crop fields, and into the plants that sustain us through agriculture.  The carbon and nitrogen in ecosystems, they’re really like the capital in businesses. If you’re burning through your capital, that’s a warning sign for business, and they can’t sustain it very long, eventually they’ll go bankrupt. And that’s essentially what’s been going on with agriculture.  Let’s talk more about that, through the lens of bread. Something that has stayed with me is a line in the book where you note that although humans eat more of it than any other food, bread and grains have some of the smallest carbon footprints, on average, of any food—about a pound and half of CO2 equivalent for every pound of bread, pasta, or tortillas. But you argue that the emissions impact of producing bread and grain is larger than that, because of its soil impact.   This is one of the most interesting stories when we think about the food that’s on our plates: the role that carbon, organic matter, has in the soil, supporting the crops that we grow. The more organic matter we have in the soil, the more fertile the soil is going to be, the more abundant the crops will be, the more resilient the plants will be in terms of being able to fight off disease and be able to deal with drought.  It’s part of that ecosystem capital. The carbon that’s in the soil there accumulates over millennia. It can take five to ten thousand years for that ecosystem capital to build up and fill what we call the soil carbon vault that sustains the ecosystem. If we’re not careful, we can burn through that soil carbon vault over a short time. We essentially exhaust that capital. Burning through that vault, and that’s just an enormous amount of carbon in the soil, that is essentially a climate burden that comes with every loaf of bread.  You visited a Colorado farm where the farmers have eliminated things like mechanically tilling the soil or leaving land fallow, both of which degrade soil. They’ve also weaned off of chemical fertilizers and planted cover crops. In what way are these compounding practices restoring the carbon that past generations of farmers have mined from their soils?  What these growers are doing is reversing that process of degradation that started when the land was first settled, and what we now know as industrial agriculture was brought to those fields. And they are restoring it through these really straightforward practices that have been around in some form or another since the beginning of agriculture, and they’re implementing it at a scale that’s very focused on ending that cycle of degradation and actually restoring, regenerating, the soil.  A story I tell in my book is of Curtis Sayles, who talks about how his soil had hit rock bottom. His focus has pivoted entirely to looking at the health of the soil, and he tracks that through the amount of organic matter, the carbon, that’s in his soil. And he’s steadily adding back the carbon into his soil. It’s extraordinary to see it come back to life.  What would scaling this require? The book notes that many US farmers still intensively till cropland every year. Is it feasible to imagine large-scale changes?  It’s important to understand that the decisions to regenerate soil, and to improve soil health, and to increase the organic matter in the soil, happen one farmer at a time, one rancher at a time, one field or pasture at a time. And there are hundreds of thousands of farmers and millions of pastures and fields around the country where the effects of those decisions can play out.  There’s been a tremendous emphasis upon soil health within the farming and ranching community today. As soon as the US Department of Agriculture started talking about this in the context of soil health, it really started getting people’s attention. And now, we see some of the fastest-growing practices in the country are changes to reduce tillage and to start to incorporate cover crops. There’s still a lot of barriers to it, and those barriers are cultural and social. And some people are uncomfortable with change. But that said, farmers are increasingly seeing this as an opportunity for them to increase their yields.  In the book, you pay homage to your great-grandmother and how she lost her farm during the Dust Bowl. How do you see her story, and historical accounts of farmers like her, reflected in how we talk about the role of agriculture in driving climate change?  The story of my great-grandmother Neva and the story of her farm was a story that played out on literally billions of acres across the world. And not every farmer at the time was generating the kinds of emissions, degrading the soil, the same way that she was. But her story was not unique. What she did on that 160 acres of land in southeastern Colorado was similar to what was happening on farm parcels everywhere across the US, especially where people were homesteading under the Great Plains.  In the process, they emitted as much carbon dioxide from the soil as we produce in a single year, in total, for all the greenhouse gas emissions in the United States. The magnitude of that was just extraordinary. And that is what really made my great-grandmother Neva’s story so personal to me. To realize that one of my ancestors had played a role there, unwittingly, in just trying to live a good life and fight for herself, and for her family.  Soil is a cornerstone of the global food system, and very much a focus of The Blue Plate. But it’s not the only focus. For one, you examine the emissions footprint of things like steak and salmon, but you notably do not advocate for Americans to stop eating meat or seafood or dairy altogether. In fact, you explore what the solutions could look like if these emissions-intensive foods remain on kitchen tables. Can you explain how you came to that conclusion?  A lot of people are asking me about meat and their consumption of meat and “Do we need to stop eating meat?” I think what’s become clear is that we eat too much meat, whether it’s cattle or pigs or poultry. But I don’t think the answer is as simple as stopping eating meat. In some parts of the world, where millions of people live, trying to grow wheat or tomatoes, or other crops, would be an environmental disaster. It would completely deplete the soils. And some of those places, the best choice for the landscape, where it’s compatible with local wildlife and with the ecosystem as a whole, is to graze livestock. We have to be cognizant of that.  I think the message that I’m trying to get across to the public is that if they eat meat, they need to consider pastured poultry, or try to source from regeneratively grown livestock herds and dairy products, wherever possible. And farmed shellfish, which can help restore oceans, estuaries, or our coastlines. People should search for foods in the grocery store that have a “regeneratively farmed” label attached to them. Finally, to avoid foods that travel by air, and the carbon emissions that come from that. And I know that’s not possible for everybody. The through line of The Blue Plate is this question: “Can we eat our way out of the climate crisis?” You wrote that the answer is “a partial yes” but that we need to reframe the question. How would you like to see it reframed? And how would you answer it?  How can we end the process of burning fossil fuels? And then what role can the way we grow, process, ship, cook our food, and deal with the leftovers, play in reducing the impacts of more than a century of burning fossil fuels?  We are burning fossil fuels at such a high rate and the impacts are so large we have to stop, as quickly as possible. Growing food differently, using regenerative methods, using these carbon farming methods, has the greatest potential to draw down carbon dioxide out of the atmosphere and back into the soil, back into the Earth, where we need more of it to lie. In that process of drawing down carbon dioxide out of the atmosphere, we’re going to be helping to cool the planet, and reduce the impacts of more than a century of burning fossil fuels. 

This story was originally published by Grist and is reproduced here as part of the Climate Desk collaboration. Early into his new book, The Blue Plate: A Food Lover’s Guide to Climate Chaos, ecologist Mark Easter poses a playful, but loaded, question: “How could a morning piece of toast or a plate of dinner pasta be such a world-altering culprit?” This, […]

This story was originally published by Grist and is reproduced here as part of the Climate Desk collaboration.

Early into his new book, The Blue Plate: A Food Lover’s Guide to Climate Chaos, ecologist Mark Easter poses a playful, but loaded, question: “How could a morning piece of toast or a plate of dinner pasta be such a world-altering culprit?” This, like many ideas Easter digs into in his illuminating debut, is a glimpse at how the author goes about breaking down the climate toll of the US agricultural system: One dish at a time.  

Seafood, salad, bread, chicken, steak, potatoes, and pie are just some of the quintessentially “American” kitchen table staples Easter structures the book around as he tries to help readers understand how greenhouse gases move into and out of soils and plants on land across the country. Each of the nine chapters examines how a single dish is made; from the soil needed to grow the ingredients, to the people who manage the land and the laborers who toil to get it to the table, and the leftovers that remain—documenting the emissions created each step of the way. 

The Blue Plate also takes a look at some of the innovative practices being implemented around the US to make such culinary favorites more climate-friendly. Stopping off at an Arizona produce farm, a Wyoming fertilizer plant, a Colorado landfill, an Idaho fish farm, and several dairies, Easter shows how small businesses are making conscientious changes to how they work. He theorizes how each could be applied at scale while quantifying how the widespread adoption of such techniques, and minimal shifts in consumer purchasing and consumption habits, could reduce agriculture’s gargantuan role in warming

It’s a topic driven by Easter’s own family history. His great-grandmother was a farmer during the Dust Bowl of the 1930s who, along with others growing grain at the time in the Great Plains, unknowingly contributed to the release of one of the greatest known pulses of carbon emissions. The book uses her story to probe how the Great Plains was transformed from one of the planet’s most carbon-rich grasslands into one of its largest agricultural complexes. 

By analyzing the emissions released when food is grown, produced, harvested, and shipped, The Blue Plate makes the case that curbing the carbon footprint of what we eat won’t require an agricultural revolution. It’s already happening, in bite-sized cases across the country. 

Grist sat down with Easter, a research affiliate at Colorado State University, to discuss what his vision of eating our way out of the climate crisis would look like in practice. This conversation has been condensed and edited for clarity. 

In The Blue Plate, you dig into the emissions impact of the production and consumption of everything from husks of corn to hunks of meat. What led you to decide to focus on the ingredients of, in your words, “a typical meal at an American weekend dinner party”? 

I sat down one evening with a plate of food in front of me, and I looked at it, and I realized that there were critical stories tied to the climate crisis in every single item of food that was on the plate. I also realized I’ve been working with farmers and ranchers around the world who were already implementing the practices that could help reduce and actually reverse those emissions. And I saw the basis for the book in that moment. 

At Colorado State University, you belonged to a team of “greenhouse gas accountants” who tally the tens of billions of tons of carbon that move each year between the Earth’s plants and atmosphere—a huge focus of the book. What, exactly, does that look like? 

It’s very much like what an accountant for a business or a bank does. We’re basically trying to tally the flow of carbon and nitrogen back and forth between the Earth and the atmosphere and try to understand, “Do we have too much flowing in the wrong directions?” And that’s basically what’s been happening. Not just from the fossil fuel industry, and for generating electricity, for heating homes, for transportation, but also from the way we’ve been growing food and managing forests. We’ve been essentially exhausting the ecosystem capital of organic matter and sending that into the atmosphere. When really, what we need is for that flow to be stabilized and reversed, so that we have that flow of carbon back into forests, into pastures, into crop fields, and into the plants that sustain us through agriculture. 

The carbon and nitrogen in ecosystems, they’re really like the capital in businesses. If you’re burning through your capital, that’s a warning sign for business, and they can’t sustain it very long, eventually they’ll go bankrupt. And that’s essentially what’s been going on with agriculture. 

Let’s talk more about that, through the lens of bread. Something that has stayed with me is a line in the book where you note that although humans eat more of it than any other food, bread and grains have some of the smallest carbon footprints, on average, of any food—about a pound and half of CO2 equivalent for every pound of bread, pasta, or tortillas. But you argue that the emissions impact of producing bread and grain is larger than that, because of its soil impact.  

This is one of the most interesting stories when we think about the food that’s on our plates: the role that carbon, organic matter, has in the soil, supporting the crops that we grow. The more organic matter we have in the soil, the more fertile the soil is going to be, the more abundant the crops will be, the more resilient the plants will be in terms of being able to fight off disease and be able to deal with drought. 

It’s part of that ecosystem capital. The carbon that’s in the soil there accumulates over millennia. It can take five to ten thousand years for that ecosystem capital to build up and fill what we call the soil carbon vault that sustains the ecosystem. If we’re not careful, we can burn through that soil carbon vault over a short time. We essentially exhaust that capital. Burning through that vault, and that’s just an enormous amount of carbon in the soil, that is essentially a climate burden that comes with every loaf of bread. 

You visited a Colorado farm where the farmers have eliminated things like mechanically tilling the soil or leaving land fallow, both of which degrade soil. They’ve also weaned off of chemical fertilizers and planted cover crops. In what way are these compounding practices restoring the carbon that past generations of farmers have mined from their soils? 

What these growers are doing is reversing that process of degradation that started when the land was first settled, and what we now know as industrial agriculture was brought to those fields. And they are restoring it through these really straightforward practices that have been around in some form or another since the beginning of agriculture, and they’re implementing it at a scale that’s very focused on ending that cycle of degradation and actually restoring, regenerating, the soil. 

A story I tell in my book is of Curtis Sayles, who talks about how his soil had hit rock bottom. His focus has pivoted entirely to looking at the health of the soil, and he tracks that through the amount of organic matter, the carbon, that’s in his soil. And he’s steadily adding back the carbon into his soil. It’s extraordinary to see it come back to life. 

What would scaling this require? The book notes that many US farmers still intensively till cropland every year. Is it feasible to imagine large-scale changes? 

It’s important to understand that the decisions to regenerate soil, and to improve soil health, and to increase the organic matter in the soil, happen one farmer at a time, one rancher at a time, one field or pasture at a time. And there are hundreds of thousands of farmers and millions of pastures and fields around the country where the effects of those decisions can play out. 

There’s been a tremendous emphasis upon soil health within the farming and ranching community today. As soon as the US Department of Agriculture started talking about this in the context of soil health, it really started getting people’s attention. And now, we see some of the fastest-growing practices in the country are changes to reduce tillage and to start to incorporate cover crops. There’s still a lot of barriers to it, and those barriers are cultural and social. And some people are uncomfortable with change. But that said, farmers are increasingly seeing this as an opportunity for them to increase their yields. 

In the book, you pay homage to your great-grandmother and how she lost her farm during the Dust Bowl. How do you see her story, and historical accounts of farmers like her, reflected in how we talk about the role of agriculture in driving climate change? 

The story of my great-grandmother Neva and the story of her farm was a story that played out on literally billions of acres across the world. And not every farmer at the time was generating the kinds of emissions, degrading the soil, the same way that she was. But her story was not unique. What she did on that 160 acres of land in southeastern Colorado was similar to what was happening on farm parcels everywhere across the US, especially where people were homesteading under the Great Plains. 

In the process, they emitted as much carbon dioxide from the soil as we produce in a single year, in total, for all the greenhouse gas emissions in the United States. The magnitude of that was just extraordinary. And that is what really made my great-grandmother Neva’s story so personal to me. To realize that one of my ancestors had played a role there, unwittingly, in just trying to live a good life and fight for herself, and for her family. 

Soil is a cornerstone of the global food system, and very much a focus of The Blue Plate. But it’s not the only focus. For one, you examine the emissions footprint of things like steak and salmon, but you notably do not advocate for Americans to stop eating meat or seafood or dairy altogether. In fact, you explore what the solutions could look like if these emissions-intensive foods remain on kitchen tables. Can you explain how you came to that conclusion? 

A lot of people are asking me about meat and their consumption of meat and “Do we need to stop eating meat?” I think what’s become clear is that we eat too much meat, whether it’s cattle or pigs or poultry. But I don’t think the answer is as simple as stopping eating meat. In some parts of the world, where millions of people live, trying to grow wheat or tomatoes, or other crops, would be an environmental disaster. It would completely deplete the soils. And some of those places, the best choice for the landscape, where it’s compatible with local wildlife and with the ecosystem as a whole, is to graze livestock. We have to be cognizant of that. 

I think the message that I’m trying to get across to the public is that if they eat meat, they need to consider pastured poultry, or try to source from regeneratively grown livestock herds and dairy products, wherever possible. And farmed shellfish, which can help restore oceans, estuaries, or our coastlines. People should search for foods in the grocery store that have a “regeneratively farmed” label attached to them. Finally, to avoid foods that travel by air, and the carbon emissions that come from that. And I know that’s not possible for everybody.

The through line of The Blue Plate is this question: “Can we eat our way out of the climate crisis?” You wrote that the answer is “a partial yes” but that we need to reframe the question. How would you like to see it reframed? And how would you answer it? 

How can we end the process of burning fossil fuels? And then what role can the way we grow, process, ship, cook our food, and deal with the leftovers, play in reducing the impacts of more than a century of burning fossil fuels? 

We are burning fossil fuels at such a high rate and the impacts are so large we have to stop, as quickly as possible. Growing food differently, using regenerative methods, using these carbon farming methods, has the greatest potential to draw down carbon dioxide out of the atmosphere and back into the soil, back into the Earth, where we need more of it to lie. In that process of drawing down carbon dioxide out of the atmosphere, we’re going to be helping to cool the planet, and reduce the impacts of more than a century of burning fossil fuels. 

Read the full story here.
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Hochul signs law requiring fossil fuel companies to pay for natural disaster cleanup

New York Gov. Kathy Hochul (D) on Thursday signed a law that will require companies responsible for large amounts of planet-warming pollution to contribute to climate damage repair efforts. Under the new state law, companies responsible for the bulk of emissions from 2000 to 2018 will be on the hook for some $3 billion a...

New York Gov. Kathy Hochul (D) on Thursday signed a law that will require companies responsible for large amounts of planet-warming pollution to contribute to climate damage repair efforts. Under the new state law, companies responsible for the bulk of emissions from 2000 to 2018 will be on the hook for some $3 billion a year over the next 25 years. The law is modeled after the federal Superfund law, which sticks the bill for pollution cleanup with the companies responsible for the pollution. The Environmental Protection Agency notably invoked the Superfund law last year in East Palestine, Ohio, after a railroad car carrying hazardous chemicals derailed in the town. Co-sponsor state Sen. Liz Krueger (D) called the New York bill a “shot that will be heard ‘round the world.” “Too often over the last decade, courts have dismissed lawsuits against the oil and gas industry by saying that the issue of climate culpability should be decided by legislatures,” she said in a statement. “Well, the Legislature of the State of New York — the 10th largest economy in the world — has accepted the invitation, and I hope we have made ourselves very clear: the planet’s largest climate polluters bear a unique responsibility for creating the climate crisis, and they must pay their fair share to help regular New Yorkers deal with the consequences.” Hochul’s signature makes New York the second state with such a law, following Vermont, but the Empire State is far larger, more populous and a major center of American and international financial power. Neither New York's nor Vermont's law is guaranteed to survive a legal challenge. The American Petroleum Institute (API) vocally lobbied New York lawmakers against it last year and cast doubt on its durability in court. The Hill has reached out to API for comment. President-elect Trump, who has denied the existence of climate change and vowed to pursue pro-fossil fuel policies in his second term, is unlikely to devote much, if any, energy to climate change mitigation. This will put the onus on large Democratic states like New York and California, the latter of which received approval earlier this month from the Biden administration for its goal of phasing out new gas-powered car sales by 2035. California Attorney General Rob Bonta (D) told The Hill the state expects the new administration to challenge that waiver in court.

Why mountain meadows should be a priority for California’s new climate bond

More than half of California's Sierra meadows have been degraded or lost. Given their vital role assisting with water storage, carbon sequestration and providing a habitat to wildlife, investments from the newly passed Proposition 4 could boost ongoing restoration work.

Guest Commentary written by Ryan Burnett Ryan Burnett leads the Sierra Nevada Group at Point Blue Conservation Science and is the chair of the Sierra Meadows Partnership. When I stepped into a Sierra Nevada meadow over 25 years ago, I was struck by the diversity of life, the hub of biological activity — full of birds, frogs, fish and plants. As a wildlife ecologist, I was in love. That infatuation has endured, growing into one of the great passions in my life. As a lifelong Californian, I’ve always been enamored with the natural wonders our state contains, and meadows are no exception. Californians have a lot to be proud of. In addition to the highest GDP of any state, we have a proven track record as the country’s climate and environmental leader. Since voters recently approved Proposition 4, we can be proud that California will deepen its commitment to large-scale action to address the state’s water, wildfire and climate challenges. The $10 billion bond measure will flow to environmental projects large and small, including $1.2 billion for land conservation and habitat restoration, which will benefit communities and wildlife around the state. But one question looms: What might these investments to increase climate resilience look like on the ground? Some of the most important — and often overlooked — natural resources the state has are the verdant high elevation wetlands we call mountain meadows. These meadows lie at the headwaters of the rivers that flow out of the Sierra Nevada, Cascade and Klamath mountains, supplying the majority of water we rely on for agriculture and drinking, and supporting diverse ecosystems from the Sierra to the sea, from Yreka to San Diego. They serve an important role in improving water quality and increasing water storage, acting as giant sponges that soak up snow melt and slowly release it through the dry summer months. And mountain meadows are superstars at carbon sequestration, pulling carbon out of the atmosphere as fast as tropical rainforests.  Mountain meadows provide important wildlife habitat for a broad suite of species, including many that are threatened with extinction, such as Willow Flycatchers and Yosemite Toads. For a millennia, mountain meadows have also held a deep cultural significance for the many tribes that have stewarded these ecosystems.  Read Next Elections Prop. 4 passes: Californians approve $10 billion for water, wildfire, climate projects by Alejandro Lazo Unfortunately, over 50% of Sierra meadows have been heavily degraded or lost over the past 150 years, due to road-building, overgrazing, fire suppression, mining, water diversions and more. These meadows no longer provide the wealth of important services they once did. The Sierra Meadows Partnership has sought to protect and restore these crown jewels of the Sierra Nevada and Cascades mountains. Comprised of NGOs, government agencies, universities, conservation districts and restoration practitioners, we have restored more than 8,000 acres and protected 10,000 since 2016. The goal is to restore and conserve 30,000 acres by 2030. Prop. 4 has the potential to dramatically scale up the meadow restoration and conservation work taking place, which will pay dividends to the people and wildlife statewide that rely on the many natural benefits of healthy mountain meadows. The billions designated for water projects, forest health and nature-based climate solutions could increase funding possibilities to restore meadows, amplify Indigenous voices and improve the resilience of our watersheds. Recently, I had the privilege of engaging local elementary students from the small town of Chester to assist us in the restoration of Child’s Meadow, near Lassen Volcanic National Park. Witnessing their sense of purpose and accomplishment as they took an active role in restoring their watershed reminded me once again of why California invests in the restoration of our incredible natural resources.  Read More Water More water for urban areas, some farms: Biden, Newsom officials announce long-awaited new water delivery rules December 20, 2024December 20, 2024 Environment Unstoppable invasion: How did mussels sneak into California, despite decades of state shipping rules? November 26, 2024November 27, 2024

Hurricane-Force Winds Bear Down on California, Latest in Stretch of Extreme Weather

California has been hit hard by extreme weather over the past several weeks

LOS ANGELES (AP) — Record-setting flooding over three days dumped more than a foot of rain on parts of northern California, a fire left thousands under evacuation orders and warnings in Los Angeles County, forecasters issued the first-ever tornado warning in San Francisco and rough seas tore down part of a wharf in Santa Cruz.All of this extreme weather has hit California in the past several weeks, showcasing the state’s particular vulnerability to major weather disasters. Strong storms Tuesday produced waves that forecasters said could reach 35 feet (10.7 meters) around Santa Cruz. The National Weather Service issued a high surf warning until early evening, cautioning people to stay out of the ocean and away from piers. For Chandler Price, meteorologist with the National Weather Service in San Diego, these extreme weather events are both typical and unusual for a La Niña winter, a natural climate cycle that can cause extreme weather across the planet. In California, it means a wetter than average northern region and a drier south. “So far we’ve seen that pattern play out pretty well,” he said, but added, “obviously, you know, the tornado in the Bay Area was atypical. ... We haven’t seen that before, at least not for a very long time.”A storm and wind gusts of up to 60 mph (96 kph) prompted the San Francisco tornado warning that extended to neighboring San Mateo County, which went out to about 1 million people earlier this month. The tornado overturned cars and toppled trees and utility poles near a mall in Scotts Valley, about 70 miles (110 kilometers) south of San Francisco, injuring several people. Tornadoes do occur in California, but they rarely hit populated areas.In San Francisco, local meteorologists said straight-line winds, not a tornado, felled trees onto cars and streets and damaged roofs. The storm also dumped significant snow across the northern Sierra Nevada. F. Martin Ralph, director of the Center for Western Weather and Water Extremes, said climate change means that atmospheric rivers, long stretches of wet air that can produce heavy rains, will be responsible for a greater share of California’s yearly precipitation and the periods in between those big events will be drier. These storms are essential for the water supply but can also be dangerous.“When they are too strong and too many in a row, we end up getting floods,” he said, adding that they drive California’s weather extremes.During storms this week around Santa Cruz, one man was trapped under debris and died and another person was pulled into the ocean. The surf also splintered off the end of a Santa Cruz municipal wharf that was under construction, plunging three people into the ocean. One swam to shore and the other two were rescued. A series of atmospheric rivers are expected through the rest of the week. Overall, this pattern is not unusual — these storms regularly produce high winds, heavy snow in the mountains and torrential rain this time of year.“What’s a little unique about this setup is how closely spaced they are, so there’s not much of a break between them,” said David Lawrence, a meteorologist and emergency response specialist with the National Weather Service.But these storms haven’t stretched very far south, creating dry weather in Southern California that increases fire risk.One of the state’s most recent blazes, the Franklin Fire left some 20,000 people under evacuation orders and warnings and forced students at Pepperdine University to shelter in place. The blaze was fueled by the Santa Anas, the notorious seasonal winds that blow dry air from the interior toward the coast, pushing back moist ocean breezes.Most of the destruction occurred in Malibu, a community on the western corner of Los Angeles known for its beautiful bluffs and the Hollywood-famous Zuma Beach. The fire damaged or destroyed 48 structures and is one of nearly 8,000 wildfires that have scorched more than 1 million acres (more than 404,685 hectares) in the Golden State this year. The Santa Ana winds, which peak in December, have also contributed to warmer-than-average temperatures in parts of the southern state, said Price with the National Weather Service. “Eighty-degree (26.7 Celsius) Christmases are not entirely uncommon around here,” he added, but “there was a couple of high temperature record breaks in the mountains, which are usually less affected by the Santa Anas, and so those were a little unusual.” Phillis reported from St. Louis.Associated Press writers Martha Mendoza and Stefanie Dazio contributed to this story.The Associated Press receives support from the Walton Family Foundation for coverage of water and environmental policy. The AP is solely responsible for all content. For all of AP’s environmental coverage, visit https://apnews.com/hub/climate-and-environment.Copyright 2024 The Associated Press. All rights reserved. This material may not be published, broadcast, rewritten or redistributed.Photos You Should See - Sept. 2024

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