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Electricity demand from UK data centers will jump sixfold over the next 10 years as a boom in AI requires increased computing power, according to the head of National Grid.

That will ramp up pressure on the country’s electricity network, which must move vast quantities of renewable energy from as far away as Scottish wind farms to data centers around London. And it’s a grid already under strain from the accelerating electrification of home heating, transportation and industries.

“Future growth in foundational technologies like artificial intelligence and quantum computing will mean larger-scale, energy-intensive computing infrastructure,” National Grid Chief Executive Officer John Pettigrew said Tuesday at a conference in Oxford. It’s an outlook replicated in many other countries, which are grappling with how to fund the massive spending required to expand capacity. Global electricity demand from data centers, AI and cryptocurrencies may more than double over the next three years, according to International Energy Agency forecasts.

Microsoft built two datacenters west of Phoenix, with plans for seven more (serving, among other companies, OpenAI). “Microsoft has been adding data centers at a stupendous rate, spending more than $10 billion on cloud-computing capacity in every quarter of late,” writes the Atlantic. “One semiconductor analyst called this “the largest infrastructure buildout that humanity has ever seen.”

But is this part of a concerning trend?
Microsoft plans to absorb its excess heat with a steady flow of air and, as needed, evaporated drinking water. Use of the latter is projected to reach more than 50 million gallons every year. That might be a burden in the best of times. As of 2023, it seemed absurd. Phoenix had just endured its hottest summer ever, with 55 days of temperatures above 110 degrees. The weather strained electrical grids and compounded the effects of the worst drought the region has faced in more than a millennium. The Colorado River, which provides drinking water and hydropower throughout the region, has been dwindling. Farmers have already had to fallow fields, and a community on the eastern outskirts of Phoenix went without tap water for most of the year… [T]here were dozens of other facilities I could visit in the area, including those run by Apple, Amazon, Meta, and, soon, Google. Not too far from California, and with plenty of cheap land, Greater Phoenix is among the fastest-growing hubs in the U.S. for data centers….

Microsoft, the biggest tech firm on the planet, has made ambitious plans to tackle climate change. In 2020, it pledged to be carbon-negative (removing more carbon than it emits each year) and water-positive (replenishing more clean water than it consumes) by the end of the decade. But the company also made an all-encompassing commitment to OpenAI, the most important maker of large-scale AI models. In so doing, it helped kick off a global race to build and deploy one of the world’s most resource-intensive digital technologies. Microsoft operates more than 300 data centers around the world, and in 2021 declared itself “on pace to build between 50 and 100 new datacenters each year for the foreseeable future….”

Researchers at UC Riverside estimated last year… that global AI demand could cause data centers to suck up 1.1 trillion to 1.7 trillion gallons of freshwater by 2027. A separate study from a university in the Netherlands, this one peer-reviewed, found that AI servers’ electricity demand could grow, over the same period, to be on the order of 100 terawatt hours per year, about as much as the entire annual consumption of Argentina or Sweden… [T]ensions over data centers’ water use are cropping up not just in Arizona but also in Oregon, Uruguay, and England, among other places in the world.

The article points out that Microsoft “is transitioning some data centers, including those in Arizona, to designs that use less or no water, cooling themselves instead with giant fans.” And an analysis (commissioned by Microsoft) on the impact of one building said it would use about 56 million gallons of drinking water each year, equivalent to the amount used by 670 families, according to the article. “In other words, a campus of servers pumping out ChatGPT replies from the Arizona desert is not about to make anyone go thirsty.”

The WMO found there was the biggest year-on-year jump in methane concentrations in 2020 and 2021 since systematic measurements began almost 40 years ago. Methane levels have risen rapidly in recent years, puzzling scientists. Some blamed it on an increase in fracking in the US but this came into doubt as industrial emissions were not showing a similarly sharp rise.

Now the theory is that the methane rise could be caused by activities of microbes in wetlands, rice paddies and the guts of ruminants. Rising temperatures have caused the ideal conditions for microbial methane production, as they enjoy warm, damp areas. Carbon dioxide levels are also soaring, with the jump from 2020 to 2021 larger than the annual growth rate over the past decade. Measurements from WMO’s global atmosphere watch network stations show these levels continue to rise. These greenhouse gases cause global heating, with the warming effect rising by 50% between 1990 and 2021. Carbon dioxide comprised about 80% of this increase. According to the WMO, carbon dioxide concentrations in 2021 were 415.7 parts per million, methane was 1908 parts per billion (ppb) and nitrous oxide was 334.5 ppb. These are respectively 149%, 262% and 124% of pre-industrial levels.

According to the Living Planet Index, a metric that’s been in existence for five decades, animal populations across the world shrunk by an average of 69% between 1970 and 2018. Not all animal populations dwindled, and some parts of the world saw more drastic changes than others. But experts say the steep loss of biodiversity is a stark and worrying sign of what’s to come for the natural world. “The message is clear and the lights are flashing red,” said WWF International Director General Marco Lambertini. According to the report’s authors, the main cause of biodiversity loss is land-use changes driven by human activity, such as infrastructure development, energy production and deforestation. But the report suggests that climate change — which is already unleashing wide-ranging effects on plant and animal species globally — could become the leading cause of biodiversity loss if rising temperatures aren’t limited to 1.5C.

They come in hordes, strike funny poses, dance to loud music, trample over crops, and often stir up unmanageable crowds that cause traffic jams. TikTok creators in Nepal have earned a reputation for disrespecting religious and historic places in their quest to create viral videos, and are now facing a backlash. Over the last two years, several prominent tourist and religious sites in Nepal have erected “No TikTok” signs to keep creators from shooting at the premises.

These sites include the Buddhist pilgrimage site Lumbini, Kathmandu’s famous Boudhanath Stupa, Ram Janaki Temple in Janakpur, and Gadhimai temple in Bara, among others. According to authorities, officials keep a close eye at these places and rule-breakers are warned or asked to leave. “Making TikTok by playing loud music creates a nuisance for pilgrims from all over the world who come to the birthplace of Gautama Buddha,” Sanuraj Shakya, a spokesperson for the Lumbini Development Trust, which manages the shrines in Lumbini, told Rest of World. “We have banned TikTok-making in and around the sacred garden, where the main temples are located.”

Experts say hundreds of thousands of returns don’t end up back on the e-commerce giant’s website for resale, as customers might think. Marketplace journalists posing as potential new clients went undercover for a tour at a Toronto e-waste recycling and product destruction facility with hidden cameras. During that meeting, a representative revealed they get “tons and tons of Amazon returns,” and that every week their facility breaks apart and shreds at least one tractor-trailer load of Amazon returns, sometimes even up to three to five truckloads…

To further investigate where all those online returns end up, Marketplace purchased a dozen products off Amazon’s website — a faux leather backpack, overalls, a printer, coffee maker, a small tent, children’s toys and a few other household items — and sent each back to Amazon just as they were received but with a GPS tracker hidden inside… Of the 12 items returned, it appears only four were resold by Amazon to new customers at the time this story was published. Months on from the investigation, some returns were still in Amazon warehouses or in transit, while a few travelled to some unexpected destinations, including a backpack that Amazon sent to landfill…

Marketplace asked Amazon what percentage of its returns are sent to landfill, recycling or for destruction. The company wouldn’t answer. A television investigation in France exposed that hundreds of thousands of products — both returns and overstock — are being thrown out by Amazon. As a result of public outcry, a new French anti-waste law passed earlier this year will force all retailers including e-giants like Amazon to recycle or donate all returned or unused merchandise. Shortly after the show aired in 2019, Amazon also introduced a new program in the U.S. and U.K. known as Fulfillment by Amazon Donations, which Amazon says will help sellers send returns directly to charities instead of disposing of them. No such program exists in Canada.

It’s no coincidence that the number of trucks on the road has doubled since Amazon launched in 1994. That’s a huge deal for the climate, as Vox reported last year in an article on the environmental impact of online shopping: “In 2016, transportation overtook power plants as the top producer of carbon dioxide emissions in the US for the first time since 1979. Nearly a quarter of the transportation footprint comes from medium- and heavy-duty trucks. And increasingly the impact is coming in what people in the world of supply-chain logistics call ‘the last mile,’ meaning the final stretch from a distribution center to a package’s destination. (The ‘last mile’ can in truth be a dozen miles or more.)”

The good news is that e-commerce has the potential to be less carbon-intensive than brick-and-mortar retail. As Anne Goodchild, director of the University of Washington’s Supply Chain Transportation and Logistics Center, told BuzzFeed News, delivery trucks emit “between 20% and 75% less carbon dioxide per customer on average than passenger vehicles driving to [stores].” But that’s only if online stores choose the delivery times themselves. That way, they can pack trucks full of goods and optimize their routes. “When customers choose,” Goodchild noted, “the carbon savings are significantly smaller.”

Thus, Amazon could significantly cut its carbon footprint by prioritizing shipping optimization over consumer convenience…. Americans will have to begin thinking of Amazon.com and other e-commerce sites not as on-demand delivery services for every little thing, but stores that require just as much forethought as a trip to the mall did twenty years ago. And that might be too much to ask of the average consumer in the digital age. In which case, the government might have to step in.

Amazon’s biggest carbon impact comes from its AWS cloud servers, though by the end of 2018 they’d already converted 50% of that to renewable energy, according to the article. And more green efforts may be coming. “For the past eight years, Bezos has ignored requests from the nonprofit Carbon Disclosure Project, which collects the carbon footprint data of large corporations. But last month, he agreed to eventually make the company’s emissions data public. It’s expected later this year.”

The article also raises the possibility of a future with delivery drones powered by renewable energy. But it adds tht until that day comes, expecting deliveries within 48 hours “is incompatible with solving global warming.”

U.S. data centers use more than 90 billion kilowatt-hours of electricity a year, requiring roughly 34 giant (500-megawatt) coal-powered plants. Global data centers used roughly 416 terawatts (4.16 x 1014 watts) (or about 3% of the total electricity) last year, nearly 40% more than the entire United Kingdom. And this consumption will double every four years.

Streaming video has already changed the game, but the explosion of artificial intelligence and internet-connected devices will change the entire landscape. AI is the future, and AI is hungry for processing power. IoT is projected to exceed 20 billion devices by 2020 (some analysts believe we will reach that number this year alone). Given there are currently 10 billion internet-connected devices, doubling that to 20 billion will require massive increases to our data center infrastructure, which will massively increase our electricity consumption.

How on earth can we possibly build all the power plants required to supply electricity to twice as many data centers in the next four years? The simple answer is that we can’t.

Every website and product connected to the internet would not be able to exist without a vast network of wireless routers, fiber optic cables running underground and underwater, and data centers that house the servers which bring the internet to life. Data centers in the U.S. alone eat up 70 billion kilowatts of energy per year, according to a 2016 estimate from the Department of Energy — that’s 1.8 percent of all energy use across the country.

The internet is not ethereal, and a new project from the blog Low-Tech Magazine aims to make that issue more tangible. Low-Tech Magazine — a blog operated by Kris De Decker that has run on WordPress since 2007 — launched a “Low-Tech,” solar version of the site that’s designed from the ground-up to use as little energy as possible. In a Skype call with Motherboard, De Decker said that he doesn’t think people don’t care about how much energy it takes they use the internet, they just don’t understand the extent of the problem. “There’s this idea that the internet is immaterial, it’s somewhere floating in clouds,” he said. “Of course, it’s a very material thing that uses resources, materials, energy — and quite a lot actually.”

In a normal year, demand for electric power in Chelan County grows by perhaps 4 megawatts ­­— enough for around 2,250 homes — as new residents arrive and as businesses start or expand. But since January 2017, as Bitcoin enthusiasts bid up the price of the currency, eager miners have requested a staggering 210 megawatts for mines they want to build in Chelan County. That’s nearly as much as the county and its 73,000 residents were already using. And because it is a public utility, the PUD staff is obligated to consider every request.

The scale of some new requests is mind-boggling. Until recently, the largest mines in Chelan County used five megawatts or less. In the past six months, by contrast, miners have requested loads of 50 megawatts and, in several cases, 100 megawatts. By comparison, a fruit warehouse uses around 2.5 megawatts.

Apple Inc. is in talks to buy long-term supplies of cobalt directly from miners for the first time, according to people familiar with the matter, seeking to ensure it will have enough of the key battery ingredient amid industry fears of a shortage driven by the electric vehicle boom…

Iceland is expected to use more energy ‘mining’ bitcoins and other virtual currencies this year than it uses to power its homes.

With massive amounts of electricity needed to run the computers that create bitcoins, large virtual currency companies have established a base in the North Atlantic island nation blessed with an abundance of ‘renewable energy.’

The energy demand has developed because of the soaring cost of producing and collecting virtual currencies. Computers are used to make the complex calculations that verify a running ledger of all the transactions in virtual currencies around the world.

Among the main attractions of setting up bitcoin mines at the edge of the Arctic Circle is the natural cooling for computer servers and the competitive prices for Iceland’s abundance of renewable energy from geothermal and hydroelectric power plants.

Johann Snorri Sigurbergsson, a business development manager at the energy company Hitaveita Sudurnesja, said he expected Iceland’s virtual currency mining to double its energy consumption to about 100 megawatts this year. That is more than households use on the island nation of 340,000, according to Iceland’s National Energy Authority.

Pirate Party legislator McCarthy has questioned the value of bitcoin mining for Icelandic society, saying residents should consider regulating and taxing the emerging industry.

“We are spending tens or maybe hundreds of megawatts on producing something that has no tangible existence and no real use for humans outside the realm of financial speculation,” he said. “That can’t be good.”