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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

Read the full story here.
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Fire Disrupts UN Climate Talks Just as Negotiators Reach Critical Final Days

Fire has disrupted United Nations climate talks, forcing evacuations of several buildings with just two scheduled days left and negotiators yet to announce any major agreements

BELEM, Brazil (AP) — Fire disrupted United Nations climate talks in Brazil on Thursday, forcing evacuations of several buildings with just two scheduled days left and negotiators yet to announce any major agreements. Officials said no one was hurt.The fire was reported in an area of pavilions where sideline events are held during the annual talks, known this year as COP30. Organizers soon announced that the fire was under control, but fire officials ordered the entire site evacuated for safety checks and it wasn't clear when conference business would resume.Viliami Vainga Tone, with the Tonga delegation, had just come out of a high-level ministerial meeting when dozens of people came thundering past him shouting about the fire. He was among people pushed out of the venue by Brazilian and United Nations security forces.Tone called time the most precious resource at COP and said he was disappointed it's even shorter due to the fire.“We have to keep up our optimism. There is always tomorrow, if not the remainder of today. But at least we have a full day tomorrow,” Tone told The Associated Press.A few hours before the fire, U.N. Secretary-General António Guterres urged countries to compromise and “show willingness and flexibility to deliver results,” even if they fall short of the strongest measures some nations want.“We are down to the wire and the world is watching Belem,” Guterres said, asking negotiators to engage in good faith in the last two scheduled days of talks, which already missed a self-imposed deadline Wednesday for progress on a few key issues. The conference, with this year's edition known as COP30, frequently runs longer than its scheduled two weeks.“Communities on the front lines are watching, too — counting flooded homes, failed harvests, lost livelihoods — and asking, ‘how much more must we suffer?’” Guterres said. "They’ve heard enough excuses and demand results.” On contentious issues involving more detailed plans to phase out fossil fuels and financial aid to poorer countries, Guterres said he was “perfectly convinced” that compromise was possible and dismissed the idea that not adopting the strongest measures would be a failure.Guterres was more forceful in what he wanted rich countries to do for poor countries, especially those in need of tens of billions of dollars to adapt to the floods, droughts, storms and heat waves triggered by worsening climate change. He continued calls to triple adaptation finance from $40 billion a year to $120 billion a year.“No delegation will leave Belem with everything it wants, but every delegation has a duty to reach a balanced deal,” Guterres said.“Every country, especially the big emitters, must do more,” Guterres said.Delivering overall financial aid — with an agreed goal of $300 billion a year — is one of four interconnected issues that were initially excluded from the official agenda. The other three are: whether countries should be told to toughen their new climate plans; dealing with trade barriers over climate and improving reporting on transparency and climate progress.More than 80 countries have pushed for a detailed “road map” on how to transition away from fossil fuels, like coal, oil and natural gas, which are the chief cause of warming. That was a general but vague agreement two years ago at the COP in Dubai. Guterres kept referring to it as already being agreed to in Dubai, but did not commit to a detailed plan, which Brazilian President Luiz Inácio Lula da Silva pushed for earlier in a speech.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.This story was produced as part of the 2025 Climate Change Media Partnership, a journalism fellowship organized by Internews’ Earth Journalism Network and the Stanley Center for Peace and Security.Copyright 2025 The Associated Press. All rights reserved. This material may not be published, broadcast, rewritten or redistributed.Photos You Should See – Nov. 2025

Engineered microbes could tackle climate change – if we ensure it’s done safely

Engineering microbes to soak up more carbon, boost crop yields and restore former farmland is appealing. But synthetic biology fixes must be done thoughtfully

Yuji Sakai/GettyAs the climate crisis accelerates, there’s a desperate need to rapidly reduce carbon dioxide levels in the atmosphere, both by slashing emissions and by pulling carbon out of the air. Synthetic biology has emerged as a particularly promising approach. Despite the name, synthetic biology isn’t about creating new life from scratch. Rather, it uses engineering principles to build new biological components for existing microorganisms such as bacteria, microbes and fungi to make them better at specific tasks. By one recent estimate, synthetic biology could cut more carbon than emitted by all passenger cars ever made – up to 30 billion tonnes – through methods such as boosting crop yields, restoring agricultural land, cutting livestock methane emissions, reducing the need for fertiliser, producing biofuels and engineering microbes to store more carbon. According to some synthetic biologists, this could be a game-changer. But will it prove to be? Technological efforts to “solve” the climate problem often verge on the improbably utopian. There’s a risk in seeing synthetic biology as a silver bullet for environmental problems. A more realistic approach suggests synthetic biology isn’t a magic fix, but does have real potential worth exploring further. Engineering microorganisms is a controversial practice. To make the most of these technologies, researchers will have to ensure it’s done safely and ethically, as my research points out. What potential does synthetic biology have? Earth’s oceans, forests, soils and other natural processes soak up over half of all carbon emitted by burning fossil fuels. Synthetic biology could make these natural sinks even more effective. Some researchers are exploring ways to modify natural enzymes to rapidly convert carbon dioxide gas into carbon in rocks. Perhaps the best known example is the use of precision fermentation to cut methane emissions from livestock. Because methane is a much more potent greenhouse gas than carbon dioxide, these emissions account for roughly 12% of total warming potential from greenhouse emissions. Bioengineered yeasts could absorb up to 98% of these emissions. After being eaten by cattle or other ruminants these yeasts block production of methane before it can be belched out. Synthetic biology could even drastically reduce how much farmland the world needs by producing food more efficiently. Engineered soil microbes can boost crop yields at least by 10–20%, meaning more food from less land. Precision fermentation can be used to produce clean meat and clean milk with much lower emissions than traditional farming. Engineered microbes have the potential to boost crop yields considerably. Collab Media/Unsplash, CC BY-NC-ND If farms produce more on less land, excess farmland can be returned to nature. Wetlands, forests and native grasslands can store much more carbon than farmland, helping tackle climate change. Synthetic biology can be used to modify microbe and algae species to increase their natural ability to store carbon in wetlands and oceans. This approach is known as natural geoengineering. Engineered crops and soil microbes can also lock away much more carbon in the roots of crops or by increasing soil storage capacity. They can also reduce methane emissions from organic matter and tackle pollutants such as fertiliser runoff and heavy metals. Sounds great – what’s the problem? As researchers have pointed out, using this approach will require a rollout at massive scale. At present, much work has been done at smaller scale. These engineered organisms need to be able to go from Petri dishes to industrial bioreactors and then safely into the environment. To scale, these approaches have to be economically viable, well regulated and socially acceptable. That’s easier said than done. First, engineering organisms comes with the serious risk of unintended consequences. If these customised microbes release their stored carbon all at once during a drought or bushfire, it could worsen climate change. It would be very difficult to control these organisms if a problem emerges after their release, such as if an engineered microbe began outcompeting its rivals or if synthetic genes spread beyond the target species and do unintended damage to other species and ecosystems. It will be essential to tackle these issues head on with robust risk management and forward planning. Second, synthetic biology approaches will likely become products. To make these organisms cheaply and gain market share, biotech companies will have an incentive to focus on immediate profits. This could lead companies to downplay actual risks to protect their profit margins. Regulation will be essential here. Third, some worthwhile approaches may not appeal to companies seeking a return on investment. Instead, governments or public institutions may have to develop them to benefit plants, animals and natural habitats, given human existence rests on healthy ecosystems. Which way forward? These issues shouldn’t stop researchers from testing out these technologies. But these risks must be taken into account, as not all risks are equal. Unchecked climate change would be much worse, as it could lead to societal collapse, large-scale climate migration and mass species extinction. Large scale removal of carbon dioxide from the atmosphere is now essential. In the face of catastrophic risks, it can be ethically justifiable to take the smaller risk of unintended consequences from these organisms. But it’s far less justifiable if these same risks are accepted to secure financial returns for private investors. As time passes and the climate crisis intensifies, these technologies will look more and more appealing. Synthetic biology won’t be the silver bullet many imagine it to be, and it’s unlikely it will be the gold mine many hope for. But the technology has undeniable promise. Used thoughtfully and ethically, it could help us make a healthier planet for all living species. Daniele Fulvi receives funding from the ARC Centre of Excellence in Synthetic Biology, and his current project investigates the ethical dimensions of synthetic biology for climate mitigation. He also received a small grant from the Advanced Engineering Biology Future Science Platform at CSIRO. The views expressed in this article are those of the author and are not necessarily those of the Australian Government or the Australian Research Council.

Exclusive-Europe Plans Service to Gauge Climate Change Role in Extreme Weather

By Alison Withers and Kate AbnettCOPENHAGEN (Reuters) -The EU is launching a service to measure the role climate change is playing in extreme...

By Alison Withers and Kate AbnettCOPENHAGEN (Reuters) -The EU is launching a service to measure the role climate change is playing in extreme weather events like heatwaves and extreme rain, and experts say this could help governments set climate policy, improve financial risk assessments and provide evidence for use in lawsuits.Scientists with the EU's Copernicus Climate Change Service told Reuters the service can help governments in weighing the physical risks posed by worsening weather and setting policy in response. "It's the demand of understanding when an extreme event happens, how is this related to climate change?" said the new service's technical lead, Freja Vamborg.The European Commission did not immediately respond to a Reuters request for comment.The service will perform attribution science, which involves running computer simulations of how weather systems might have behaved if people had never started pumping greenhouse gases into the air and then comparing those results with what is happening today.Funded for about 2.5 million euros over three years, Copernicus will publish results by the end of next year and offer two assessments a month - each within a week of an extreme weather event.For the first time, "there will be an attribution office operating constantly," said Carlo Buontempo, director of Copernicus Climate Change Service. "Climate policy is unfortunately again a very polarized topic," said Friederike Otto, a climate scientist at Imperial College London who helped to pioneer the scientific approach but is not involved in the new EU service. She welcomed the service's plans to partner with national weather services of EU members along with the UK Met and the Red Cross Red Crescent Climate Centre."From that point of view, it also helps if the governments do it themselves and just see themselves really the evidence from their own weather services," Otto said. Some independent climate scientists and lawyers cheered the EU move. "We want to have the most information available," said senior attorney Erika Lennon at the non-profit Center for International Environmental Law."The more information we have about attribution science, the easier it will be for the most impacted to be able to successfully bring claims to courts."By calculating probabilities of climate change impacting weather patterns, the approach also helps insurance companies and others in the financial sector.In a way, "they're already using it" with in-house teams calculating probabilities for floods or storms, said environmental scientist Johan Rockstroem with the Potsdam Institute for Climate Impact Research."Financial institutions understand risk and risk has to be quantified, and this is one way of quantifying," Rockstroem said.In litigation, attribution science is also being used already in calculating how much a country's or company's emissions may have contributed to climate-fuelled disasters.The International Court of Justice said in July that attribution science is legally viable for linking emissions with climate extremes - but it has yet to fully be tested in court. A German court in May dismissed a Peruvian farmer's lawsuit against German utility RWE for emissions-driven warming causing Andean glaciers to thaw. The case had used attribution science in calculating the damage claim, but the court said the claim amount was too low to take the case forward.So "the court never got to discussing attribution science in detail and going into whether the climate models are good enough, and all of these complex and thorny questions," said Noah Walker-Crawford, a climate litigation researcher at the London School of Economics. (Reporting by Ali Withers in Copenhagen and Kate Abnett in Belem, Brazil; Writing by Katy Daigle; Editing by David Gregorio)Copyright 2025 Thomson Reuters.

Billionaire hedge fund founder Tom Steyer is running for governor

Billionaire hedge fund founder, climate change warrior and major Democratic donor Tom Steyer is running for governor. Fossil fuel and migrant detention facility investments will likely draw attacks from his fellow Democrats.

Billionaire hedge fund founder Tom Steyer announced Wednesday that he is running for governor of California, arguing that he is not beholden to special interests and can take on corporations that are making life unaffordable in the state.“The richest people in America think that they earned everything themselves. Bulls—, man. That’s so ridiculous,” Steyer said in an online video announcing his campaign. “We have a broken government. It’s been bought by corporations and my question is: Who do you think is going to change that? Sacramento politicians are afraid to change up this system. I’m not. They’re going to hate this. Bring it on.” Protesters hold placards and banners during a rally against Whitehaven Coal in Sydney in 2014. Dozens of protesters and activists gathered downtown to protest against the controversial massive Maules Creek coal mine project in northern New South Wales. (Saeed Khan / AFP/Getty Images) Steyer, 68, founded Farallon Capital Management, one of the nation’s largest hedge funds, and left it in 2012 after 26 years. Since his departure, he has become a global environmental activist and a major donor to Democratic candidates and causes. But the hedge firm’s investments — notably a giant coal mine in Australia that cleared 3,700 acres of koala habitat and a company that runs migrant detention centers on the U.S.-Mexico border for U.S. Immigration and Customs Enforcement — will make him susceptible to political attack by his gubernatorial rivals. Steyer has expressed regret for his involvement in such projects, saying it was why he left Farallon and started focusing his energy on fighting climate change. Democratic presidential candidate Tom Steyer addresses a crowd during a presidential primary election-night party in Columbia, S.C. (Sean Rayford / Getty Images) Steyer previously flirted with running for governor and the U.S. Senate but decided against it, instead opting to run for president in 2020. He dropped out after spending nearly $342 million on his campaign, which gained little traction before he ended his run after the South Carolina primary.Next year’s gubernatorial race is in flux, after former Vice President Kamala Harris and Sen. Alex Padilla decided not to run and Proposition 50, the successful Democratic effort to redraw congressional districts, consumed all of the political oxygen during an off-year election.Most voters are undecided about who they would like to replace Gov. Gavin Newsom, who cannot run for reelection because of term limits, according to a poll released this month by the UC Berkeley Institute of Governmental Studies and co-sponsored by The Times. Steyer had the support of 1% of voters in the survey. In recent years, Steyer has been a longtime benefactor of progressive causes, most recently spending $12 million to support the redistricting ballot measure. But when he was the focus of one of the ads, rumors spiraled that he was considering a run for governor.In prior California ballot initiatives, Steyer successfully supported efforts to close a corporate tax loophole and to raise tobacco taxes, and fought oil-industry-backed efforts to roll back environmental law.His campaign platform is to build 1 million homes in four years, lower energy costs by ending monopolies, make preschool and community college free and ban corporate contributions to political action committees in California elections.Steyer’s brother Jim, the leader of Common Sense Media, and former Biden administration U.S. Surgeon General Vivek Murthy are aiming to put an initiative on next year’s ballot to protect children from social media, specifically the chatbots that have been accused of prompting young people to kill themselves. Newsom recently vetoed a bill aimed at addressing this artificial intelligence issue.

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