Marathon Digital Holdings and Zero Two have announced a partnership to create a large-scale immersion Bitcoin-mining facility in Abu Dhabi. The joint venture, called the Abu Dhabi Global Markets JV Entity, will be based in Mina Zayed and Masdar City in the United Arab Emirates, and will comprise two mining sites with a combined 250-megawatt capacity. Marathon and Zero Two plan to power the facilities with excess energy from Abu Dhabi’s grid, claiming it will increase its base load and sustainability.
According to Marathon Digital, crypto mining in the desert climate of Abu Dhabi, where the average annual temperature is roughly 28 degrees Celsius (82 degree Fahrenheit), was often “infeasible.” However, the company said it had helped develop a “custom-built immersion solution” to cool mining rigs at the proposed facilities, suggesting a liquid-cooling solution.
The two firms expect both Abu Dhabi facilities to be online by 2024 and produce a combined hash rate of roughly 7 EH/s. Ownership of the project will be split between Zero Two and Marathon Digital, with the two companies controlling 80% and 20%, respectively.
The move comes as executives from United States-based crypto exchange Coinbase visited the UAE to test the potential of the region as a “strategic hub” for its international operations. Coinbase CEO Brian Armstrong met with policymakers and spoke at the Dubai FinTech Summit.
The joint venture between Marathon Digital and Zero Two aims to take advantage of Abu Dhabi’s excess energy to power the mining facilities, with a view to increasing sustainability and base load. The use of liquid cooling solutions will help to overcome the challenges of the desert climate, where high temperatures make traditional air cooling methods infeasible.
Marathon Digital’s experience in developing a custom-built immersion solution for cooling mining rigs will be key to the success of the project. The two firms plan to have both facilities up and running by 2024, with a combined hash rate of roughly 7 EH/s.
Meanwhile, Coinbase is exploring the potential of the UAE as a strategic hub for its international operations. The visit by the company’s executives, including CEO Brian Armstrong, highlights the growing interest in the region as a destination for crypto-related businesses.
Overall, the partnership between Marathon Digital and Zero Two represents a significant step forward in the development of the crypto mining industry in Abu Dhabi, as the two companies look to capitalize on the region’s excess energy and overcome the challenges of the desert climate. With the backing of both firms, the joint venture is well-positioned to succeed and could pave the way for further expansion in the Middle East.
The New York Times’ recent report on Bitcoin mining, “The Real-World Costs of the Digital Race for Bitcoin,” has been met with criticism from BTC proponents. The article claims that Bitcoin mining has a “voracious” appetite and uses as much energy as all residences in New York City. However, some analysts have pointed out that the article cherry-picks data and neglects the increasing use of renewable energy in the mining sector.
Bitcoin environmental, social, and governance (ESG) analyst, Daniel Batten, said that the article exaggerates the fossil fuel use of BTC miners and uses incomplete datasets to support its thesis. He also noted that some Bitcoin miners in the United States and Canada use 90% sustainable energy to fuel their mining activities, but the NYT article focuses on the sites least backed by renewable energy.
Bitcoin proponent, Troy Cross, criticized the article for using “marginal emissions accounting” and selectively applying it only for carbon emissions, not generation. Dennis Porter, CEO of the Satoshi Act Fund, also noted an error in the article’s initial reporting, where the wrong town was named for a BTC mining facility in Texas.
BTC mining firm Riot’s vice president of research, Pierre Rochard, accused the NYT of using “fictitious fractional-reserve carbon accounting” and “cooking the books to fabricate emissions.” Meanwhile, another Twitter user believed that the article was fear-mongering.
Despite the debate on Bitcoin mining’s energy consumption, it remains significant for the blockchain. Mining is used to verify transactions, make it decentralized, and add a layer of security. According to the Bitcoin Mining Council’s Q4 2022 report, the Bitcoin network is already a leader in sustainable energy use, with 58.9% of its energy coming from renewable sources.
While some mainstream outlets criticize Bitcoin mining for its environmental impact, many BTC proponents see these reports as hit pieces and offer opposing perspectives. Some are even campaigning to change Bitcoin’s mining consensus to the more environmentally friendly proof-of-stake. Despite the criticism, Bitcoin mining’s importance to the blockchain makes it an essential area for continued development and research into sustainable energy solutions.
The World Economic Forum (WEF) has established a Crypto Sustainability Coalition to investigate the capability of Web3 in tackling climate change.
In a statement, the WEF noted that blockchain tools would propel transparency in the worldwide carbon credits market, whereas crypto mining would trigger renewable microgrids through off-peak demand and decentralization.
Since the adoption of technologies like non-fungible tokens (NFTs), blockchains, and cryptocurrencies in Web 3.0, members of the coalition will find out how they can boost social and environmental agendas.
The coalition also seeks regulatory clarity that enhances Web3 innovation, propels financial inclusion, and protects consumers.
Brynly Llyr, World Economic Forum’s head of blockchain and digital assets, noted:
“I am excited about the work we are expecting from the Crypto Sustainability Coalition. An important and unique aspect of web3 is that it uses technology to support and reward direct community engagement and action.”
Llyr added:
“This means we can coordinate the work of many individuals directly with one another, enabling collective action without centralized control – a powerful accelerator for grass roots action.”
The Crypto Sustainability Coalition consist of 30 partners hosted by the WEF as a public-private initiative. Its primary areas of concern include Web3’s potential for climate action, energy usage, and “on-chain” carbon credits.
Some partners include Solana, Circle, NEAR Foundation, PlanetWatch, University of Lisbon, eToro, Crypto Council for Innovation, and Sustainable Bitcoin Standard.
Moreover, the coalition will come up with best practices and tangible action on how Web3 technologies can positively impact communities most affected by climate change. The report noted:
“The coalition’s wider aim is to foster a broad education campaign on what Web3’s potential and capacity look like, to better inform governments on how they regulate these technologies and incentivize investment and research into their development.”
Meanwhile, a report by Chainlink Labs and Tecnalia noted that blockchain technology could help fight the climate crisis through smart contracts, Blockchain.News reported.
Can blockchain solve one of the most problematic issues in renewable energy?
24 May 2020, Thuringia, Henneberg: Opponents of the planned “Südlink” power line are demonstrating … [+]at the former border crossing between Bavaria and Thuringia. Photo: Michael Reichel/dpa-Zentralbild/dpa (Photo by Michael Reichel/picture alliance via Getty Images)
dpa/picture alliance via Getty Images
In recent months one of the biggest themes in energy has been the understanding that 100 percent renewable or carbon free energy is a very different proposition to 24/7.
First to cotton on to this were the big data tech giants like Google and Microsoft. They comprehended with total clarity the problems in the US of buying certificates to cover the total volume of energy consumed within a year, without consideration of time and place, and how it could destabilise the grid by sending wrong or even perverse incentives, and market signals.
Data giants arguably were in a better place than most to understand 24/7 and manage their power in a more nuanced way. With plenty of energy intensive operations that could be moved at choice, across the day and night, they could even do some useful load shifting.
But outside of this elite band with their deep pockets, it has been interesting to watch the less technocratic but similarly determined manufacturing sector change and evolve, starting their own journey to greater sustainability.
One such example is Mercedes, which, for a number of years has been asking how to become more genuinely green. Patrick Koch, Head of Origination in Germany at Statkraft, has developed the Mercedes concept for Germany together with Klaas Bauermann and the two are at the forefront of this transformation.
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“Like everyone else, Mercedes is on a journey and they are plotting their own way to get to a place that you can really call sustainable quality” Says Bauermann.
A robot mounts a cockpit into a Mercedes-Benz S-Class car on the assembly line at a plant of the … [+]Stuttgart-based luxury carmaker Mercedes-Benz in Sindelfingen, southwestern Germany. Photo credit THOMAS KIENZLE/AFP via Getty Images
AFP via Getty Images
Helping the car marque on this journey has involved careful coordination of all of the electrical resources of different shapes and sizes to create solid daily intake, hour by hour, painstakingly ensuring every kilowatt hour is accounted for once and once only.
For German plants, there is the solar park near Ingolstadt and twenty-four wind farms, which according to Elke Pußkeiler, Head of Supply Chain at Mercedes, the company is keen to increase. But when the wind and sun aren’t producing enough energy to meet demand, the company needed to find a solution to the variability of its renewable energy sources. To overcome this they worked with energy supplier, Enovos, and the Norwegian energy producer and retailer, Statkraft.
Norwegian Hydro kicks in when the load outstrips the local renewable supply and every single hour is produced physically and accounted for by a Guarantee of Origin (GoO), which proves the renewable origin of the electricity. This, as well as the synchronicity of production and consumption, are independently certified by the German TÜV (the Technical Inspection Association).
Says Bauermann, “The complexity surprised us as we started to address the challenges of bringing in high-quality energy. But the mission itself was established with a very clear brief: Firstly, source for Mercedes the cleanest energy, for every hour of operation and secondly maximize, the share of local physical production (PPA) PPA , which are like a physical PPA, while minimizing the share of unbundled GoOs”.
“We start with the requirements from Mercedes and, to an increasing extent, many of their supply chain companies. The tyres, gearboxes and all the component parts that go into the car, and start building out the variable energy contributions.
“Green baseload and peak load contracts from Germany lay the foundation of supply. We then add as much wind and solar as possible, taking care not to significantly exceed the demand in any few hours. The last part is delivered from flexible hydropower in Norway, and our green battery that we use to make sure we cover Mercedes’s demand for every single hour. So it all adds up exactly.”
Predictably there is no nuclear on the Mercedes energy charts, which places the whole operation on a different footing from say Google who use nuclear, or ‘carbon free energy’ as Clean Energy Buyers Association likes to call it, as a flexible baseload.
Germany is less than a thousand kilometers from the huge hydropower stations of Norway and has barely 11 percent nuclear, so hydropower was never in question for this part of the task.
The Scandinavian hydropower gets sent, in high voltage direct current form (HVDC), by a newly built undersea connection that has only just been finished in March of this year.
19 June 2019, Schleswig-Holstein, Büsum: The end of a 516 kilometre long submarine cable is pulled … [+]ashore by a cable-laying ship in the mud flats under the dike. (Photo by Carsten Rehder/picture alliance via Getty Images)
picture alliance via Getty Images
NordLink, the new subsea interconnector between Norway and Germany, became operational with its 1,400MW link and there’s no doubt that it plays a crucial role for Mercedes.
It does raise an issue, although the power is delivered to the north of Germany, the passage through to the rest of the country is more theoretical and less physical in nature.
The importance of place
Sure, there is a national grid in Germany, but the level of electrical congestion in the north is one of the reasons for the building of a national interconnector, called Suedlink, between North Germany and South Germany. This part of an electron’s journey is a less happy story and remains far from complete: Suedlink is still under construction, with an uncertain future. The €16.7 billion price tag will push up electricity prices in Germany, despite the country already having the most expensive electricity prices in the world. While laying cable undersea is relatively easy, laying it two metres underground is a more expensive proposition. And none of the residents between Schleswig Holstein and Baden Württemberg want to see more power lines crossing their countryside, so tunnelling it remains the only, if most expensive option.
Clearly bringing the energy from north to south Germany has its issues. And while many energy commentators are unconcerned about this congestion issue, and see the process as electrons coming into and out of a big and somewhat theoretical lake, others are less certain about this view.
One seasoned investor with twenty years experience, and as many successful renewables projects under his belt, disagrees with the ‘lake’ notion, and says that the place of entry of electricity is vital. “From a financial, and market point of view, there is a clear right way to do it and also a very clear wrong way too.”
“The right way is to start with the interconnector and say how can we get our power to this point the cheapest way. The wrong way is to say where the wind is strongest and leave the rest to chance.”
(Photo by Sean Gallup/Getty Images)
Getty Images
“There is naivete about some developers and even some investors who expect the grid to be constructed to meet their needs, and are sorely disappointed when they find themselves having to curtail the energy coming from their much heralded project.”
It’s also possible that when the interconnectors are all built, there remain monopolistic control issues that prevent interconnectors being used to the full extent.
Certainly solving the congestion problems may turn out in the coming years to be a non-trivial issue.
In that eventuality, the importance of local energy markets, trading with blockchain enabled systems could be a solution. After all, an energy trading platform enabled by blockchain would allow for fast, secure and seamless energy trades to help solve congestion issues.
It’s too soon to say whether the trade of renewable energy will continue to scale internationally or more locally, but you can see both trends in the market.
Ultimately it will depend on what the companies that are ordering it want to achieve and are willing to pay for. Today, place appears to be of secondary importance for most companies. Tomorrow it may be a different story.
Samsung Electronics America announced Monday at the CES Tech Conference in Las Vegas its partnership with veritree, a blockchain-based climate solutions platform, to plant two million mangrove trees in Madagascar over the next three months. veritree uses blockchain technology to manage the reforestation process and verify each tree that is planted.
The tree-planting initiative is part of Samsung’s nature-based action plan on environmental sustainability, specifically to capture and sequester carbon dioxide (CO2) from the atmosphere. The goal is to restore roughly 200 hectares of land and sequester roughly 1 billion pounds of CO2 over a 25-year period.
Veritree, developed by tentree, a sustainable apparel company that plants 10 trees for every item of clothing sold, will handle the logistics. Built as an accounting system, veritree attempts to provide greater transparency of the entire process from field-level data collection, site planning, tree inventory and impact monitoring. Tree planters use their phones to track trees that a sponsor has paid to plant, essentially creating a digital map of the corresponding digital trees.
Samsung’s head of corporate sustainability Mark Newton said that investing in innovative technology and so-called “nature-based solutions” is vital for combatting climate change.
Related: Samsung announces NFT platform for smart TVs
According to Samsung, mangrove trees are some of the world’s most effective nature-based carbon sinks. Mangrove roots, which are usually covered by water, capture and store CO2 in the soil. Samsung plans to work with local community members of the Mahajanga region of Madagascar, a region faced with large deforestation, to reach its two million tree goal by the end of the first quarter.
The tree-planting initiative is part of Samsung’s growing efforts around sustainability. In addition to using renewable energy in the United States, the company recently unveiled a new smart TV lineup with an integrated NFT platform.
The Bulletin of Atomic Scientists earlier this year voted to keep the hands of the Doomsday Clock that measures humanity’s likelihood of self-destructing closer to midnight than ever. One of those scientists is now leading a new generation of teachers fighting for our survival by changing the way we think about our place in space and time.
It’s the summer of 1969, but it may as well be today. A newly-formed womens’ rights group known as the Redstockings storms the New York State legislature to protest its handling of abortion laws. Armed members of the Black Panther Party take to the streets across America, protecting black citizens from police brutality. Two nuclear powers, China and the Soviet Union, battle over a disputed border in Manchuria.
Hovering high above, three Apollo 11 astronauts are cruising at 2,000 miles per hour towards the moon. This first sojourn of humans to the chalky, white orb is simultaneously a rallying cry for the great things the species is capable of doing, and a reminder of America’s ability to launch nuclear weapons anywhere in the world. The Doomsday Clock, created by Albert Einstein and others who helped invent the nuclear bomb, is set to 10 minutes till midnight. If the clock strikes 12, it’s unlikely anyone will know, as the world will have blinked out of existence in a nuclear flash.
As the spindly-legged Eagle moon-lander begins its 70-mile descent to the moon’s surface, a restless 31-year old nuclear physicist named Robert Socolow is just one of 500 million humans glued to their television sets. Shortly before sunset, in his young family’s ranch-style rental home near Stanford’s Linear Accelerator, Socolow’s wife Elizabeth brings their sleeping son David to the living room and places him in a blue crib they inherited from her parents. As astronaut Neil Armstrong takes his first step on the powdery surface, Socolow gently lifts the boy from the crib and sets him on his lap.
“We wanted him to see the moon landing,” says Elizabeth, now 81, recalling the moment from her home in Lawrenceville, New Jersey, 50-years later. “I could see him telling his own children he had seen the landing,” Rob chimes in from the back patio of his four-acre estate near Princeton. “That his dad had put him on his lap, facing the television as it was happening.”
At their rental home in California, physicist Robert Socolow holds his newborn son David in the summer of 1969.
Elizabeth Anne Socolow
Over the course of the next several years, the power of that black and white moment grew, impacting policy decisions and inspiring a new generation of academics. So, when the last crew to travel to the moon on Apollo 17 snapped a full-color high-resolution photo of the Earth, now known as The Blue Marble, the image sent shockwaves around the world. The tiny planet floating alone in a vast sea of blackness became an emblem that shifted the eons-old, tribal fight to survive to a planetary scale, says Socolow, now 83 and a professor emeritus at Princeton. “I single out the images of the Earth from space as having a kind of shock effect on our species. Virtually every university asked itself how it would respond to what was clearly some new agenda?”
As governments and businesses now prepare to take the first humans to other planets, Socolow’s answer to that question is only getting more refined. After co-founding Princeton’s environmental science program in 1971, he joined the Bulletin of Atomic Scientists’ Science and Security Board and served on the committee that earlier this year voted to keep the Doomsday Clock at 100 seconds to midnight, the closest it’s ever been. Instead of just waiting and hoping things would improve, he’s taking matters into his own hands, teaching a small class he calls Destiny Studies, which moves beyond the sense of patriotism taught by institutions around the world to what he calls Planetary Identity, the sense that the bonds we’ve long experienced from coming from the same place could be extended far beyond tribal and national borders.
It turns out, he’s not alone. Countless other scientists and teachers around the world have been transformed by seeing the Earth as it truly was, floating and alone. Many of them are now working to better understand exactly why the change in perspective occurs, and figure out if maybe it can be taught on the grandest scale. If they’re successful, these scientists and teachers could change not just how we deal with nuclear weapons, global pandemics, and other emerging threats, but help build a new kind of identity—one embraced by future generations of astronauts on their way to Mars and beyond.
“We don’t know that there’s life anywhere else, and until such time as we do, we ought to consider ourselves to be something extraordinary in the universe, who are figuring out who we are,” says Socolow. “Planetary identity supplements the many other identities we have. We don’t think of our religion as detracting from our nationalism, or our affinity with a ball team from our cultural identity—they’re all parts of our identity that supplement and round out a personality. We have been delinquent in not bringing planetary thinking into science education from kindergarten on up.”
The Blue Marble Image, from 18,000 miles away.
NASA/Apollo 17 crew
Planetary Identity
Born on December 27, 1937, Socolow describes his childhood, growing up in a liberal Jewish New York neighborhood, as “cosmopolitan,” from the Greek for citizen of the cosmos. When he was eight, he enrolled at the progressive Walden School in New York, where instead of singing the Star Spangled Banner, the students sang the unofficial United Nations anthem. After a year in France studying with the non-profit “Experiment on International Living,” Socolow enrolled at Harvard University and studied theoretical high-energy physics under Kenneth Bainbridge, the former director of the Manhattan Project’s Trinity nuclear test.
While any serious scientist at the time was expected to advance rapidly from one course to another, as a sophomore, Socolow shocked his professors when he opted to study poetry under Pulitzer Prize winner Archibald MacLeish, whose poem Conquistador opened his eyes to the destruction that well-meaning colonists wrought in an attempt to spread their culture. “I’ve always been someone who said science is not enough,” says Socolow. “But it’s a part of it.”
In 1959, his career in physics was again delayed. Instead of going straight into the PhD program, Socolow accepted Harvard’s Frederick Sheldon travel fellowship and spent the potentially pivotal year of his career on the road. Instead of taking the “grand tour” of Europe, as past winners of the fellowship typically did, he cycled through Cambodia, took a train to Vietnam, a bus to India and a flight to East Africa. “It became clear to me that I was interested in the whole world, global issues, the way cultures connected, and how science fit into all of that,” he says. “I came back a global citizen.”
3 MINUTES TO MIDNIGHT | In 1960, after seven years set at two-minutes to midnight at the height of the Cold War, the Doomsday Clock was set back one minute, in part thanks to the Antarctic Treaty, which saw twelve nations agree not to militarize the southern continent.
Socolow’s travels abroad further spun him away from physics in the spring of 1969, when 44,000 Americans and countless Vietnamese had already been killed in the Vietnam War. More than a black and white story on television, color images of actual places he’d been and people he met swirled around his head. “I was feeling in my bones from that whole year of travel, that we were on the wrong side,” he says.
After spending much of the summer commuting back and forth between the Stanford Linear Accelerator and protests on the other side of the San Francisco Bay, at the University of Berkeley, the young Socolow helped organize a campus-wide event critiquing scientists’ complicity in the war. “The question I was asking at the time was, ‘If I’m going to leave pure science for something with social context, what’s that going to look like?’” says Socolow. “And I didn’t have a good answer.”
That all changed on July 21st, 1969, the morning after he set his son on his lap to watch the moon landing. He awoke to find the words of his college professor, Archibald MacLeish, documenting the epiphany he and the rest of the world had started to experience, seeing the Earth in the sky above, published on the front page of the New York Times:
…We stand here in the dusk, the cold, the silence…
and here, as at the first of time, we lift our heads.
Over us, more beautiful than the moon, a
moon, a wonder to us, unattainable,
a longing past the reach of longing,
a light beyond our light, our lives–perhaps
a meaning to us…
Earthrise Image, from 238,900 miles away.
Nasa/Apollo 8
He had found his answer. That summer, instead of returning to his work at the Linear Accelerator, he flew to Florida, and trying to better understand how plans for an airport would impact the native wildlife, canoed deep into a labyrinth of wetlands studying long-legged limpkins, pink flamingos, and reptilian-looking spoonbills. “The Earth was the system I was interested in,” says Socolow. “It’s nowhere near as universal as the universe. It is cascading down, not up, but down from the physics, which was about the neutron and the proton everywhere, Earth was a very special case. It was not as romantic as studying the universe. But it had ethical content, it was about what we were doing here on Earth, as a species.”
10 MINUTES TO MIDNIGHT | Following the ratification of the Nuclear Non-Proliferation Treaty by the U.S. Senate, the Doomsday Clock was moved back the previous year from seven-minutes to midnight.
The Overview Effect
Illustration by Forbes
After the moon landing—and the flood of images that came with it—it became clear that Socolow was not the only one whose perspective was changing. Five months later, U.S. President Richard Nixon signed the Endangered Species Act, helping prevent the destruction of land used by threatened animals. The following April, Republican Senator Gaylor Nelson hosted the first Earth Day to draw attention to the impact humans were having on the planet.
Perhaps no one experienced the perspective of science “cascading down” more than the astronauts spiraling the earth. While Socolow’s perspective—and much the rest of the so-called terranauts—evolved after seeing images on a screen, the astronauts experienced this new vantage point in high-definition, full-color, zero-gravity reality. In his 1974 book Carrying the Fire, Apollo 11 astronaut Michael Collins described the experience of seeing the Earth from space as “invaluable to getting people together to work out joint solutions, by causing them to realize that the planet we share unites us in a way far more basic and far more important than differences in skin color or religion.”
In many ways, this paradigm shift culminated on February 14, 1990, just as Voyager 1 approached the edge of our solar system. At the recommendation of Pulitzer Prize-winning astronomer Carl Sagan, the NASA engineers on Earth turned around the spaceship’s camera and snapped a photo of our home from nearly four billion miles away. Any further, and the few blueish pixels that represented the Earth would have vanished completely. “A pale blue dot,” as Sagan described what he saw in his 1994 book on the experience. “The Earth is the only world known so far to harbor life,” he wrote. “Like it or not, for the moment the Earth is where we make our stand.”
The Earth seen from 3.7 billion miles away, remastered in 2020.
Nasa/Voyager 1
By 2014, this sense of epiphany—that the planet is fundamentally borderless and alone—had touched so many lives that Harvard professor Frank White coined the phrase “Overview Effect” to describe it. “Some common aspects of [the Overview Effect] are a feeling of awe for the planet,” he writes in his book named after the effect. “A profound understanding of the interconnection of all life, and a renewed sense of responsibility for taking care of the environment.”
Retired U.S. Army colonel, Jeffrey Williams, 63, says that during his record-setting 534 days on the International Space Station he was at first struck by an affinity with his present and past homes. Then, after countless orbits around the earth, the amateur photographer slowly started to identify with places he’d seen on previous cycles of the same trip, until at last his identity itself began to scatter. Author of the 2010 book The Work of His Hands: A View of God’s Creation from Space, Williams says he now feels a sense of duty to use the photographs he took as a tool to bring people “vicariously” to the perspective. “When we have tensions at the highest levels that are very public, it’s very important to appreciate and understand and foster and empower the positive engagements that we have,” he says. “Dealing with people is the same everywhere in the world, often in contrast to the way administrations publicly deal with each other.”
Awe and Wonder
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In early 2011, Williams had a unique opportunity to fulfill his mission to help others vicariously see through his eyes. An international team of scientists, philosophers and artists approached him as part of their preparation for a number of experiments being developed at the University of Central Florida, just a 30-minute drive from The Kennedy Space Center, where eleven years earlier he launched on his first trip to space. Designed by cognitive scientist Shaun Gallagher, the experiments would test if the Overview Effect that had changed Socolow and others’ perspectives could be taught in a lab.
6 MINUTES TO MIDNIGHT | In part as a result of U.S. President Barack Obama and Russian President Dmitri Medvedev agreeing to nuclear arms negotiations, the Doomsday Clock was set back one minute.
With a grant from the John Templeton Foundation and help from virtual reality professor at Humboldt University, Jörg Trempler, the first experiment simulated a work desk on the International Space station. Standing in a room outside the Virtual Space Lab, research assistant and PhD candidate Patricia Bockelman addressed 38 psychology students who volunteered for a battery of tests and a new kind of flight simulation. “Welcome to your pre-flight preparation,” she said. “Let’s begin the first phase by having you follow me to the cockpit where we will begin your astronaut qualification examination.”
As part of “suiting up” for the virtual space trip, the students answered a battery of questions about whether they were right-handed, color-blind, or believed in god. Alpha, theta, and beta waves emitted from the students’ brains during the test were measured by nine electrodes affixed to a cap on the student’s head with a tenth electrode measuring their heartbeat. Bockelman then drew back a black curtain revealing two massive 120 degree screens behind portholes riveted to the wall.
One by one, the students entered a chamber described in the 2015 book on the experiments, A Neurophenomenology of Awe and Wonder, as a “virtual Plato’s cave.” Mimicking the restricted movement of an actual space flight, they were strapped into a chair. Lights in the room dimmed and the sounds of rockets blared through speakers so loud the room shook. “We tried to put them in a frame of mind where they were expecting to be launched into space,” says Gallagher, now 72, and a professor at the University of Memphis. As the sounds of the rockets dimmed, a pale blue image depicting a crescent-shaped sliver of the earth slowly rotated into view.
For 24 minutes the subjects were silently shown images of the earth, the International Space Station and finally the stars of deep space. A second experiment depicted a virtual launch from the iconic University of Central Florida campus, whose concentric paths around the student union emulate the Kennedy Center launch site. Instead of a rapidly pounding heartbeat, as the scientists expected, the subjects appeared to enter a meditative state with an ever-slowing pulse. Sifting through hours of interviews with the test subjects, the researchers identified 42 instances of what they describe as a change in moral perspective, and 22 instances each of contentment, inquisitiveness, and insignificance compared to the vastness of space. Far from a jarring experience, the perspective seemed to calm them. 39 subjects in the second experiment experienced a clear sense of awe and wonder.
One 19-year-old female psychology student, identified in the book only as Participant 44, put it this way: “You’re [not just] looking at pictures and saying, ‘Oh, this is China,’ and, ‘Oh, this is what the sun looks like.’ Instead you see all of it, all at once and you think, oh, this is what everything looks like put together.” At at least this basic level, the Overview Effect was indeed teachable.
One of the Neurophenomenology of Awe and Wonder’s co-authors, philosopher Bruce Janz, sees a larger impact of the Overview Effect than just the breaking down of national borders. The co-director of the University of Central Florida’s Center for Humanities and Digital Research, Janz studies the impact of modern technology on human consciousness. A dual citizen, born in Canada and now living in the United States, Janz specializes in how concepts of place are influenced by the spaces in which they’re set—in the Awe and Wonder experiments, how the concept of one’s self is influenced by where we are on Earth, and how our concepts of the Earth are influenced by whether or not we see the planet firmly planted beneath our feet or hovering in empty space.
Janz suggests that the experience of physical borders being broken down since technology opened up travel and communication, is echoed in the breaking down of other borders that define gender, sexuality, food, language, and more. He says the resulting fear, experienced by many of those forced to see themselves as inherently connected to people they disagree with, could be in part to blame for the recent reaction against globalization: the building of walls on previously open borders, the dissolution of international unions, and a fear of anything seen as homogenizing culture.
To combat this fear, a vital component of Socolow’s Planetary Identity, Janz proposes a new understanding of globalization, which he calls “glocalization.” Janz’s own paradigm shift presents hospitality as a way to interact with the ever-increasing number of strangers we confront, without sacrificing one’s national, tribal and other identities. “There is a certain approach to hospitality, which is both about the person you’re meeting and about the examination of yourself in that context,” he says. “In the world of glocalization, or borderlessness, we have the resources within us, if only we’re willing to let go of what we think our certainties are, and actually encounter something new.”
Building on what he learned from the experiments, in September Janz applied for a grant from the Department of Defense’s Minerva Research Initiative on social science to better understand the impact of remoteness on astronauts traveling to Mars and beyond. “No human has ever been out of sight of either the Earth or the moon,” he says. “And of course, we need different tools to think about living as humans when we are out of that range.”
Destiny Studies
Illustration by Forbes
For much of the last nine years Socolow has been helping create those tools by developing more than just a class on Planetary Identity, but an entirely new field, which he calls Destiny Studies. After first describing the field in February 2012 during a keynote address to the Vanderbilt Law Review, he codified its mission in an article for the Bulletin of Atomic Scientists. “The goal,” he wrote, “should be to foster science and technology, to intensify planetary consciousness, to strengthen those international institutions that reinforce the reality that all countries are in one boat, to resist over managing the planet, and to learn to think coherently about future time.”
In a baton-passing ceremony of sorts, the professor emeritus at Princeton’s Department of Mechanical and Aerospace Engineering celebrated his retirement in April 2019 by inviting speakers from the World Bank, the International Monetary Fund, Caltech, Georgetown, the University of São Paulo, U.C. Berkeley, Harvard and elsewhere to participate in a daylong event called “Destiny Studies for a Small Planet.” Gathering at Princeton’s Andlinger Center for Energy and Environment, the group of leaders addressed an audience of about 200 people to describe what Destiny Studies means through diverse lenses including geophysics, finance, energy and law.
Judge Edith Brown Weiss, 79, from the International Monetary Fund’s Administrative Tribunal, and a professor at Georgetown Law, spoke about her work helping the Hague establish a theoretical framework that views resources as part of a planetary trust, creating what she calls intergenerational equity. “Those of us living today have to pass the Earth and our natural and cultural resources to future generations in at least as good condition as we received them, so that they can meet their own needs,” she says.
100 SECONDS TO MIDNIGHT | In 2020, following the end to a number of arms treaties and government unwillingness to act on climate change, the Doomsday Clock is set closer to midnight than ever, a position reaffirmed the following year.
As Socolow laid the formal foundation for Destiny Studies in Princeton, similar endeavors were spontaneously emerging around the world. In 2010, 40 schools and 800 teachers from Austria, Benin, Brazil, the United Kingdom and the Czech Republic created the Global Curriculum Project, aimed at helping educators from any discipline adopt their existing curricula to connect the “micro-realities” at school, at home and in cities to the “macro-reality” of the planet. “It is vital to raise new generations with a global/planetary conscience in order to assure sustainability of life on Earth,” wrote professors Madza Ednir and Débora Maria Macedo from Brazilan non-profit Centro de Criação de Imagem Popular in a paper published by the Journal of Field Actions.
Among a number efforts that have sprung up over the years to teach planetary identity and related concepts is the Ecole Urbaine de Lyon’s School of Anthropocene, which for the past three years has been developing the Anthropocene Manifesto, an evolving document about what it feels like to be an Earthling; the JP Morgan-funded MIT Center for Collective Intelligence to help large numbers of people communicate peacefully and to better predict the future; and Stanford’s Millennium Alliance for Humanity and the Biosphere, which develops strategies for shifting the way cultures deal with a wide range existential threats.
Pensive Socolow at his April 2019 Symposium.
Sameer A. Khan
In the fall of 2020, just a short drive from where Socolow lives, NYU philosophy professor and author of Cosmopolitanism: Ethics in a World of Strangers, Kwame Anthony Appiah, hunkered down in the attic of a farmhouse to teach an online class on what Aristotle, Confucius, and Abu Hamid Al-Ghazali have to say about successfully living in a community. As Covid-19 was about to take its one-millionth victim, over 50 students from China, Nigeria, the United States and across Europe gathered remotely, virtually raising their hands to ask questions. At the click of a button, Appiah changed the view of his personal library behind him to the Vatican library in Rome and Michel de Montaigne’s office in the south of France.
“We’re all together, because we’re thinking about global issues,” says Appiah, 67. “But they’re not abandoning their homes, they’re rooted in where they are, but desperately keen to interact with people from other places.”
Appiah too was inspired by the moon. Back in the summer of 1969, on the other side of the Atlantic Ocean from where the Socolows watched the landing, the 15-year-old London-native, raised in Ghana, was dialing the knobs on his brand-new silver boombox to record a radio signal broadcasting the same event. “I just wanted some record of having been there when our species did this thing for the first time,” reflects Appiah. “In the very longest of long term, the only way our species or the species that descends from us will survive is if we figure out how to get to the cosmos, and this was the first step.”
As the Doomsday Clock approaches its 75th anniversary in January, the man who Bulletin president Rachel Bronson calls the “institutional memory” of the organization continues his own work with new ways to implement some of the first Destiny Studies courses in a series of freshman seminars called “Time Capsules for Climate Change to be Opened At Your Reunions.” For the past five years he’s taught a group of interdisciplinary Princeton students to analyze contingencies for how problems like pollution or transportation might play out over generations and millennia. Will electric cars be little more than toys for the rich, for example, or will they dominate global transportation? The main objective, as he wrote in his own letter deposited in the latest time capsule earlier this month, is to expand the students’ “range of empathy” across both space, and time.
“You will be engaged by the challenge of sharing the planet, both spatially and temporally,” he writes. “Inventing ways to make human aspirations less injurious to the planet.” On December 9, he and the nine students in his latest class delivered the letter and their own contributions to the university library, which will store it until their graduation in 2025, their 10th reunion, their 20th reunion and their 50th reunion. “When you read this essay,” he concludes. “I expect that you will find that I have been no better than you at anticipating the future. In 2050 and 2075, give me a shout in heaven to let me know.”
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Since the mass exodus of crypto mining operations out of China based on intensified crackdowns has triggered the urge for sustainable and environmentally friendly mining activities.
This is founded on ongoing projects by Bit Digital, Bitfarms, Marathon Digital Holdings, Riot Blockchain Inc., and EV Battery Technologies.
With 27,744 crypto miners under its watch, The U.S.-based Bitcoin mining company is eyeing zero-carbon emission sources in its mining system.
On the other hand, EV Battery Technologies, a blockchain and battery tech company, recently launched a commercial emission-free crypto mining solution dubbed Daymak Solar Tree. Furthermore, it collaborated with the Renewable Obligation Base energy economy for environmentally friendly initiatives in cryptocurrency mining.
Riot Blockchain Inc., another large-scale American Bitcoin mining company, also joined a controllable load resource program by the Electric Reliability Council of Texas, the state’s grid operator, to make mining sustainable.
In Central America, El Salvador’s decision to use volcano power to mine Bitcoin (BTC) was propelling the leading cryptocurrency’s quest to accelerate renewable energy development.
This move showcased that Bitcoin can act as an accelerant to renewable energy development. Geothermal energy is renewable, clean, and in some places, it makes use of a previously untapped resource.
Meanwhile, Bitcoin miners have been able to dust themselves off from the Chinese government’s suppression because the hashrate recently reached historic highs.
This has been made possible because the miners relocated to other areas like the United States, Kazakhstan, and Iraq.
Therefore, American miners have emerged among the largest beneficiaries, given that US-based pool Foundry recently generated the biggest share of issued Bitcoin.
With clean energy programs being rolled out, this approach enhances the narrative of making crypto mining green.
The mass exodus of crypto mining operations out of China based on intensified crackdowns has triggered the urge for sustainable and environmentally friendly mining activities.
This is founded on ongoing projects by Bit Digital, Bitfarms, Marathon Digital Holdings, Riot Blockchain Inc., and EV Battery Technologies.
With 27,744 crypto miners under its watch, The U.S.-based Bitcoin mining company is eyeing zero-carbon emission sources in its mining system.
On the other hand, EV Battery Technologies, a blockchain and battery tech company, recently launched a commercial emission-free crypto mining solution dubbed Daymak Solar Tree. Furthermore, it collaborated with the Renewable Obligation Base energy economy for environmentally friendly initiatives in cryptocurrency mining.
Riot Blockchain Inc., another large-scale American Bitcoin mining company, also joined a controllable load resource program by the Electric Reliability Council of Texas, the state’s grid operator, to make mining sustainable.
In Central America, El Salvador’s decision to use volcano power to mine Bitcoin (BTC) was propelling the leading cryptocurrency’s quest to accelerate renewable energy development.
This move showcased that Bitcoin can act as an accelerant to renewable energy development. Geothermal energy is renewable, clean, and in some places, it makes use of a previously untapped resource.
Meanwhile, Bitcoin miners have been able to dust themselves off from the Chinese government’s suppression because the hashrate recently reached historic highs.
This has been made possible because the miners relocated to other areas like the United States, Kazakhstan, and Iraq.
Therefore, American miners have emerged among the largest beneficiaries, given that US-based pool Foundry recently generated the biggest share of issued Bitcoin.
With clean energy programs being rolled out, this approach enhances the narrative of making crypto mining green.
Bitcoin (BTC) is often used to criticize all blockchain-based projects. This is understandable since Bitcoin was the first project to use a blockchain, is arguably the most recognizable and is the largest cryptocurrency by market cap.
In the first half of this article, I will use Bitcoin as a proxy for all blockchain-based projects because most people associate blockchain with Bitcoin. Anything environmentally positive that can be said about Bitcoin will be doubly true for the vast majority of newer blockchain-based projects since Bitcoin uses the oldest version of blockchain technology.
Blockchain energy consumption
Bitcoin has been attacked for high energy consumption. Headlines pointing out that Bitcoin’s electricity usage is comparable to a country’s total consumption is a popular critique. Comparisons are useful, but they can have a deceptive framing effect. For example, the statistics most often cited in these attention-grabbing headlines are taken from the Cambridge Center for Alternative Finance (CCAF). The same organization also points out that transmission and distribution electricity losses in the United States could power the entire Bitcoin network 2.2 times. Always-on electrical devices in America consume 12.1x more energy than the Bitcoin network.
So, the Bitcoin network uses as much electricity as a small country or far less than one sliver of America’s energy budget. Is that a lot? It depends on how you look at it.
Related:Is Bitcoin a waste of energy? Pros and cons of Bitcoin mining
Another often used critique is that Bitcoin’s electricity consumption is growing so rapidly that Bitcoin emissions alone could push global warming above 2°C, or consume all of the world’s energy by 2020. The latter didn’t happen. Why? First, like most network-based technologies, Bitcoin is following an adoption curve defined by the theory of diffusion of innovations — an “S curve.”
The explosive, exponential-like growth in the first half of the curve slows down considerably in the latter half. Second, large and predictable improvements in computer efficiency will continue to lower the energy cost of computing even as Bitcoin’s growth slows. Third, such predictions don’t take into account the evolving energy mixture of Bitcoin.
Blockchain energy mixture
Almost all of the energy consumed by blockchain projects come from electricity used by computers that secure the network. Bitcoin calls these “miners,” but newer blockchain projects can use much more efficient “validators.” Electricity is produced from many different sources, such as coal, natural gas and renewables like solar and hydroelectric. Those sources can create very different levels of carbon emissions, which largely determines their environmental impact. The two most prominent estimates of Bitcoin’s energy from renewables range from 39% in this report to 74% in this report. Either of these estimates is “cleaner” than America’s energy mixture, which is just 12% from renewables.
There is evidence that the public scrutiny to which Bitcoin has been subjected has most likely ensured that energy from renewables will only increase in the future.
Blockchain is worth it
Bitcoin’s energy consumption and composition are not perfect, nor is it as terrible as is often reported. What is often lost in the conversation over Bitcoin’s energy usage is whether Bitcoin’s use of energy is worthwhile. Plenty of industries require energy or produce massive amounts of waste, but most people deem the environmental costs to be worthwhile. The agricultural industry requires massive outlays of fossil fuels for fertilizers and to power field equipment, not to mention producing harmful runoff. Yet, despite the environmental negatives, we recognize the overwhelming importance of growing food. Instead of discarding agriculture, we strive to improve the environmentals of agriculture.
Related:Green Bitcoin: The impact and importance of energy use for PoW
Whether enabling the 1.7 billion unbanked to gain financial inclusion or offering an alternative to predatory international remittance services, it seems clear to me that Bitcoin is worth the energy usage. It’s even clearer that enterprise blockchain is an unmitigated public good.
Newer, alternative blockchain technology uses at least 99.95% less energy than older ones. Enterprise blockchain can use even less energy since it can be tailored for specific use cases. In addition to using significantly less energy, Enterprise blockchain is helping organizations achieve sustainability goals.
Blockchain as a key driver for renewable energy
Solar and wind are now cheaper than fossil fuels such as coal and natural gas. Solar and wind are now comparable to geothermal and hydroelectric. Despite solving the cost problem, renewables have several problems preventing mass adoption. Geothermal and hydroelectric are geography bound. Solar, wind and to a lesser extent, hydroelectric suffer intermittency and grid congestion. Intermittency means they are currently too unreliable. There’s no sun at night, the wind sometimes stops, and there are rainy and dry seasons. Grid congestion is similar to car traffic. Due to geographic constraints, renewables are usually built in rural areas. However, most energy is needed in dense towns and cities. Like a car in a traffic jam, the electricity is delayed getting to its destination.
There are solutions, such as building battery storage and increasing transmission capacity, but these are expensive infrastructure projects. This is where Bitcoin, and blockchain, in general, can help. Unlike Bitcoin miners and other blockchain projects can be built anywhere. They’re profitable businesses so they can essentially subsidize the building of renewable infrastructure by always using excess energy produced.
Related:No, Musk, don’t blame Bitcoin for dirty energy — The problem lies deeper
Another promising energy technology well suited to blockchain is person-to-person (P2P) electricity trading. These energy sharing schemes provide electricity suppliers and consumers with the opportunity to trade energy without the need for existing third-party intermediaries while increasing the level of renewable energy. Similar to renewable infrastructure, blockchain-based projects will incentivize the development of P2P energy grids.
Blockchain enables material procurement and provenance
Consumer demand for more ethically sourced products is steadily increasing. Companies have to prove that their product is produced in such a way that protects the environment and public health, and is made ethically. Consumers wary of greenwashing, have had to rely on information provided by companies. Blockchain-based projects are already changing this dynamic.
Everledger has created tools to increase consumer and enterprise insight into the provenance of a given object. By combining blockchain, AI and IoT, Everledger digitally streamlines compliance processes and allows companies to demonstrate the true origin of their products.
Transparency and traceability will be crucial to fostering consumer trust in food supply chains. Supermarket giant Carrefour and the world’s largest brewer AB InBev partnered with enterprise blockchain developer SettleMint to deliver a digital traceability solution that utilizes dynamic QR codes attached to a product during the packaging process.
Green financing
Green financing is the use of loans to support sustainable companies and fund the projects and investments they make. It will be crucial to close the $2.5 trillion annual SDG funding gap, which is estimated to grow bigger. A good example of green financing is the green bond (GB) market. According to the Climate Bonds Initiative, $269.5 billion in GBs were issued in 2020.
Unfortunately, GBs are not without problems, such as confirming that sustainability metrics are authentic, or that funds were used to support sustainability. Blockchain can immutably store this data, thus, projects can be verified to satisfy sustainability requirements. Blockchain can help in other ways too, like tokenization.
Related:How will blockchain technology help fight climate change? Experts answer
Oi Yee Choo, chief commercial officer at iSTOX, a Singapore-based digital securities exchange, said in this interview: “Even in markets where the demand for green bonds is high because investors are motivated by ESG considerations, tokenization helps investors diversify their portfolio across different bonds because of smaller subscription sizes.”
The blockchain industry is currently far from ideal in terms of environmental sustainability. However, if it maintains its current trajectory, the blockchain industry will not only be an exemplar but an enabler of environmental sustainability.
The views, thoughts and opinions expressed here are the author’s alone and do not necessarily reflect or represent the views and opinions of Cointelegraph.
Matthew Van Niekerk is a co-founder and the CEO of SettleMint — a low-code platform for enterprise blockchain development — and Databroker — a decentralized marketplace for data. He holds a BA with honors from the University of Western Ontario in Canada and also has an international MBA from Vlerick Business School in Belgium. Matthew has been working in fintech innovation since 2006.
2021 has been a breakout year for the cryptocurrency market and aside from Bitcoin price soaring to new highs, the emergence of a vast decentralized finance (DeFi) ecosystem and the rising popularity of nonfungible tokens (NFTs) has thrust blockchain technology into the mainstream in a way that looks guaranteed to ensure mass adoption.
One project that has benefited from its focus on NFTs and the ongoing green revolution is Tezos (XTZ), a layer-one smart contract protocol that is capable of evolving its network without needing to undergo a hard fork.
Data from Cointelegraph Markets Pro and TradingView shows that after hitting a low of $3.23 on Dec. 3, the price of XTZ reversed course, gaining 68% to reach an intraday high of $5.45.
XTZ/USDT 1-day chart. Source: TradingView
Three reasons for the price recovery seen in Tezos include the launch of Ubisoft NFTs on the Tezos blockchain, the projects’ focus on creating an environmentally friendly blockchain platform and rising transactions and protocol revenue on the Tezos network.
Partnership with Ubisoft
The most recent development for Tezos that really got the price moving was the announcement of a significant partnership with video game maker Ubisoft. The gaming company is launching Ubisoft Quartz, a platform where users can acquire unique NFTs called Digits which can be used in game and and the platform will utilize Tezos blockchain.
.@Ubisoft Quartz is built on @Tezos, an energy-efficient and self-upgradable Proof of Stake blockchain.
Learn more at https://t.co/MzfgmL4IrX#Tezos #CleanNFT #BlockchainEvolved https://t.co/XlSEZeVlmM
— Tezos (@tezos) December 7, 2021
Blockchain-based gaming has emerged as one of the hottest sectors of the cryptocurrency ecosystem in the second half of 2021 and a partnership with one of the largest video game makers in the world could lead to long-term bullish outcomes for Tezos.
The beta for Ubisoft Quartz is scheduled to launch on Dec. 9 and will be open to players of Tom Clancy’s Ghost Recon: Breakpoint. Players who meet certain criteria will be able to claim three free cosmetic NFT drops for being early adopters of the platform.
Focus on environmental sustainability
Another reason for the growing strength of Tezos is the protocol’s focus on creating an environmentally friendly and sustainable blockchain network. The network utilizes a proof of stake consensus mechanism that is known to offer an energy-efficient alternative to more traditional proof of work blockchains such as Bitcoin (BTC).
According to a report released by the project, “the total annual carbon footprint of the Tezos blockchain is equivalent to the average energy footprint of 17 global citizens.”
Reducing the energy required to operate the Tezos network has been a goal of the project for some time which has resulted in a 70% increase in energy efficiency on a per-transaction basis for the network in 2021 resulting in the “electricity requirement per transaction being less than 30% in 2021 than what it was in 2020.”
Related:Tezos blockchain records 70% increase in energy efficiency in 2021: PwC report
Transaction volumes and revenues rise
In just the past few days, the Tezos network has seen an increase in transaction volume and protocol revenue as each spiked to the highest levels seen in 2021.
XTZ daily transaction volume vs. total revenue. Source: Token Terminal
As seen in the graph above, the transaction volume on Tezos surged to a record-high $369 million on Dec. 3, which could be ae hint that some investors had caught wind of the Ubisoft news.
The jump in activity and revenue came as the project announced the completion of its Hangzhou upgrade, the 8th protocol upgrade for the Tezos network which demonstrated the project’s ability to self-amend and upgrade without the need to conduct a hard fork.
VORTECS™ data from Cointelegraph Markets Pro began to detect a bullish outlook for XTZ on Dec. 5, prior to the recent price rise.
The VORTECS™ Score, exclusive to Cointelegraph, is an algorithmic comparison of historical and current market conditions derived from a combination of data points including market sentiment, trading volume, recent price movements and Twitter activity.
VORTECS™ Score (green) vs. XTZ price. Source:Cointelegraph Markets Pro
As seen in the chart above, the VORTECS™ Score for XTZ began to pick up on Dec. 4 and reached a high of 87 on Dec. 5, around 21 hours before the price increased 49% over the next two days.
The views and opinions expressed here are solely those of the author and do not necessarily reflect the views of Cointelegraph.com. Every investment and trading move involves risk, you should conduct your own research when making a decision.