First Quote Added
April 10, 2026
Latest Quote Added
"When it comes to climate change, I know innovation isnât the only thing we need. But we cannot keep the earth livable without it. Techno-fixes are not sufficient, but they are necessary."
"I [have become] convinced of three things: 1. To avoid a climate disaster, we have to get to zero {net emissions by the year 2050}. 2. We need to deploy the tools we already have, like solar and wind, faster and smarter. 3. And we need to create and roll out breakthrough technologies that can take us the rest of the way."
"[T]he path to zero emissions in manufacturing looks like this: (1) Electrify every process possible. This is going to take a lot of innovation. (2) Get that electricity from a power grid thatâs been decarbonized. This also will take a lot of innovation. (3) Use carbon capture to absorb the remaining emissions. And so will this. (4) Use materials more efficiently. Same."
"You already have a heat pump in your home . . . . It's called a refrigerator."
"[I]f you want a measuring stick for which countries are making progress on climate change . . . don't simply look for the ones that are reducing their emissions. Look for the ones that are setting themselves up to get to zero."
"We should spend the next decade focusing on the technologies, [governmental] policies and market structures that will put us on the path to eliminating greenhouse gases by 2050. It's hard to think of a better response to a miserable [year of COVID-19 disruptions during] 2020 than spending the next ten years dedicating ourselves to this ambitious goal."
"Technologies needed [to help avoid a climate disaster]: Hydrogen produced without emitting carbon Grid-scale electricity storage that can last a full season Electrofuels Advanced biofuels Zero-carbon cement Zero-carbon steel Plant- and cell-based meat and dairy Zero-carbon fertilizer Next-generation nuclear fission Nuclear fusion Carbon capture (both direct air capture and point capture) Underground electricity transmission Zero-carbon plastics Geothermal energy Pumped hydro Thermal storage Drought- and flood-tolerant food crops Zero-carbon alternatives to palm oil [and] Coolants that donât contain F-gases."
"Today we have economies that need to grow, whether or not they make us thrive. What we need are economies that make us thrive, whether or not they grow."
"Calling all economic rebels: humanity's future depends on you. Yes, really. Because, unless we transform the economic and public debate, we stand very little chance indeed of thriving in this century."
"Taking no action to solve these problems is equivalent of taking strong action. Every day of continued exponential growth brings the world system closer to the ultimate limits of that growth. A decision to do nothing is a decision to increase the risk of collapse."
"We have felt it necessary to dwell so long on an analysis of technology here because we have found that technological optimism is the most common and the most dangerous reaction to our findings from the world model. Technology can relieve the symptoms of a problem without affecting the underlying causes. Faith in technology as the ultimate solution to all problems can thus divert our attention from the most fundamental problemâthe problem of growth in a finite systemâand prevent us from taking effective action to solve it. On the other hand, our intent is certainly not to brand technology as evil or futile or unnecessary. We are technologists ourselves, working in a technological institution. We strongly believe ... that many of the technological developments mentioned hereârecycling, pollution control devices, contraceptivesâwill be absolutely vital to the future of human society if they are combined with deliberate checks on growth. We would deplore an unreasoned rejection of the benefits of technology as strongly as we argue here against an unreasoned acceptance of them. Perhaps the best summary of our position is the motto of the Sierra Club: âNot blind opposition to progress, but opposition to blind progress.â"
"If we have a bottleneck on energy, in terms of volume not in terms of price, then we can have a bottleneck on production. And its is probably what has been happening by little steps since 1975. [...] And if we have an additional bottleneck on resources, then we will also get an additional bottleneck on production."
"In physics, energy has a very precise definition: it is what characterises something changing in the world surrounding us. [...] Counting energy is therefore nothing else than counting how much the world has changed."
"When we have replaced human workers by machines, we have gained the fact that we can change the world for 1,000 to 10,000 times less in terms of monetary input. This explains all that has happened to us during the Industrial Revolution. [...] This basically explains all that we have witnessed during the last two centuries."
"Material can follow a circular path, but energy can only add up. One of the challenges is that even "circular economy" needs "linear energy"."
"There are people here who want to just continue business as usual. And the great facade is: 'Oh no, we'll be able to [use carbon capture to] capture everything.' . . . No scientist tells me we can capture it all. Can't do it. Can we capture some? Yes, and by the way, I'm for it. [It's up to the oil and gas industry] to show us they can capture all those emissions, to tell us whether it's really going to be part of the future. But don't lie to people and tell them it's green. And don't pretend to people that that's the main alternative."
"New carbon-sucking technologies ... are so far from scalability at present that they are best described as fantasies of industrial absolution."
"Kamla Bhasin, an Indian feminist who tried to spell out what âsustainable developmentâ could mean for all women in the world lists a number of principles of sustainability similar to the features of a subsistence perspective. It is clear to her, as it is to many women and men who are not blind to the reality that we live in a limited world, that sustainability is not compatible with the existing profit- and growth-oriented development paradigm. And this means that the standard of living of the Northâs affluent societies cannot be generalized. This was already clear to Mahatma Gandhi 60 years ago, who, when asked by a British journalist whether he would like India to have the same standard of living as Britain, replied: âTo have its standard of living a tiny country like Britain had to exploit half the globe. How many globes will India need to exploit to have the same standard of living?â From an ecological and feminist perspective, moreover, even if there were more globes to be exploited, it is not even desirable that this development paradigm and standard of living was generalized, because it has failed to fulfil its promises of happiness, freedom, dignity and peace, even for those who have profited from it."
"Cybernetics is a young discipline which, like applied mathematics, cuts across the entrenched departments of natural science; the sky, the earth, the animals and the plants. Its interdisciplinary character emerges when it considers economy not as an economist, biology not as a biologist, engines not as an engineer. In each case its theme remains the same, namely, how systems regulate themselves, reproduce themselves, evolve and learn. Its high spot is the question of how they organize themselves. A cybernetic laboratory has a varied worksheet - concept formation in organized groups, teaching machines, brain models, and chemical computers for use in a cybernetic factory. As pure scientists we are concerned with brain-like artifacts, with evolution, growth and development; with the process of thinking and getting to know about the world. Wearing the hat of applied science, we aim to create what Boulanger,' in his presidential address to the International Association of Cybernetics, called the instruments of a new industrial revolution - control mechanisms that lay their own plans."
"Our deep urge to evolve to a more spiritually mature level of understanding and living, and to create a social order that promotes more justice, peace, freedom, health, sanity, prosperity, sustainability, and happiness, absolutely requires us to stop viewing animals as food objects to be consumed and to shift to a plant-based way of eating."
"We have an economy where we steal the future, sell it in the present, and call it GDP [gross domestic product]."
"To find our steady state and solve the sustainability puzzle, we need to abandon the relentless quest for dominance. We need to abandon our visions of progress as growth... Only progress in diversity, equality, and beauty can stand the test of time. We need to live within our limits."
"At the beginning of the 21st century peace has become pivotal to the survival of society as we know it. The major challenges facing humanity today are global â climate change, lack of fresh water, ever-decreasing biodiversity and over-population. It is hard to over-state the devastating effects that these problems will have on business unless global actions are taken that have the agreement of most nations. No nations or individuals will be untouched."
"THE TERM (Sustainability) HAS BECOME so widely used that it is in danger of meaning nothing. It has been applied to all manner of activities in an effort to give those activities the gloss of moral imperative, the cachet of environmental enlightenment. âSustainableâ has been used variously to mean âpolitically feasible,â âeconomically feasible,â ânot part of a pyramid or bubble,â âsocially enlightened,â âconsistent with neoconservative small-government dogma,â âconsistent with liberal principles of justice and fairness,â âmorally desirable,â and, at its most diffuse, âsensibly far-sighted.â"
"The key to understanding the future is one word: sustainability."
"Two types of choices seem to me to have been crucial in tipping their outcomes towards success or failure: long-term planning, and willingness to reconsider core values. On reflection, we can also recognize the crucial role of these same two choices for the outcomes of our individual lives."
"Unfortunately a large number of people in many countries are strongly opposed to green technology, for reasons having little to do with the real dangers. It is important to treat the opponents with respect, to pay attention to their fears, to go gently into the new world of green technology so that neither human dignity nor religious conviction is violated. If we can go gently, we have a good chance of achieving within a hundred years the goals of ecological sustainability and social justice that green technology brings within our reach."
"The new paradigm may be called a holistic world view, seeing the world as an integrated whole rather than a dissociated collection of parts. It may also be called an ecological view, if the term "ecological" is used in a much broader and deeper sense than usual. Deep ecological awareness recognizes the fundamental interdependence of all phenomena and the fact that, as individuals and societies we are all embedded in (and ultimately dependent on) the cyclical process of nature."
"If you want to contribute to the fight against global warming, live in a city in a high-rise apartmentâwhere radiant heat seeps through walls into other peopleâs units, lowering heating costsâand commute by subway."
"These, then, are some of the basic principles of ecology â interdependence, recycling, partnership, flexibility, diversity, and, as a consequence of all those, sustainability. ...the survival of humanity will depend on our ecological literacy, on our ability to understand these principles of ecology and live accordingly."
"What scares me? The way the world is going. People seem to think that development is more important than sustainability."
"Rather than an eyesore on the roof, it becomes actually a feature of the home. People are going to start wanting to put {building-integrated photovoltaics} on the front side of their home to show that they have solar."
"We have long supported a carbon tax as the best policy of those being considered. Replacing the hodge-podge of current, largely ineffective regulations with a revenue-neutral carbon tax would ensure a uniform and predictable cost of carbon across the economy. It would allow market forces to drive solutions. It would maximize transparency, reduce administrative complexity, promote global participation and easily adjust to future developments in our understanding of climate science as well as the policy consequences of these actions."
"[W]ind and solar power have been rapidly winning market acceptance. Last year, the installed capacity of solar power in the United States nearly doubled. And wind is now being harnessed to produce 5.5 percent of Americaâs electricity, according to the U.S. Energy Information Administration."
"If you told me that innovation had been frozen and we just have today's technologies, will the world run the climate change experiment? You bet we will. We will not deny India coal plants; we will run the scary experiment of heating up the atmosphere and seeing what happens. The only reason I'm optimistic about this problem is because of innovation. . . . I want to tilt the odds in our favor by driving innovation at an unnaturally high pace, or more than its current business-as-usual course. I see that as the only thing. I want to call up India someday and say, "Here's a source of energy that is cheaper than your coal plants, and by the way, from a global pollution and local pollution point of view, it's also better.""
"The only way you can get to the very positive scenario is by great innovation. Innovation really does bend the curve."
"Cheaper coal and cheaper gas will not derail the transformation and decarbonisation of the worldâs power systems. By 2040, zero-emission energy sources will make up 60% of installed capacity."
"The transition to renewable energy can be greatly accelerated if the worldâs governments finally bring the engineers to the fore... I was recently on a panel with three economists and a senior business-sector engineer. After the economists spoke... the engineer spoke succinctly and wisely. âI donât really understand what you economists were just speaking about, but I do have a suggestion... Tell us engineers the desired âspecsâ and the timeline, and weâll get the job done.â This is not bravado.... The next big act belongs to the engineers. Energy transformation for climate safety is our twenty-first-century moonshot."
"Renewable energy: dumbest phrase since climate change. See the first law of thermodynamics, dumbass."
"More solar energy falls on Earth in one hour than all the energy our civilization consumes in an entire year. If we could harness a tiny fraction of the available solar and wind power, we could supply all our energy needs forever, and without adding any carbon to the atmosphere."
"Every percentage point increase in homegrown renewable energy makes us that much more energy secure. The progress in electricity is encouraging, but growth is not yet strong enough in renewable heat and transport to meet the government's objectives."
"There is one forecast of which you can already be sure: someday renewable energy will be the only way for people to satisfy their energy needs. Because of the physical, ecological and (therefore) social limits to nuclear and fossil energy use, ultimately nobody will be able to circumvent renewable energy as the solution, even if it turns out to be everybodyâs last remaining choice. The question keeping everyone in suspense, however, is whether we shall succeed in making this radical change of energy platforms happen early enough to spare the world irreversible ecological mutilation and political and economic catastrophe."
"Although photosynthesis typically has an energy conversion efficiency below three percent, it is, together with heat from the sun, the main energy source of all living organisms, and the energy source from which biomass and fossil fuels are derived. Each year the earth receives an energy input from the sun equal to 15,000 times the world's commercial energy consumption and 100 times the world's proven coal, gas and oil reserves."
"[The] solar-energy firm known as Solyndra, which the [[w:United_States_Department_of_Energy|[US] Energy Department]] had backed with a $535 million loan guarantee [made the] unexpected announcement last week that it is filing for bankruptcy, leaving hundreds of workers jobless - and taxpayers on the hook for almost all of its government-backed loan. . . . [I]tâs not too early to draw some policy lessons from Solyndraâs ignominious downfall. . . . [G]overnment is no better than the private sector at picking industrial winners - and usually worse. . . . To the extent that government creates jobs by subsidizing particular companies, it does so by shifting resources that might have created jobs elsewhere. Political favoritism, or the appearance thereof, is an inherent risk . . . . When "green jobs" promises donât pan out, it does the environmental cause more harm than good."
"One of the real breakthroughs is when someone figures out long-term storage capacity."
"A carbon tax offers the most cost-effective lever to reduce carbon emissions at the scale and speed that is necessary. By correcting a well-known market failure, a carbon tax will send a powerful price signal that harnesses the invisible hand of the marketplace to steer economic actors towards a low-carbon future. . . . A consistently rising carbon price will encourage technological innovation and large-scale infrastructure development."
"With global electricity demand set to grow strongly, new technologies {like enhanced geothermal systems and closed-loop geothermal systems} are opening up the massive potential of geothermal energy to provide around-the-clock clean power in almost all countries around the world, according to a new IEA report. The report, The Future of Geothermal Energy, finds that geothermal energy could meet 15% of global electricity demand growth between now and 2050 if project costs continue to decline. This would mean . . . delivering annual output equivalent to the current electricity demand of the United States and India combined. . . . Importantly, geothermal energy can draw upon the expertise of todayâs oil and gas industries by using existing drilling techniques and equipment to go deeper under the earthâs surface . . . . Conventional geothermal remains a location-specific, niche technology today with most of the installed capacity in countries that have either volcanic activity or straddle tectonic fault lines . . . . But new technologies are . . . opening up the potential to benefit from it in nearly all countries. . . . [T]he report finds that costs could fall by 80% by 2035 to around $50 per megawatt hour (MWh). This would make geothermal the cheapest source of dispatchable low-emissions electricity on a par with existing hydropower and nuclear installations. . . . If next-generation geothermal grows strongly in the coming years, employment in the overall geothermal sector could increase sixfold to 1 million jobs by 2030 . . . . Up to 80% of the investment required in geothermal involves capacity and skills that are transferrable from existing oil and gas operations. The oil and gas industry can also benefit {because next-generation geothermal can} serve as a hedge against commercial risks related to projected future declines in oil and gas demand. At a time when the digital economy and artificial intelligence applications are growing strongly {and with} next-generation geothermal offering a stable and essentially inexhaustible power source, large technology companies are already signing power purchase agreements with new projects."
"At this point the {Texas} legislature canât do anything to stop the growth of solar and wind and batteries . . . . The state desperately needs it."
"[1] 2023 saw a step change in renewable capacity additions, driven by Chinaâs solar PV market. Global annual renewable capacity additions increased by almost 50% to nearly 510 gigawatts (GW) in 2023, the fastest growth rate in the past two decades. . . . [2] Achieving the COP28 target of tripling global renewable capacity by 2030 hinges on policy implementation. . . . [C]hallenges [that could prevent reaching the tripling goal] fall into four main categories and differ by country: 1) policy uncertainties and delayed policy responses to the new macroeconomic environment; 2) insufficient investment in grid infrastructure preventing faster expansion of renewables; 3) cumbersome administrative barriers and permitting procedures and social acceptance issues; 4) insufficient financing in emerging and developing economies. . . . [3] The global power mix will be transformed by 2028. . . . In 2028, renewable energy sources [are expected to] account for over 42% of global electricity generation, with the share of wind and solar PV doubling to 25%. . . . [4] China is the worldâs renewables powerhouse. . . . Chinaâs role is critical in reaching the global goal of tripling renewables because the country is expected to install more than half of the new capacity required globally by 2030. . . . [5] The US, the EU, India and Brazil remain bright spots for onshore wind and solar PV growth. . . . Supportive policy environments and the improving economic attractiveness of solar PV and onshore wind are the primary drivers behind this acceleration. . . . [6] Solar PV prices plummet amid growing supply glut. . . . Despite unprecedented PV manufacturing expansion in the United States and India driven by policy support, China is expected to maintain its 80â95% share of global supply chains . . . . [7] Onshore wind and solar PV are cheaper than both new and existing fossil fuel plants. . . . Despite the increasing contribution needs for flexibility and reliability to integrate variable renewables, the overall competitiveness of onshore wind and solar PV changes only slightly by 2028 in Europe, China, India and the United States. . . . [8] The new macroeconomic environment presents further challenges that policy makers need to address. . . . Since 2022, central bank base interest rates have increased from below 1% to almost 5%. . . . The implications . . . are manifold . . . . [I]nflation has increased equipment costs . . . [H]igher interest rates are increasing the financing costs of capital-intensive variable renewable technologies. . . . [And] policy has been relatively slow to adjust to the new macroeconomic environment due in part to expectations that cost reductions would continue . . . . [9] The forecast for wind capacity additions is less optimistic outside China, especially for offshore. . . .The wind industry, especially in Europe and North America, is facing challenges due to a combination of ongoing supply chain disruptions, higher costs and long permitting timelines. . . . [10] Faster deployment of variable renewables increases integration and infrastructure challenges. . . . Although European Union interconnections help integrate solar PV and wind generation, grid bottlenecks will pose significant challenges and lead to increased curtailment in many countries as grid expansion cannot keep pace with accelerated installation of variable renewables. . . . [11] Current hydrogen plans and implementation donât match. . . . We have revised down our forecasts for all regions except China. The main reason is the slow pace of bringing planned projects to final investment decisions due to a lack of offâtakers and the impact of higher prices on production costs. . . . [12] Biofuel deployment is accelerating and diversifying more into renewable diesel and biojet fuel. . . . Emerging economies, led by Brazil, dominate global biofuel expansion . . . . Biofuels remain the dominant pathway for avoiding oil demand in the diesel and jet fuel segments. EVs outpace biofuels in the gasoline segment, especially in the United States, Europe and China. . . . [13] Aligning biofuels with a net zero pathway requires a huge increase in the pace of deployment. . . . Much faster biofuel deployment is possible through new policies and addressing supply chain challenges. [14] Renewable heat accelerates amid high energy prices and policy momentum â but not enough to curb emissions. . . . [The renewable heat acceleration comes] predominantly from the growing reliance on electricity for process heat â notably with the adoption of heat pumps in nonâenergyâintensive industries â and the deployment of electric heat pumps and boilers in buildings, increasingly powered by renewable electricity."
"As summer heat strikes, the US grid increasingly relies on a kind of invisible weapon - the "virtual power plant" - to prevent blackouts. . . . Energy consultancy Wood Mackenzie says the VPPs already deployed or under development in the US will be able to save as much juice as 33 nuclear reactors can produce. . . . The US Energy Department estimates that peak consumption will increase by as much as 200 gigawatts through 2030, and about 80% of that boost could be met through VPPs."