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The Secret Affair that Bloomed Gaia Theory

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Saturday, September 7, 2024

This story was originally published by the Guardian and is reproduced here as part of the Climate Desk collaboration. Love rarely gets the credit it deserves for the advancement of science. Nor, for that matter, does hatred, greed, envy or any other emotion. Instead, this realm of knowledge tends to be idealized as something cold, hard, rational, neutral, and objective, dictated by data rather than feelings. The life and work of James Lovelock is proof that this is neither possible nor desirable. In his work, he helped us understand that humans can never completely divorce ourselves from any living subject because we are interconnected and interdependent, all part of the same Earth system, which he called Gaia. Our planet, he argued, behaves like a giant organism—regulating its temperature, discharging waste and cycling chemicals to maintain a healthy balance. Although highly controversial among scientists in the 1970s and 80s, this holistic view of the world had mass appeal, which stretched from New Age spiritual gurus to that stern advocate of free-market orthodoxy, Margaret Thatcher. Its insights into the link between nature and climate have since inspired many of the world’s most influential climate scientists, philosophers, and environmental campaigners. The French philosopher Bruno Latour said the Gaia theory has reshaped humanity’s understanding of our place in the universe as fundamentally as the ideas of Galileo Galilei. At its simplest, Gaia is about restoring an emotional connection with a living planet. Even in his darkest moments, Lovelock tended not to dwell on the causes of his unhappiness. While the most prominent academics of the modern age made their names by delving ever deeper into narrow specialisms, Lovelock dismissed this as knowing “more and more about less and less” and worked instead on his own all-encompassing, and thus deeply unfashionable, theory of planetary life. I first met Lovelock in the summer of 2020, during a break between pandemic lockdowns, when he was 101 years old. In person, he was utterly engrossing and kind. I had long wanted to interview the thinker who somehow managed to be both the inspiration for the green movement, and one of its fiercest critics. The account that follows, of the origins and development of Gaia theory, will probably surprise many of Lovelock’s followers, as it surprised me. Knowing he did not have long to live, Lovelock told me: “I can tell you things now that I could not say before.” The true nature of the relationships that made the man and the hypothesis were hidden or downplayed for decades. Some were military (he worked for MI5 and MI6 for more than 50 years) or industrial secrets (he warned another employer, Shell, of the climate dangers of fossil fuels as early as 1966). Others were too painful to share with the public, his own family and, sometimes, himself. Even in his darkest moments, Lovelock tended not to dwell on the causes of his unhappiness. He preferred to move on. Everything was a problem to be solved. What I discovered, and what has been lost in the years since Lovelock first formulated Gaia theory in the 1960s, is that the initial work was not his alone. Another thinker, and earlier collaborator, played a far more important conceptual role than has been acknowledged until now. It was a woman, Dian Hitchcock, whose name has largely been overlooked in accounts of the world-famous Gaia theory. Lovelock told me his greatest discovery was the biotic link between the Earth’s life and its atmosphere. He envisaged it as a “cool flame” that has been burning off the planet’s excess heat for billions of years. From this emerged the Gaia theory and an obsession with the atmosphere’s relationship with life on Earth. But he could not have seen it alone. Lovelock was guided by a love affair with Hitchcock, an American philosopher and systems analyst, who he met at NASA’s Jet Propulsion Laboratory (JPL) in California. Like most brilliant women in the male-dominated world of science in the 1960s, Hitchcock struggled to have her ideas heard, let alone acknowledged. But Lovelock listened. And, as he later acknowledged, without Hitchcock, the world’s understanding of itself may well have been very different. Lovelock had arrived at JPL in 1961 at the invitation of Abe Silverstein, the director of Space Flight Programs at NASA, who wanted an expert in chromatography to measure the chemical composition of the soil and air on other planets. For the science-fiction junkie Lovelock, it was “like a letter from a beloved. I was as excited and euphoric as if at the peak of passion.” He had been given a front-row seat to the reinvention of the modern world. California felt like the future. Hollywood was in its pomp, Disneyland had opened six years earlier, Venice Beach was about to become a cradle of youth culture and Bell Labs, Fairchild and Hewlett-Packard were pioneering the computer-chip technology that was to lead to the creation of Silicon Valley. JPL led the fields of space exploration, robotics and rocket technology. In the 1950s, Wernher von Braun, the German scientist who designed the V-2 rockets that devastated London in the second world war, made JPL the base for the US’s first successful satellite programme. It was his technology that the White House was relying on to provide the thrust for missions to the moon, Mars and Venus. By 1961, the San Gabriel hillside headquarters of JPL had become a meeting place for many of the planet’s finest minds, drawing in Nobel winners, such as Joshua Lederberg, and emerging “pop scientists” like Carl Sagan. There was no more thrilling time to be in the space business. Lovelock had a relatively minor role as a technical adviser, but he was, he told me, the first Englishman to join the US space programme: the most high-profile, and most lavishly funded, of cold war fronts. Everyone on Earth had a stake in the US-USSR rivalry, but most people felt distant and powerless. Three years earlier, Lovelock had listened on his homemade shortwave radio in Finchley to the “beep, beep, beep” transmission of the USSR’s Sputnik, the first satellite that humanity had put into orbit. Now he was playing with the super powers. Dian Hitchcock had been hired by NASA to keep tabs on the work being done at JPL to find life on Mars. The two organisations had been at loggerheads since 1958, when JPL had been placed under the jurisdiction of the newly created civilian space agency, Nasa, with day-to-day management carried out by the California Institute of Technology. JPL’s veteran scientists bristled at being told what to do by their counterparts in the younger but more powerful federal organisation. Nasa was determined to regain control. Hitchcock was both their spy and their battering ram. Lovelock became her besotted ally. They had first met in the JPL canteen, where Hitchcock introduced herself to Lovelock with a joke: “Do you realise your surname is a polite version of mine?” The question delighted Lovelock. As they got to know one another, he also came to respect Hitchcock’s toughness in her dealings with her boss, her colleagues and the scientists. He later saw her yell furiously at a colleague in the street. “They were frightened of her. Nasa was very wise to send her down,” he recalled. They found much in common. Both had struggled to find intellectual peers throughout their lives. Pillow talk involved imagining how a Martian scientist might find clues from the Earth’s atmosphere that our planet was full of life. Hitchcock had grown used to being overlooked or ignored. She struggled to find anyone who would take her seriously. That and her inability to find people she could talk to on the same intellectual level left her feeling lonely. Lovelock seemed different. He came across as something of an outsider, and was more attentive than other men. “I was initially invisible. I couldn’t find people who would listen to me. But Jim did want to talk to me and I ate it up,” she said. “When I find someone I can talk to in depth it’s a wonderful experience. It happens rarely.” They became not just collaborators but conspirators. Hitchcock was sceptical about JPL’s approach to finding life on Mars, while Lovelock had complaints about the inadequacy of the equipment. This set them against powerful interests. At JPL, the most optimistic scientists were those with the biggest stake in the research. Vance Oyama, an effusively cheerful biochemist who had joined the JPL programme from the University of Houston the same year as Lovelock, put the prospects of life on Mars at 50 percent. He had a multimillion-dollar reason to be enthusiastic, as he was responsible for designing one of the life-detection experiments on the Mars lander: a small box containing water and a “chicken soup” of nutrients that were to be poured on to Martian soil. Hitchcock suggested her employer, the NASA contractor Hamilton Standard, hire Lovelock as a consultant, which meant she wrote the checks for all his flights, hotel bills and other expenses during trips to JPL. As his former laboratory assistant Peter Simmonds put it, Lovelock was now “among the suits.” On March 31, 1965, Hitchcock submitted a scathing initial report to Hamilton Standard and its client Nasa, describing the plans of JPL’s bioscience division as excessively costly and unlikely to yield useful data. She accused the biologists of “geocentrism” in their assumption that experiments to find life on Earth would be equally applicable to other planets. She felt that information about the presence of life could be found in signs of order—in homeostasis—not in one specific surface location, but at a wider level. As an example of how this might be achieved, she spoke highly of a method of atmospheric gas sampling that she had “initiated” with Lovelock. “I thought it obvious that the best experiment to begin with was composition of the atmosphere,” she recalled. This plan was brilliantly simple and thus a clear threat to the complicated, multimillion-dollar experiments that had been on the table up to that point. At a JPL strategy meeting, Lovelock weighed into the debate with a series of withering comments about using equipment developed in the Mojave Desert to find life on Mars. He instead proposed an analysis of gases to assess whether the planet was in equilibrium (lifelessly flatlining) or disequilibrium (vivaciously erratic) based on the assumption that life discharged waste (excess heat and gases) into space in order to maintain a habitable environment. It would be the basis for his theory of a self-regulating planet, which he would later call Gaia. Lovelock’s first paper on detecting life on Mars was published in Nature in August 1965, under his name only. Hitchcock later complained that she deserved more credit, but she said nothing at the time. The pair were not only working together by this stage, they were also having a love affair. “Our trysts were all in hotels in the US,” Lovelock remembered. “We carried on the affair for six months or more.” Sex and science were interwoven. Pillow talk involved imagining how a Martian scientist might find clues from the Earth’s atmosphere that our planet was full of life. This was essential for the Gaia hypothesis. Hitchcock said she had posed the key question: what made life possible here and, apparently, nowhere else? This set them thinking about the Earth as a self-regulating system in which the atmosphere was a product of life. From this revolutionary perspective, the gases surrounding the Earth suddenly began to take on an air of vitality. They were not just life-enabling, they were suffused with life, like the exhalation of a planetary being—or what they called in their private correspondence, the “great animal.” Far more complex and irregular than the atmosphere of a dead planet like Mars, these gases burned with life. They sounded out others. Sagan, who shared an office with Lovelock, provided a new dimension to their idea by asking how the Earth had remained relatively cool even though the sun had steadily grown hotter over the previous 8 billion years. Lewis Kaplan at JPL and Peter Fellgett at Reading University were important early allies and listeners. (Later, the pioneering US biologist Lynn Margulis would make an essential contribution, providing an explanation of how Lovelock’s theory might work in practice at a microbial level.) The long-dead physicist Erwin Schrödinger also provided an important key, according to Lovelock: “I knew nothing about finding life or what life was. The first thing I read was Schrödinger’s What is Life? He said life chucked out high-entropy systems into the environment. That was the basis of Gaia; I realized planet Earth excretes heat.” In the mid-60s, this was all still too new and unformed to be described as a hypothesis. But it was a whole new way of thinking about life on Earth. They were going further than Charles Darwin in arguing that life does not just adapt to the environment, it also shapes it. This meant evolution was far more of a two-way relationship than mainstream science had previously acknowledged. Life was no longer just a passive object of change; it was an agent. The couple were thrilled. They were pioneers making an intellectual journey nobody had made before. It was to be the high point in their relationship. The following two years were a bumpy return to Earth. Lovelock was uncomfortable with the management duties he had been given at JPL. The budget was an unwelcome responsibility for a man who had struggled with numbers since childhood, and he was worried he lacked the street smarts to sniff out the charlatans who were pitching bogus multimillion-dollar projects. Meanwhile, the biologists Oyama and Lederberg were going above his head and taking every opportunity to put him down. “Oyama would come up and say: ‘What are you doing there? You are wasting your time, Nasa’s time,’” Lovelock recalled. “He was one of the few unbearable persons I have known in my life.” In 1966, they had their way, and Lovelock and Hitchcock’s plans for an alternative Mars life-exploration operation using atmospheric analysis were dropped by the US space agency. “I am sorry to hear that politics has interfered with your chances of a subcontract from Nasa,” Fellgett commiserated. Cracks started to appear in Lovelock’s relationship with Hitchcock. He had tried to keep the affair secret, but lying weighed heavily on him. They could never go to the theater, concerts, or parks in case they were spotted together, but close friends could see what was happening. “They naturally gravitated towards one another. It was obvious,” Simmonds said. When they corresponded, Lovelock insisted Hitchcock never discuss anything but work and science in her letters, which he knew would be opened by his wife, Helen, who also worked as his secretary. But intimacy and passion still came across in discussions of their theories. Their view of the atmosphere “almost as something itself alive” was to become a pillar of Gaia theory. Lovelock’s family noticed a change in his behaviour. The previous year, his mother had suspected he was unhappy in his marriage and struggling with a big decision. Helen openly ridiculed his newly acquired philosophical pretensions and way of talking—both no doubt influenced by Hitchcock. “Who does he think he is? A second Einstein?” she asked scornfully. Helen would refer to Hitchcock as “Madam” or “Fanny by Gaslight,” forbade her husband from introducing Hitchcock to other acquaintances, and insisted he spend less time in the US. But he could not stay away, and Helen could not help but fret: “Why do you keep asking me what I’m worried about? You know I don’t like (you) all those miles away. I’m only human, dear, and nervous. I can only sincerely hope by now you have been to JPL and found that you do not have to stay anything like a month. I had a night of nightmares…The bed is awfully big and cold without you.” So, Lovelock visited JPL less frequently and for shorter periods. Hitchcock filled the physical void by throwing her energy into their shared intellectual work. Taking the lead, she began drafting a summary of their life-detection ideas for an ambitious series of journal papers about exobiology (the study of the possibility of life on other planets) that she hoped would persuade either the US Congress or the British parliament to fund a 100-inch infrared telescope to search planetary atmospheres for evidence of life. But nothing seemed to be going their way. In successive weeks, their jointly authored paper on life detection was rejected by two major journals: the Proceedings of the Royal Society in the UK and then Science in the US. The partners agreed to swallow their pride and submit their work to the little-known journal Icarus. Hitchcock admitted to feeling downhearted in a handwritten note from 11 November 1966: “Enclosed is a copy of our masterpiece, now doubly blessed since it has been rejected by Science. No explanation so I suppose it got turned down by all the reviewers…Feel rather badly about the rejection. Have you ever had trouble like this, publishing anything?…As for going for Icarus, I can’t find anybody who’s even heard of the journal.” Hitchcock refused to give up. In late 1966 and early 1967, she sent a flurry of long, intellectually vivacious letters to Lovelock about the papers they were working on together. Her correspondence during this period was obsessive, hesitant, acerbic, considerate, critical, encouraging and among the most brilliant in the Lovelock archives. These missives can be read as foundation stones for the Gaia hypothesis or as thinly disguised love letters. The connection between life and the atmosphere, which was only intuited here, would be firmly established by climatologists. In one she lamented that they were unable to meet in person to discuss their work, but she enthused about how far their intellectual journey had taken them. “I’m getting rather impressed with us as I read Biology and the Exploration of Mars—with the fantastic importance of the topic. Wow, if this works and we do find life on Mars we will be in the limelight,” she wrote. Further on, she portrayed the two of them as explorers, whose advanced ideas put them up against the world, or at least against the senior members of the JPL biology team. The most impressive of these letters is a screed in which Hitchcock wrote to Lovelock with an eloquent summary of “our reasoning” and how this shared approach went beyond mainstream science. “We want to see whether a biota exists—not whether single animals exist,” she said. “It is also the nature of single species to affect their living and nonliving environments—to leave traces of themselves and their activity everywhere. Therefore we conclude that the biota must leave its characteristic signature on the ‘non-living’ portions of the environment.” Hitchcock then went on to describe how the couple had tried to identify life, in a letter dated December 13, 1966: “We started our search for the unmistakable physical signature of the terrestrial biota, believing that if we found it, it would—like all other effects of biological entities—be recognizable as such by virtue of the fact that it represents ‘information’ in the pure and simple sense of a state of affairs which is enormously improbable on nonbiological grounds…We picked the atmosphere as the most likely residence of the signature, on the grounds that the chemical interactions with atmospheres are probably characteristic of all biotas. We then tried to find something in our atmosphere which would, for example, tell a good Martian chemist that life exists here. We made false starts because we foolishly looked for one giveaway component. There are none. Came the dawn and we saw that the total atmospheric mixture is a peculiar one, which is in fact so information-full that it is improbable. And so forth. And now we tend to view the atmosphere almost as something itself alive, because it is the product of the biota and an essential channel by which elements of the great living animal communicate—it is indeed the milieu internal which is maintained by the biota as a whole for the wellbeing of its components. This is getting too long. Hope it helps. Will write again soon.” With hindsight, these words are astonishingly prescient and poignant. Their view of the atmosphere “almost as something itself alive” was to become a pillar of Gaia theory. The connection between life and the atmosphere, which was only intuited here, would be firmly established by climatologists. It was not just the persuasiveness of the science that resonates in this letter, but the intellectual passion with which ideas are developed and given lyrical expression. The poetic conclusion—“came the dawn”—reads as a hopeful burst of illumination and a sad intimation that their night together may be drawing to a close. Their joint paper, “Life detection by atmospheric analysis,” was submitted to Icarus in December 1966. Lovelock acknowledged it was superior to his earlier piece for Nature: “Anybody who was competent would see the difference, how the ideas had been cleared up and presented in a much more logical way.” He insisted Hitchcock be lead author. Although glad to have him on board because she had never before written a scientific paper and would have struggled to get the piece published if she had put it solely under her name, she told me she had no doubt she deserved most of the credit: “I remember when I wrote that paper, I hardly let him put a word in.” The year 1967 was to prove horrendous for them both, professionally and personally. In fact, it was a dire moment for the entire US space program. In January, three astronauts died in a flash fire during a test on an Apollo 204 spacecraft, prompting soul-searching and internal investigations. US politicians were no longer willing to write blank cheques for a race to Mars. Public priorities were shifting as the Vietnam war and the civil rights movement gained ground, and Congress slashed the Nasa budget. “He just dropped me. I was puzzled and deeply hurt. It had to end, but he could have said something.” The affair between Hitchcock and Lovelock was approaching an ugly end. Domestic pressures were becoming intense. Helen was increasingly prone to illness and resentment. On March 15, 1967, she wrote to Lovelock at JPL to say: “It seems as if you have been gone for ages,” and scornfully asked about Hitchcock: “Has Madam arrived yet?” Around this time, Lovelock’s colleague at JPL, Peter Simmonds, remembered things coming to a head. “He strayed from the fold. Helen told him to ‘get on a plane or you won’t have a marriage’ or some such ultimatum.” Lovelock was forced into an agonising decision about Hitchcock. “We were in love with each other. It was very difficult. I think that was one of the worst times in my life. [Helen’s health] was getting much worse. She needed me. It was clear where duty led me and I had four kids. Had Helen been fit and well, despite the size of the family, it would have been easier to go off.” Instead, he decided to ditch Hitchcock. “I determined to break it off. It made me very miserable…I just couldn’t continue.” The breakup, when it finally came, was brutal. Today, more than 50 years on, Hitchcock is still pained by the way things ended. “I think it was 1967. We were both checking into the Huntington and got rooms that were separated by a conference room. Just after I opened the door, a door on the opposite side was opened by Jim. We looked at each other and I said something like: ‘Look, Jim, this is really handy.’ Whereupon he closed the door and never spoke to me again. I was shattered. Probably ‘heartbroken’ is the appropriate term here. He didn’t give me any explanation. He didn’t say anything about Helen. He just dropped me. I was puzzled and deeply hurt. It had to end, but he could have said something…He could not possibly have been more miserable than I was.” Hitchcock was reluctant to let go. That summer, she sent Lovelock a clipping of her interview with a newspaper in Connecticut, below the headline “A Telescopic Look at Life on Other Planets,” an article outlining the bid she and Lovelock were preparing in order to secure financial support for a telescope. In November, she wrote a memo for her company detailing the importance of her continued collaboration with Lovelock and stressing their work “must be published.” But the flame had been extinguished. The last record of direct correspondence between the couple is an official invoice, dated March 18, 1968, and formally signed “consultant James E Lovelock.” Hitchcock was fired by Hamilton Standard soon after. “They were not pleased that I had anything at all to do with Mars,” she recalled. The same was probably also true for her relationship with Lovelock. The doomed romance could not have been more symbolic. Hitchcock and Lovelock had transformed humanity’s view of its place in the universe. By revealing the interplay between life and the atmosphere, they had shown how fragile are the conditions for existence on this planet, and how unlikely are the prospects for life elsewhere in the solar system. They had brought romantic dreams of endless expansion back down to Earth with a bump. This is an edited excerpt from The Many Lives of James Lovelock: Science, Secrets and Gaia Theory, published by Canongate on September 12 and available at guardianbookshop.com

This story was originally published by the Guardian and is reproduced here as part of the Climate Desk collaboration. Love rarely gets the credit it deserves for the advancement of science. Nor, for that matter, does hatred, greed, envy or any other emotion. Instead, this realm of knowledge tends to be idealized as something cold, hard, rational, neutral, and objective, dictated […]

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

Love rarely gets the credit it deserves for the advancement of science. Nor, for that matter, does hatred, greed, envy or any other emotion. Instead, this realm of knowledge tends to be idealized as something cold, hard, rational, neutral, and objective, dictated by data rather than feelings. The life and work of James Lovelock is proof that this is neither possible nor desirable. In his work, he helped us understand that humans can never completely divorce ourselves from any living subject because we are interconnected and interdependent, all part of the same Earth system, which he called Gaia.

Our planet, he argued, behaves like a giant organism—regulating its temperature, discharging waste and cycling chemicals to maintain a healthy balance. Although highly controversial among scientists in the 1970s and 80s, this holistic view of the world had mass appeal, which stretched from New Age spiritual gurus to that stern advocate of free-market orthodoxy, Margaret Thatcher. Its insights into the link between nature and climate have since inspired many of the world’s most influential climate scientists, philosophers, and environmental campaigners. The French philosopher Bruno Latour said the Gaia theory has reshaped humanity’s understanding of our place in the universe as fundamentally as the ideas of Galileo Galilei. At its simplest, Gaia is about restoring an emotional connection with a living planet.

Even in his darkest moments, Lovelock tended not to dwell on the causes of his unhappiness.

While the most prominent academics of the modern age made their names by delving ever deeper into narrow specialisms, Lovelock dismissed this as knowing “more and more about less and less” and worked instead on his own all-encompassing, and thus deeply unfashionable, theory of planetary life.

I first met Lovelock in the summer of 2020, during a break between pandemic lockdowns, when he was 101 years old. In person, he was utterly engrossing and kind. I had long wanted to interview the thinker who somehow managed to be both the inspiration for the green movement, and one of its fiercest critics. The account that follows, of the origins and development of Gaia theory, will probably surprise many of Lovelock’s followers, as it surprised me.

Knowing he did not have long to live, Lovelock told me: “I can tell you things now that I could not say before.” The true nature of the relationships that made the man and the hypothesis were hidden or downplayed for decades. Some were military (he worked for MI5 and MI6 for more than 50 years) or industrial secrets (he warned another employer, Shell, of the climate dangers of fossil fuels as early as 1966). Others were too painful to share with the public, his own family and, sometimes, himself. Even in his darkest moments, Lovelock tended not to dwell on the causes of his unhappiness. He preferred to move on. Everything was a problem to be solved.

What I discovered, and what has been lost in the years since Lovelock first formulated Gaia theory in the 1960s, is that the initial work was not his alone. Another thinker, and earlier collaborator, played a far more important conceptual role than has been acknowledged until now. It was a woman, Dian Hitchcock, whose name has largely been overlooked in accounts of the world-famous Gaia theory.

Lovelock told me his greatest discovery was the biotic link between the Earth’s life and its atmosphere. He envisaged it as a “cool flame” that has been burning off the planet’s excess heat for billions of years. From this emerged the Gaia theory and an obsession with the atmosphere’s relationship with life on Earth. But he could not have seen it alone. Lovelock was guided by a love affair with Hitchcock, an American philosopher and systems analyst, who he met at NASA’s Jet Propulsion Laboratory (JPL) in California. Like most brilliant women in the male-dominated world of science in the 1960s, Hitchcock struggled to have her ideas heard, let alone acknowledged. But Lovelock listened. And, as he later acknowledged, without Hitchcock, the world’s understanding of itself may well have been very different.

Lovelock had arrived at JPL in 1961 at the invitation of Abe Silverstein, the director of Space Flight Programs at NASA, who wanted an expert in chromatography to measure the chemical composition of the soil and air on other planets. For the science-fiction junkie Lovelock, it was “like a letter from a beloved. I was as excited and euphoric as if at the peak of passion.” He had been given a front-row seat to the reinvention of the modern world.

California felt like the future. Hollywood was in its pomp, Disneyland had opened six years earlier, Venice Beach was about to become a cradle of youth culture and Bell Labs, Fairchild and Hewlett-Packard were pioneering the computer-chip technology that was to lead to the creation of Silicon Valley. JPL led the fields of space exploration, robotics and rocket technology.

In the 1950s, Wernher von Braun, the German scientist who designed the V-2 rockets that devastated London in the second world war, made JPL the base for the US’s first successful satellite programme. It was his technology that the White House was relying on to provide the thrust for missions to the moon, Mars and Venus. By 1961, the San Gabriel hillside headquarters of JPL had become a meeting place for many of the planet’s finest minds, drawing in Nobel winners, such as Joshua Lederberg, and emerging “pop scientists” like Carl Sagan. There was no more thrilling time to be in the space business.

Lovelock had a relatively minor role as a technical adviser, but he was, he told me, the first Englishman to join the US space programme: the most high-profile, and most lavishly funded, of cold war fronts. Everyone on Earth had a stake in the US-USSR rivalry, but most people felt distant and powerless. Three years earlier, Lovelock had listened on his homemade shortwave radio in Finchley to the “beep, beep, beep” transmission of the USSR’s Sputnik, the first satellite that humanity had put into orbit. Now he was playing with the super powers.

Dian Hitchcock had been hired by NASA to keep tabs on the work being done at JPL to find life on Mars. The two organisations had been at loggerheads since 1958, when JPL had been placed under the jurisdiction of the newly created civilian space agency, Nasa, with day-to-day management carried out by the California Institute of Technology. JPL’s veteran scientists bristled at being told what to do by their counterparts in the younger but more powerful federal organisation. Nasa was determined to regain control. Hitchcock was both their spy and their battering ram. Lovelock became her besotted ally.

They had first met in the JPL canteen, where Hitchcock introduced herself to Lovelock with a joke: “Do you realise your surname is a polite version of mine?” The question delighted Lovelock. As they got to know one another, he also came to respect Hitchcock’s toughness in her dealings with her boss, her colleagues and the scientists. He later saw her yell furiously at a colleague in the street. “They were frightened of her. Nasa was very wise to send her down,” he recalled. They found much in common. Both had struggled to find intellectual peers throughout their lives.

Pillow talk involved imagining how a Martian scientist might find clues from the Earth’s atmosphere that our planet was full of life.

Hitchcock had grown used to being overlooked or ignored. She struggled to find anyone who would take her seriously. That and her inability to find people she could talk to on the same intellectual level left her feeling lonely. Lovelock seemed different. He came across as something of an outsider, and was more attentive than other men. “I was initially invisible. I couldn’t find people who would listen to me. But Jim did want to talk to me and I ate it up,” she said. “When I find someone I can talk to in depth it’s a wonderful experience. It happens rarely.”

They became not just collaborators but conspirators. Hitchcock was sceptical about JPL’s approach to finding life on Mars, while Lovelock had complaints about the inadequacy of the equipment. This set them against powerful interests. At JPL, the most optimistic scientists were those with the biggest stake in the research. Vance Oyama, an effusively cheerful biochemist who had joined the JPL programme from the University of Houston the same year as Lovelock, put the prospects of life on Mars at 50 percent. He had a multimillion-dollar reason to be enthusiastic, as he was responsible for designing one of the life-detection experiments on the Mars lander: a small box containing water and a “chicken soup” of nutrients that were to be poured on to Martian soil.

Hitchcock suggested her employer, the NASA contractor Hamilton Standard, hire Lovelock as a consultant, which meant she wrote the checks for all his flights, hotel bills and other expenses during trips to JPL. As his former laboratory assistant Peter Simmonds put it, Lovelock was now “among the suits.”

On March 31, 1965, Hitchcock submitted a scathing initial report to Hamilton Standard and its client Nasa, describing the plans of JPL’s bioscience division as excessively costly and unlikely to yield useful data. She accused the biologists of “geocentrism” in their assumption that experiments to find life on Earth would be equally applicable to other planets. She felt that information about the presence of life could be found in signs of order—in homeostasis—not in one specific surface location, but at a wider level. As an example of how this might be achieved, she spoke highly of a method of atmospheric gas sampling that she had “initiated” with Lovelock. “I thought it obvious that the best experiment to begin with was composition of the atmosphere,” she recalled. This plan was brilliantly simple and thus a clear threat to the complicated, multimillion-dollar experiments that had been on the table up to that point.

At a JPL strategy meeting, Lovelock weighed into the debate with a series of withering comments about using equipment developed in the Mojave Desert to find life on Mars. He instead proposed an analysis of gases to assess whether the planet was in equilibrium (lifelessly flatlining) or disequilibrium (vivaciously erratic) based on the assumption that life discharged waste (excess heat and gases) into space in order to maintain a habitable environment. It would be the basis for his theory of a self-regulating planet, which he would later call Gaia.

Lovelock’s first paper on detecting life on Mars was published in Nature in August 1965, under his name only. Hitchcock later complained that she deserved more credit, but she said nothing at the time.

The pair were not only working together by this stage, they were also having a love affair. “Our trysts were all in hotels in the US,” Lovelock remembered. “We carried on the affair for six months or more.” Sex and science were interwoven. Pillow talk involved imagining how a Martian scientist might find clues from the Earth’s atmosphere that our planet was full of life. This was essential for the Gaia hypothesis. Hitchcock said she had posed the key question: what made life possible here and, apparently, nowhere else? This set them thinking about the Earth as a self-regulating system in which the atmosphere was a product of life.

From this revolutionary perspective, the gases surrounding the Earth suddenly began to take on an air of vitality. They were not just life-enabling, they were suffused with life, like the exhalation of a planetary being—or what they called in their private correspondence, the “great animal.” Far more complex and irregular than the atmosphere of a dead planet like Mars, these gases burned with life.

They sounded out others. Sagan, who shared an office with Lovelock, provided a new dimension to their idea by asking how the Earth had remained relatively cool even though the sun had steadily grown hotter over the previous 8 billion years. Lewis Kaplan at JPL and Peter Fellgett at Reading University were important early allies and listeners. (Later, the pioneering US biologist Lynn Margulis would make an essential contribution, providing an explanation of how Lovelock’s theory might work in practice at a microbial level.) The long-dead physicist Erwin Schrödinger also provided an important key, according to Lovelock: “I knew nothing about finding life or what life was. The first thing I read was Schrödinger’s What is Life? He said life chucked out high-entropy systems into the environment. That was the basis of Gaia; I realized planet Earth excretes heat.”

In the mid-60s, this was all still too new and unformed to be described as a hypothesis. But it was a whole new way of thinking about life on Earth. They were going further than Charles Darwin in arguing that life does not just adapt to the environment, it also shapes it. This meant evolution was far more of a two-way relationship than mainstream science had previously acknowledged. Life was no longer just a passive object of change; it was an agent. The couple were thrilled. They were pioneers making an intellectual journey nobody had made before.

It was to be the high point in their relationship.

The following two years were a bumpy return to Earth. Lovelock was uncomfortable with the management duties he had been given at JPL. The budget was an unwelcome responsibility for a man who had struggled with numbers since childhood, and he was worried he lacked the street smarts to sniff out the charlatans who were pitching bogus multimillion-dollar projects. Meanwhile, the biologists Oyama and Lederberg were going above his head and taking every opportunity to put him down. “Oyama would come up and say: ‘What are you doing there? You are wasting your time, Nasa’s time,’” Lovelock recalled. “He was one of the few unbearable persons I have known in my life.”

In 1966, they had their way, and Lovelock and Hitchcock’s plans for an alternative Mars life-exploration operation using atmospheric analysis were dropped by the US space agency. “I am sorry to hear that politics has interfered with your chances of a subcontract from Nasa,” Fellgett commiserated.

Cracks started to appear in Lovelock’s relationship with Hitchcock. He had tried to keep the affair secret, but lying weighed heavily on him. They could never go to the theater, concerts, or parks in case they were spotted together, but close friends could see what was happening. “They naturally gravitated towards one another. It was obvious,” Simmonds said. When they corresponded, Lovelock insisted Hitchcock never discuss anything but work and science in her letters, which he knew would be opened by his wife, Helen, who also worked as his secretary. But intimacy and passion still came across in discussions of their theories.

Their view of the atmosphere “almost as something itself alive” was to become a pillar of Gaia theory.

Lovelock’s family noticed a change in his behaviour. The previous year, his mother had suspected he was unhappy in his marriage and struggling with a big decision. Helen openly ridiculed his newly acquired philosophical pretensions and way of talking—both no doubt influenced by Hitchcock. “Who does he think he is? A second Einstein?” she asked scornfully. Helen would refer to Hitchcock as “Madam” or “Fanny by Gaslight,” forbade her husband from introducing Hitchcock to other acquaintances, and insisted he spend less time in the US. But he could not stay away, and Helen could not help but fret: “Why do you keep asking me what I’m worried about? You know I don’t like (you) all those miles away. I’m only human, dear, and nervous. I can only sincerely hope by now you have been to JPL and found that you do not have to stay anything like a month. I had a night of nightmares…The bed is awfully big and cold without you.”

So, Lovelock visited JPL less frequently and for shorter periods. Hitchcock filled the physical void by throwing her energy into their shared intellectual work. Taking the lead, she began drafting a summary of their life-detection ideas for an ambitious series of journal papers about exobiology (the study of the possibility of life on other planets) that she hoped would persuade either the US Congress or the British parliament to fund a 100-inch infrared telescope to search planetary atmospheres for evidence of life.

But nothing seemed to be going their way. In successive weeks, their jointly authored paper on life detection was rejected by two major journals: the Proceedings of the Royal Society in the UK and then Science in the US. The partners agreed to swallow their pride and submit their work to the little-known journal Icarus. Hitchcock admitted to feeling downhearted in a handwritten note from 11 November 1966: Enclosed is a copy of our masterpiece, now doubly blessed since it has been rejected by Science. No explanation so I suppose it got turned down by all the reviewers…Feel rather badly about the rejection. Have you ever had trouble like this, publishing anything?…As for going for Icarus, I can’t find anybody who’s even heard of the journal.”

Hitchcock refused to give up. In late 1966 and early 1967, she sent a flurry of long, intellectually vivacious letters to Lovelock about the papers they were working on together. Her correspondence during this period was obsessive, hesitant, acerbic, considerate, critical, encouraging and among the most brilliant in the Lovelock archives. These missives can be read as foundation stones for the Gaia hypothesis or as thinly disguised love letters.

The connection between life and the atmosphere, which was only intuited here, would be firmly established by climatologists.

In one she lamented that they were unable to meet in person to discuss their work, but she enthused about how far their intellectual journey had taken them. “I’m getting rather impressed with us as I read Biology and the Exploration of Mars—with the fantastic importance of the topic. Wow, if this works and we do find life on Mars we will be in the limelight,” she wrote. Further on, she portrayed the two of them as explorers, whose advanced ideas put them up against the world, or at least against the senior members of the JPL biology team.

The most impressive of these letters is a screed in which Hitchcock wrote to Lovelock with an eloquent summary of “our reasoning” and how this shared approach went beyond mainstream science. “We want to see whether a biota exists—not whether single animals exist,” she said. “It is also the nature of single species to affect their living and nonliving environments—to leave traces of themselves and their activity everywhere. Therefore we conclude that the biota must leave its characteristic signature on the ‘non-living’ portions of the environment.” Hitchcock then went on to describe how the couple had tried to identify life, in a letter dated December 13, 1966:

We started our search for the unmistakable physical signature of the terrestrial biota, believing that if we found it, it would—like all other effects of biological entities—be recognizable as such by virtue of the fact that it represents ‘information’ in the pure and simple sense of a state of affairs which is enormously improbable on nonbiological grounds…We picked the atmosphere as the most likely residence of the signature, on the grounds that the chemical interactions with atmospheres are probably characteristic of all biotas. We then tried to find something in our atmosphere which would, for example, tell a good Martian chemist that life exists here. We made false starts because we foolishly looked for one giveaway component. There are none. Came the dawn and we saw that the total atmospheric mixture is a peculiar one, which is in fact so information-full that it is improbable. And so forth. And now we tend to view the atmosphere almost as something itself alive, because it is the product of the biota and an essential channel by which elements of the great living animal communicate—it is indeed the milieu internal which is maintained by the biota as a whole for the wellbeing of its components. This is getting too long. Hope it helps. Will write again soon.”

With hindsight, these words are astonishingly prescient and poignant. Their view of the atmosphere “almost as something itself alive” was to become a pillar of Gaia theory. The connection between life and the atmosphere, which was only intuited here, would be firmly established by climatologists. It was not just the persuasiveness of the science that resonates in this letter, but the intellectual passion with which ideas are developed and given lyrical expression. The poetic conclusion—“came the dawn”—reads as a hopeful burst of illumination and a sad intimation that their night together may be drawing to a close.

Their joint paper, “Life detection by atmospheric analysis,” was submitted to Icarus in December 1966. Lovelock acknowledged it was superior to his earlier piece for Nature: “Anybody who was competent would see the difference, how the ideas had been cleared up and presented in a much more logical way.” He insisted Hitchcock be lead author. Although glad to have him on board because she had never before written a scientific paper and would have struggled to get the piece published if she had put it solely under her name, she told me she had no doubt she deserved most of the credit: “I remember when I wrote that paper, I hardly let him put a word in.”

The year 1967 was to prove horrendous for them both, professionally and personally. In fact, it was a dire moment for the entire US space program. In January, three astronauts died in a flash fire during a test on an Apollo 204 spacecraft, prompting soul-searching and internal investigations. US politicians were no longer willing to write blank cheques for a race to Mars. Public priorities were shifting as the Vietnam war and the civil rights movement gained ground, and Congress slashed the Nasa budget.

“He just dropped me. I was puzzled and deeply hurt. It had to end, but he could have said something.”

The affair between Hitchcock and Lovelock was approaching an ugly end. Domestic pressures were becoming intense. Helen was increasingly prone to illness and resentment. On March 15, 1967, she wrote to Lovelock at JPL to say: “It seems as if you have been gone for ages,” and scornfully asked about Hitchcock: “Has Madam arrived yet?” Around this time, Lovelock’s colleague at JPL, Peter Simmonds, remembered things coming to a head. “He strayed from the fold. Helen told him to ‘get on a plane or you won’t have a marriage’ or some such ultimatum.”

Lovelock was forced into an agonising decision about Hitchcock. “We were in love with each other. It was very difficult. I think that was one of the worst times in my life. [Helen’s health] was getting much worse. She needed me. It was clear where duty led me and I had four kids. Had Helen been fit and well, despite the size of the family, it would have been easier to go off.” Instead, he decided to ditch Hitchcock. “I determined to break it off. It made me very miserable…I just couldn’t continue.”

The breakup, when it finally came, was brutal. Today, more than 50 years on, Hitchcock is still pained by the way things ended. “I think it was 1967. We were both checking into the Huntington and got rooms that were separated by a conference room. Just after I opened the door, a door on the opposite side was opened by Jim. We looked at each other and I said something like: ‘Look, Jim, this is really handy.’ Whereupon he closed the door and never spoke to me again. I was shattered. Probably ‘heartbroken’ is the appropriate term here. He didn’t give me any explanation. He didn’t say anything about Helen. He just dropped me. I was puzzled and deeply hurt. It had to end, but he could have said something…He could not possibly have been more miserable than I was.”

Hitchcock was reluctant to let go. That summer, she sent Lovelock a clipping of her interview with a newspaper in Connecticut, below the headline “A Telescopic Look at Life on Other Planets,” an article outlining the bid she and Lovelock were preparing in order to secure financial support for a telescope. In November, she wrote a memo for her company detailing the importance of her continued collaboration with Lovelock and stressing their work “must be published.”

But the flame had been extinguished. The last record of direct correspondence between the couple is an official invoice, dated March 18, 1968, and formally signed “consultant James E Lovelock.” Hitchcock was fired by Hamilton Standard soon after. “They were not pleased that I had anything at all to do with Mars,” she recalled. The same was probably also true for her relationship with Lovelock.

The doomed romance could not have been more symbolic. Hitchcock and Lovelock had transformed humanity’s view of its place in the universe. By revealing the interplay between life and the atmosphere, they had shown how fragile are the conditions for existence on this planet, and how unlikely are the prospects for life elsewhere in the solar system. They had brought romantic dreams of endless expansion back down to Earth with a bump.

This is an edited excerpt from The Many Lives of James Lovelock: Science, Secrets and Gaia Theory, published by Canongate on September 12 and available at guardianbookshop.com

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On North Carolina’s Rivers and Streams, the Cleanup of Helene’s Fury Seems Never-Ending

It’s been only a year since Hurricane Helene hammered the southeast U.S. from Florida to the Carolinas

WOODFIN, N.C. (AP) — Bracing himself against the current in waist-deep water, Clancy Loorham wrestles a broken length of PVC pipe from the rocky bottom of the French Broad River and peers inside.“I got a catfish in the pipe,” the 27-year-old with wispy beard and mustache shouted to fellow cleanup workers floating nearby in rafts, canoes and kayaks piled with plastic pipe and other human-made detritus. “He’s right here. I’m looking him in the eyes!”It’s been just a year since floodwaters from the remnants of Hurricane Helene washed these pipes out of a nearby factory with such force that some pieces ended up in Douglas Lake, about 90 miles (145 kilometers) away in Tennessee. But they're already slick with algae and filled with river silt — and creatures.Helene killed more than 250 people and caused nearly $80 billion in damage from Florida to the Carolinas. In the North Carolina mountains, rains of up to 30 inches (76 centimeters) turned gentle streams into torrents that swept away trees, boulders, homes and vehicles, shattered century-old flood records, and in some places carved out new channels.In the haste to rescue people and restore their lives to some semblance of normalcy, some fear the recovery efforts compounded Helene’s impact on the ecosystem. Contractors hired to remove vehicles, shipping containers, shattered houses and other large debris from waterways sometimes damaged sensitive habitat.“They were using the river almost as a highway in some situations,” said Peter Raabe, Southeast regional director for the conservation group American Rivers.Conservationists found instances of contractors cutting down healthy trees and removing live root balls, said Jon Stamper, river cleanup coordinator for MountainTrue, the North Carolina-based nonprofit conducting the French Broad work.“Those trees kind of create fish habitats,” he said. “They slow the flow of water down. They’re an important part of a river system, and we’ve seen kind of a disregard for that.”The Army Corps of Engineers said in a statement that debris removal missions “are often challenging” due to the large volume storms can leave behind across a wide area. The Corps said it trains its contractors to minimize disturbances to waterways and to prevent harm to wildlife. North Carolina Emergency Management said debris removal after Helene took into account safety and the environment, and that projects reimbursed by the Federal Emergency Management Agency met that agency’s standards for minimizing impact. Battered first by the storm, and then by the cleanup Hannah Woodburn, who tracks the headwaters and tributaries of the New River as MountainTrue's Upper New Riverkeeper, said waters are much muddier since Helene, both from storm-related vegetation loss and from heavy machinery used during cleanup.She said it's been bad for the eastern hellbender, a “species of special concern” in North Carolina. It's one of only three giant salamanders found in the world, growing up to 2 feet (61 centimeters) long and weighing more than 3 pounds (1.4 kilograms).“After the storm, we had so many reports and pictures of dead hellbenders, some nearly a mile from the stream once the waters receded,” said Woodburn.Of even greater concern is the Appalachian elktoe, a federally endangered mussel found only in the mountains of North Carolina and eastern Tennessee. Helene hurt the Appalachian elktoe, but it also suffered from human-caused damage, said Mike Perkins, a state biologist.Perkins said some contractors coordinated with conservation teams ahead of river cleanups and took precautions. Others were not so careful. He described snorkeling in the cold waters of the Little River and “finding crushed individuals, some of them still barely alive, some with their insides hanging out.” On that river, workers moved 60 Appalachian elktoe to a refuge site upstream. On the South Toe River, home to one of the most important populations, biologists collected a dozen and took them to a hatchery to store in tanks until it's safe to return them to the wild.“It was shocking and unprecedented in my professional line of work in 15 years,” Perkins said of the incident. “There’s all of these processes in place to prevent this secondary tragedy from happening, and none of it happened.”Andrea Leslie, mountain habitat conservation coordinator with the North Carolina Wildlife Resources Commission, said she hopes the experience can inform future recovery efforts.“To a certain degree, you can’t do this perfectly,” she said. “They’re in emergency mode. They’re working to make sure that people are safe and that infrastructure is safe. And it’s a big, complicated process. And there are multiple places in my observation where we could shift things to be more careful." Humans along the river are still recovering, too Like the hellbender and the Appalachian elktoe, humans cling to the river, too.Vickie and Paul Revis’ home sat beside old U.S. 70 in a bend of the Swannanoa River. As Helene swept through, the Swannanoa took their home and scraped away a big chunk of their half-acre lot.With the land paid for and no flood insurance payment to move away, they decided to stay put.After a year in a donated camper, they'll soon move into their new house — a double-wide modular home, also donated by a local Christian charity. It sits atop a 6-foot mound that Paul Revis piled up near the front of the property, farther from the river. Using rock, fill dirt and broken concrete dumped on his property by friendly debris-removal contractors, Paul has reclaimed the frontage the Swannanoa took. His wife planted it with marigolds for beauty and a weeping willow for stability. And they've purchased flood insurance.“I hope I never see another one in my lifetime, and I’m hoping that if I do, it does hold up,” Vickie said. “I mean, that’s all we can (do). Mother Nature does whatever she wants to do, and you just have to roll with it.” Tons of debris pulled out, tons still to go Back on the French Broad, the tedious cleanup work continues. Many on the crew are rafting guides knocked out of work by the storm.MountainTrue got a $10 million, 18-month grant from the state for the painstaking work of pulling small debris from the rivers and streams. Since July, teams have removed more than 75 tons from about a dozen rivers across five watersheds.Red-tailed hawks and osprey circle high overhead as the flotilla glides past banks lined with willow, sourwood and sycamore, ablaze with goldenrod and jewelweed. That peacefulness belies its fury of a year ago that upended so many lives. “There are so many people who are living in western North Carolina right now that feel very afraid of our rivers,” said Liz McGuirl, a crew member who managed a hair salon before Helene put her out of work. “They feel hurt. They feel betrayed.”Downstream, as McGuirl hauled up a length of pipe, another catfish swam out.“We’re creating a habitat, but it’s just the wrong habitat,” crew leader Leslie Beninato said ruefully. “I’d like to give them a tree as a home, maybe, instead of a pipe.”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-environmentCopyright 2025 The Associated Press. All rights reserved. This material may not be published, broadcast, rewritten or redistributed.Photos You Should See – Sept. 2025

The Dismantling of the US Forest Service Is Imminent

This story was originally published by High Country News and is reproduced here as part of the Climate Desk collaboration. In the 1880s, giant cattle companies turned thousands of cattle out to graze on the “public domain”—i.e., the Western lands that had been stolen from Indigenous people and then opened up for white settlement. In remote southeastern […]

This story was originally published by High Country News and is reproduced here as part of the Climate Desk collaboration. In the 1880s, giant cattle companies turned thousands of cattle out to graze on the “public domain”—i.e., the Western lands that had been stolen from Indigenous people and then opened up for white settlement. In remote southeastern Utah, this coincided with a wave of settlement by members of the Church of Jesus Christ of Latter-day Saints. The region’s once-abundant grasslands and lush mountain slopes were soon reduced to denuded wastelands etched with deep flash-flood-prone gullies. Cattlemen fought, sometimes violently, over water and range. The local citizenry grew sick and tired of it, sometimes literally: At one point, sheep feces contaminated the water supply of the town of Monticello and led to a typhoid outbreak that killed 11 people. Yet there was little they could do, since there were few rules on the public domain and fewer folks with the power to enforce them. That changed in 1891, when Congress passed the Forest Reserve Act, which authorized the president to place some unregulated tracts under “judicious control,” thereby mildly restraining extractive activities in the name of conservation. In 1905, the Forest Service was created as a branch of the US Agriculture Department to oversee these reserves, and Gifford Pinchot was chosen to lead it. A year later, the citizens of southeastern Utah successfully petitioned the Theodore Roosevelt administration to establish forest reserves in the La Sal and Abajo Mountains. Since then, the Forest Service has gone through various metamorphoses, shifting from stewarding and conserving forests for the future to supplying the growing nation with lumber to managing forests for multiple uses and then to the ecosystem management era, which began in the 1990s. Throughout all these shifts, however, it has largely stayed true to Pinchot and his desire to conserve forests and their resources for future generations.  But now, the Trump administration is eager to begin a new era for the agency and its public lands, with a distinctively un-Pinchot-esque structure and a mission that maximizes resource production and extraction while dismantling the administrative state and its role as environmental protector. Over the last nine months, the administration has issued executive orders calling for expanded timber production and rescinding the 2001 Roadless Rule, declared “emergency” situations that enable it to bypass regulations on nearly 60 percent of the public’s forests, and proposed slashing the agency’s operations budget by 34 percent. The most recent move, which is currently open to public comment, involves a proposal by Agriculture Secretary Brooke Rollins to radically overhaul the entire US Department of Agriculture. Its stated purposes are to ensure that the agency’s “workforce aligns with financial resources and priorities,” and to consolidate functions and eliminate redundancy. This will include moving at least 2,600 of the department’s 4,600 Washington, DC, employees to five hub locations, with only two in the West: Salt Lake City, Utah, and Fort Collins, Colorado. (The others will be in North Carolina, Missouri, and Indiana.) The goal, according to Rollins’ memorandum, is to “bring the USDA closer to its customers.” The plan is reminiscent of Trump’s first-term relocation of the Bureau of Land Management’s headquarters to Grand Junction, Colorado, in 2019. That relocation resulted in a de facto agency housecleaning; many senior staffers chose to resign or move to other agencies, and only a handful of workers ended up in the Colorado office, which shared a building with oil and gas companies. Using an emergency declaration, Trump’s timber production executive order would ease environmental protections so as to greatly expand logging in the national forests. Though Rollins’ proposal is aimed at decentralizing the department, it would effectively re-centralize the Forest Service by eliminating its nine regional offices, six of which are located in the West. Each regional forester oversees dozens of national forests within their region, providing budget oversight, guiding place-specific implementation of national policies, and facilitating coordination among the various forests. Rollins’ memo does not explain why the regional offices are being axed, or what will happen to the regional foresters’ positions and their functions, or how the change will affect the agency’s chain of command. When several US senators asked Deputy Secretary Stephen Vaden for more specifics, he responded that “decisions pertaining to the agency’s structure and the location of specialized personnel will be made after” the public comment period ends on September 30. Curiously, the administration’s forest management strategy, published in May, relies on regional offices to “work with the Washington Office to develop tailored strategies to meet their specific timber goals.” Now it’s unclear that either the regional or Washington offices will remain in existence long enough to carry this out. The administration has been far more transparent about its desire to return the Forest Service to its timber plantation era, which ran from the 1950s through the ’80s. During that time, logging companies harvested 10 billion to 12 billion board-feet per year from federal forests, while for the last 25 years, the annual number has hovered below 3 billion board-feet. Now, Trump, via his Immediate Expansion of American Timber Production order, plans to crank up the annual cut to 4 billion board-feet by 2028. This will be accomplished—in classic Trumpian fashion—by declaring an “emergency” on national forest lands that will allow environmental protections and regulations, including the National Environmental Protection Act, Endangered Species Act and Clean Water Act, to be eased or bypassed. In April, Rollins issued a memorandum doing just that, declaring that the threat of wildfires, insects and disease, invasive species, overgrown forests, the growing number of homes in the wildland-urban interface, and more than a century of rigorous fire suppression have contributed to what is now “a full-blown wildfire and forest health crisis.” Emergency determinations aren’t limited to Trump and friends; in 2023, the Biden administration identified almost 67 million acres of national forest lands as being under a high or very high fire risk, thus qualifying as an “emergency situation” under the Infrastructure Investment and Jobs Act. Rollins, however, vastly expanded the “emergency situation” acreage to almost 113 million acres, or 59 percent of all Forest Service lands. This allows the agency to use streamlined environmental reviews and “expedited” tribal consultation time frames to “carry out authorized emergency actions,” ranging from commercial harvesting of damaged trees to removing “hazardous fuels” to reconstructing existing utility lines. Meanwhile, the administration has announced plans to consolidate all federal wildfire fighting duties under the Interior Department. This would completely zero out the Forest Service’s $2.4 billion wildland fire management budget, sowing even more confusion and chaos. The administration also plans to slash staff and budgets in other parts of the agency, further compromising its ability to carry out its mission. The so-called Department of Government Efficiency fired about 3,400 Forest Service employees, or more than 10 percent of the agency’s total workforce, earlier this year. And the administration has proposed cutting the agency’s operations budget, which includes salaries, by 34 percent in fiscal 2026, which will most likely necessitate further reductions in force. It would also cut the national forest system and capital improvement and maintenance budgets by 21 percent and 48 percent respectively. The goal, it seems, is to cripple the agency with both direct and indirect blows. The result, if the administration succeeds, will be a diminished Forest Service that would be unrecognizable to Gifford Pinchot.

Two climate scientists on how to use emotion in the climate crisis

From anger to hope, Kate Marvel and Tim Lenton explain how to tackle the tricky feelings aroused by climate change and harness them to take action

With emissions still rising, how do we feel hope for the future?Qilai Shen/Bloomberg via Getty Images With dire environmental warnings and extreme weather events in the news almost every day, it can be tempting to simply avoid thinking about the climate crisis. But how do climate scientists, who must grapple with the harsh reality of our changing planet every day, cope? What can they teach us about processing the powerful emotions provoked by escalating climate change? And are there ways we can use these feelings to our advantage? New Scientist recently sat down with New York-based climate scientist Kate Marvel and Tim Lenton, a climate scientist at the University of Exeter, UK. Both have spent years modelling how our planet may react to increasing greenhouse gas concentrations in the atmosphere, and both have recently published books that distil their perspectives on how best to engage with, and tackle, the climate emergency. At first glance, these are two quite different books. Human Nature, by Marvel, is a series of essays exploring the science of climate change, each centred on a different emotional response to the crisis. By contrast, Lenton’s book, Positive Tipping Points, prioritises taking action over introspection. It makes a persuasive case that a radical, systemic shift to a cleaner world is possible with the right social, economic and technological interventions. At their heart, though, both books are about how to embrace our emotions around climate change so we can reframe our thinking and actions. In this conversation, Lenton and Marvel reveal why we should feel angry, fearful, proud and hopeful all at once about our future on Earth. Rowan Hooper: Kate, your book is about nine ways to feel about our changing planet. Can we start with anger? Kate Marvel: The anger chapter was one of the easiest ones to write. What I wanted to talk about was the history of how we discovered climate change was happening. The thing that makes me really angry is that the history of scientists finding stuff out is intertwined with the history of people lying about it. I tell this story of a research group. They’re trying to establish that most of the excess carbon dioxide in the atmosphere comes from fossil fuels, and they design these really creative experiments to prove that. They have a large ship that’s going around, taking measurements of the ocean. And eventually they develop a climate model that has made extremely accurate projections in retrospect. You know who did all of that? It was Exxon. That does make me very angry. The fact that they knew. RH: Can anger be motivating? KM: I hope so. It can be really easy to go down a bad path where all you are is angry. Social media definitely incentivises this, where you’re fed more and more outrage, but it’s not productive outrage. RH: Your book also covers wonder, guilt, fear, grief, surprise, pride, hope and love. Can you talk us through how you processed these emotions? KM: What I wanted to do is embrace the fact there is no one way to feel about climate change. I was getting really frustrated when I was reading things that were designed to elicit a single emotion. Either, just be afraid, or just be angry, or just be hopeful. That didn’t feel very useful to me. I wanted to acknowledge that if you live on planet Earth, you have a conflict of interest. You care about what happens to this place. Because everybody that you know lives here. Tim Lenton studies “tipping points” in ecosystems that could affect the wider climateUniversity of Exeter RH: Tim, how do you find dealing with the emotions that come with studying climate change? Tim Lenton: I’ve been studying climate tipping points that could be really bad, really nasty. And arguably some of them are starting to unfold. I mean, we’re losing tropical coral reefs that up to half a billion people in the world depend on for their livelihoods. I’ve been staring this stuff down for nearly 20 years. So, I just found I had to use the mental toolkit I had of understanding complex systems to try to see if I could find plausible grounds for hope. Could we build a credible case that we could accelerate the change we need to get out of trouble? It took doing the research on the book to see that there was evidence that this is possible, and I wasn’t just going to delude myself with naive hope. RH: So it’s rational, usable hope? TL: It’s conditional optimism. I’m optimistic on the basis that some people are going to read the book, and some fraction of them will join me on the same journey. History teaches us that it only needs a fraction of people to change to ultimately tip everyone to change. Madeleine Cuff: Tim, much of your career has focused on this idea of tipping points. For those who are new to the concept, what are they? TL: Tipping points are those moments where a small change makes a big difference to the state or the fate of some system. For the bad ones in the climate, we know that there are large parts of the Earth system – major ice sheets, aspects of the ocean circulation, big bits of the biosphere – that have what we call alternative stable states. And they can be tipped from one state into another. We could potentially tip the Amazon rainforest into a different degraded forest or savannah state, for example. MC: What is a positive tipping point? TL: I’m drawing on over half a century of scholarship in different fields that shows you can have tipping points in social change. We’re all familiar with the idea of political revolutions popping up and protests popping up seemingly out of nowhere and exploding in size. But history also teaches us that sometimes you get abrupt and hard-to-reverse changes in technology. There are tipping points where one new technology will take over from an existing one. RH: The obvious climate example I’m thinking of is electric vehicles. And, of course, solar is so cheap now that it’s really taking off. How do we bring about positive tipping points? TL: We have to think about what actions can bring forward the positive tipping points, accepting that we need to be going more than five times faster than we are at decarbonising the economy. Luckily, each of us has agency to do something about this. At the most basic level, maybe we can be an adopter of new behaviour, such as eating less meat, or adopting a new technology like EVs or solar panels. We’ve probably also got a pension fund, and we should be asking hard questions about where that’s invested. The story of positive tipping points that have already happened starts with social activists or innovators. The people who have a passion to develop the core new technology, or activists who want to create change and see that possibility before everybody else. In her research, Kate Marvel tries to better model our planet’s changing climateRoy Rochlin/Getty Images MC: Kate, we’ve talked a little bit about the negative emotions that come with thinking about climate change. But what about the impact of positive emotions? What role can they play in inspiring positive action? KM: I started the book with the emotion wonder because, when you take a step back, just thinking about this planet that we live on and the fact that we understand it at all, that’s incredible. It’s a really useful tool for making connections and starting conversations. A lot of times, when I tell people I’m a climate scientist, they assume I’m immediately going to start scolding them. But if you start out with wonder, if you start out a conversation with: “Did you know the Earth’s water is probably older than the Earth itself?” people are going to say: “Oh wait, that’s amazing.” And they are going to be more likely to talk to you. Embracing a wide spectrum of emotions is useful as a communications strategy. There is support for feeling these emotions in the scientific and social scientific literature. There is a sense of pride we can feel in doing the hard work. There is deep satisfaction in making change. The social science literature also says that love is probably the most powerful motivating factor in climate action. People are motivated to act because they love their communities, their families, their children. We know how powerful that emotion is. I have a whole chapter on hope, even though I have a very complicated relationship to hope. I feel like when people always ask me: “Do you hope we can solve climate change?” that, for me, is like asking, do you hope you can clean your bathroom? That’s a silly question. You know what to do, just go clean your bathroom. As Tim says, we have so many of the solutions we need. We are on these trajectories already. We just need to push them over the precipice. We need to get past that social tipping point. RH: We have to face up to these emotions, don’t we? Maybe that’s one reason why we haven’t really got to grips with the problem – it’s too big for us to face. KM: Totally. I think about this stuff all day every day, and I still don’t really understand it. I can’t fit it into my head. This is a problem that is caused by basically every industrial human activity. And because CO2 and other greenhouse gases are well mixed in the atmosphere, it is affecting literally every aspect of life on this planet. Trying to boil that down to something very glib and manageable is just not possible. It is the work of a lifetime, or many lifetimes, to really come to terms with what this is and what this means, and what we do about it. Most Americans are concerned about climate change and want the US government to do something. But when you look at the polls, most Americans think other Americans do not think that. So that, I think, is why one of the most powerful things that an individual can do regarding climate change is to talk about it. Because when you talk about it, you realise, maybe I’m not so much of an individual after all. Maybe I’m not alone. RH: What do you want people to do after reading your books? KM: I would like people to think about how to tell climate stories that resonate with themselves, with their own community, with the people who will listen to them because of who they are and what they bring to the table. TL: I’m hoping the readers are feeling empowered to act, in what might have beforehand been feeling like a very scary, disempowering situation. I’d like them instead to feel a sense of agency. This is an edited version of an interview that originally took place on New Scientist‘s The World, the Universe and Us podcast What on earth can we do about climate change? See Matt Winning explain how to dispel the despair and take action on 18 October newscientist.com/nslmag

America's blame game over Canada's wildfire smoke misses the point, experts say

US officials have blamed Canada for not doing enough to stop its wildfire smoke from wafting south. Climate experts say it’s not so simple.

America's blame game over Canada's wildfire smoke misses the point, experts sayNadine YousifSenior Canada reporterGetty ImagesSmoke from Canada's wildfires have drifted south to the US several times this summer, clouding the sky with an orange haze. As deadly wildfires raged in the Canadian province of Manitoba this summer, Republican lawmakers in nearby US states penned letters asking that Canada be held accountable for the smoke drifting south."Our skies are being choked by wildfire smoke we didn't start and can't control," wrote Calvin Callahan, a Republican state representative from Wisconsin, in a letter dated early August.Callahan, along with lawmakers from Iowa, Minnesota and North Dakota, filed a formal complaint with the US Environmental Protection Agency (EPA) urging an investigation into Canada's wildfire management.Manitoba premier Wab Kinew quickly condemned the move, accusing the lawmakers of throwing a "timber tantrum" and playing "political games".By August, the wildfires had scorched more than two million acres in Manitoba, forced thousands to evacuate, and killed two people – a married couple who authorities said were trapped by fast-moving flames around their family home. As September draws to a close, data shows that 2025 is on track to be Canada's second-worst wildfire season on record.A study published in the Nature journal in September has revealed that smoke from Canada's wildfires has also had far-reaching, fatal consequences. It estimates that the 2023 wildfires - the country's worst on record by area burned - caused more than 87,500 acute and premature deaths worldwide, including 4,100 acute, smoke-related deaths in the US and over 22,000 premature deaths in Europe.Wildfire smoke contains PM2.5 - a type of air pollution - that is known to trigger inflammation in the body. It can exacerbate conditions like asthma and heart disease, and, in some causes, can damage neural connections in the brain."These are big numbers," said Michael Brauer, a professor at the University of British Columbia who co-authored the study. He added the findings show wildfire smoke should be treated as a serious health issue, akin to breast cancer or prostate cancer.For some American lawmakers, the blame falls squarely on Canada. "Canada's failure to contain massive wildfires," Callahan wrote in August, "has harmed the health and quality of life of more than 20 million Americans in the Midwest."Their complaints raise the question: Could Canada be doing more to curb its wildfires – and by extension, their smoke?Climate and fire experts in both countries told the BBC that the answer is largely no. "Until we as a global society deal with human-cased climate change, we're going to have this problem," said Mike Flannigan, an emergency management and fire science expert at Thompson Rivers University in British Columbia.Gallo Images/Orbital Horizon/Copernicus Sentinel Data 2025Wildfire smoke can often travel hundreds of thousands of miles. A sattelite image here from August shows smoke from a fire in Newfoundland drifting over the Atlantic Ocean.Metrics show Canada's wildfires, a natural part of its vast boreal forest, have worsened in recent years. Fire season now starts earlier, ends later, and burns more land on average. The 2023 fires razed 15 million hectares (37 million acres) – an area larger than England – while the 2025 blazes have so far burned 8.7 million hectares (21.5 million acres).As of mid-September, there are still more than 500 fires burning, mostly in British Columbia and Manitoba, according to the Canadian Interagency Forest Fire Centre.Roughly half of Canada's wildfires are sparked by lightning, while the rest stem from human activity, data from the National Forestry Database shows. Experts warn that hotter temperatures are making the land drier and more prone to ignition.Wildfires are not only worsening in Canada. The US has recently seen some of its most damaging blazes, including the 2023 Hawaii wildfires that killed at least 102 people, and the Palisades fire in January, the most destructive in Los Angeles history.Both countries have struggled to keep pace, often sharing firefighting resources. Canadian water bombers were deployed in California this year, while more than 600 US firefighters travelled north to assist Canada, according to the US Forest Service.In Canada, strained resources – and worsening fires – have fuelled calls for a national firefighting service. Wildfire emergency response is currently handled separately by each of the provinces and territories."The system we have right now worked 40 years ago. Today? Not so much," argued Mr Flannigan.Others propose controlled burns, a practice used in Australia and by indigenous communities, as a solution, though these fires would still generate smoke. Some argue for better clearing of flammable material in forests and near towns, or investing in new technology that can help detect wildfires faster.Some of that work is already underway. In August, Canada pledged more than $47m for research projects to help communities better prepare for and mitigate wildfires.Getty ImagesMajor Canadian cities, like Vancouver, have also been dealing with wildfire smoke. Still, experts like Jen Beverly, a wildland fire professor at the University of Alberta, warn there is little Canada can do to prevent wildfires altogether."These are high intensity fire ecosystems" in Canada, she said, that are different from fires in Australia or the US. "We have very difficult fires to manage under extreme conditions, and we're seeing more of those because of climate change."With a warmer climate, Prof Beverly said attention should be paid to pollution. She noted that the US is the second-worst carbon emitter in the world behind China. "I mean, we should be blaming them for the problem," she argued.In recent months, the Trump administration has also rolled back environmental policies designed to reduce emissions, and has withdrawn the US from the Paris climate accords.Sheila Olmstead, an enviromental policy professor at Cornell University, noted that Canada and the US have a history of cooperation on pollution and climate, including an air quality agreement signed by the two in 1991 to address acid rain."It was a very clear framework for addressing the problem, and that's what seems to be missing here," Olmstead told the BBC. Both countries, she said, would benefit from working together on wildfires instead of trading blame.As for the EPA complaint, it is unclear what the agency could do to address the US lawmakers' concerns. In a statement to the BBC, the EPA said it is reviewing it "and will respond through appropriate channels".Prof Brauer said the data in his study shows that even though the fires are burning in Canada - often in remote areas - their impact can reach far beyond.The findings, he told the BBC, call for a re-framing of how the consequences of climate change are understood. "The effects of a warmer climate are localised, and there are winners and losers," Prof Brauer said. "But this is an illustration that some of these impacts are becoming global."He argued that the US lawmakers' complaints are an "unfortunate distraction," and that the focus should instead be on collaboration and learning how to "live with smoke"."This stuff isn't going away," Prof Brauer said, adding that there are ways to prevent future deaths if there is a will to adapt.

China, World’s Largest Carbon Polluting Nation, Announces New Climate Goal to Cut Emissions

China, the world’s largest carbon polluting nation, has announced a new climate fighting goal to cut emissions by 7% to 10% by 2035

UNITED NATIONS (AP) — As Earth keeps heating up and its weather gets more extreme, more than 100 world leaders lined up Wednesday to talk of increased urgency and the need for stronger efforts to curb the spewing of heat-trapping gases.But few large concrete national plans — especially from major polluters China, Europe and India — were unveiled despite a pressing deadline and sticky Wednesday warmth.With major international climate negotiations in Brazil 6½ weeks away, the United Nations Secretary-General Antonio Guterres convened a special leaders summit during the General Assembly to focus on climate change. The idea is to get the countries to submit warming-fighting plans that are stronger, incorporate them throughout their economies and have them in line with an international temperature limit goal that is fast slipping away from reality. “The science demands action. The law commands it. The economics compel it. And people are calling for it,” Guterres said in opening the Wednesday afternoon marathon session with 121 leaders scheduled to speak. ‘Here we must admit failure’ “Warming appears to be accelerating,” climate scientist Johan Rockstrom said in a science briefing that started the summit. “Here we must admit failure. Failure to protect peoples and nations from unmanageable impacts of human-induced climate change.”“We’re dangerously close to triggering fundamental and irreversible change,” Rockstrom said. Under the 2015 Paris climate accord, 195 nations are supposed to submit new more stringent five-year plans on how to curb carbon emissions from the burning of coal, oil and natural gas. Technically the deadline was in February and about 50 nations — responsible for one-quarter of the world's carbon emissions — have filed theirs, including Pakistan, Micronesia, Mongolia, Liberia and Vanuatu. All of those nations submitted on Wednesday. UN officials said countries really need to get their plans in by the end of the month so the U.N. can calculate how much more warming Earth is on track for if nations do what they promise.Before 2015, the world was on path for 4 degrees Celsius (7.2 degrees Fahrenheit) of warming since pre-industrial times, but now has trimmed that to 2.6 degrees Celsius (4.7 degrees Fahrenheit), Guterres said.Kenyan President William Ruto said Wednesday that climate change was both the single greatest threat and development opportunity facing Africa, with the right action making the difference between survival and devastation.Without urgent action on climate change the world is “walking blindfolded towards the abyss,” Brazilian President Luiz Inácio Lula da Silva said in a speech that opened the General Assembly on Tuesday.“Bombs and nuclear weapons will not protect us from the climate crisis,” said Lula, who will host the November climate negotiations in the Amazon city of Belem. He announced the launch of the Tropical Forest Forever Facility (TFFF), a billion dollar program aimed at compensating countries for keeping forests standing.José Raúl Mulino Quintero, the president of Panama, said that although his country is already one of the few that emits less carbon than it absorbs with its forests, he promised they would reduce their carbon emissions further by 2035. “We believe one can always take another step for sustainability for future generations,” Quintero said. He said Panama would restore almost 250,000 acres (100,000 hectares) of critical ecosystems including mangroves and watersheds, “because nature is our first line of defense against climate change.”The Associated Press’ climate and environmental coverage receives financial support from multiple private foundations. AP is solely responsible for all content. Find AP’s standards for working with philanthropies, a list of supporters and funded coverage areas at AP.org.Copyright 2025 The Associated Press. All rights reserved. This material may not be published, broadcast, rewritten or redistributed.Photos You Should See – Sept. 2025

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