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ABOUT THE AUTHORS:
Nicole L. Klenk, Katie Meehan, Sandra Lee Pinel, Fabian Mendez, Pablo Torres Lima, andDaniel M. KammenNicole Klenk'sresearch examines the role of (environmental) science in society, the science-policy interface, the politics of knowledge co-production, mobilization and application, and new modes of environmental governance. Her research is mostly situated in the interpretive social sciences and her theoretical orientation is interdisciplinary, drawing from science studies, post-structuralist political theory, and pragmatism. Her areas of focus are forestry, biodiversity conservation and climate change adaptation.
Email: email@example.comFabian Mendez, physician and PhD in Epidemiology, is full time professor and head of the School of Public Health at the Universidad del Valle in Cali, Colombia. His research interests focus in the complex relationships between environment and health with interdisciplinary approaches. He has developed research in different topics from vector borne diseases to health effects of environmental pollutants, and right now develops a project to evaluate health vulnerability to climate change with a watershed approach in an area of Colombia.
Katie Meehan is assistant professor of Geography and co-director of the Science, Environment, and Society Lab at the University of Oregon. Her research and teaching interests focus on water governance, urbanization, the science-policy interface, and climate change adaptation. Recent work, supported by a Fulbright NEXUS grant, examines the spatial governance challenges associated with institutionalizing local knowledge and non-networked water supply technologies in Mexico City
Email:firstname.lastname@example.orgSandra Lee Pinel is a certified community and regional planner (AICP) and SFAA member since 1988. PhD in Urban and Regional Planning with minors in Anthropology and Latin American Studies. Research on co-management and collaborative planning with local and indigenous communities and government agencies. Assistant professor of sustainable community and regional planning at the Department of Conservation Social Sciences, U Idaho. Area focus includes Pueblo tribes in the Southwest, Philippines, Peru, and northern United States protected areas and community interface.
Pablo Torres LimaAgronomist specialist in the areas of sustainable development, social anthropology, regional development, environmental design, agroecology, farming systems and social organization.
This project is supported by the Fulbright NEXUS Regional Fellows Program, for which Daniel Kammen is a Co-Lead Scholar, and all of the other authors are 2014 - 2016 Fellows.
Actualizing the Vision of Laudato Si’: On Care for Our Common HomeRoundtable at the Pontifical Academy of SciencesNovember 2, 2016
On the Vatican website: click here.
Laudato Si’ is a powerful text, political and poetic, and deeply inspiring. It addresses the most critical issues of our time in vision and substance. It elucidates the necessity and means of “individual ecological conversion”, to see the “world as a sacrament of communion.”
Two of its guiding tenets are “the human environment and the natural environment deteriorate together”, and that we have mutually reinforcing obligations to the earth and to each other. The Beatitudes provide the philosophy to shape our work of transforming and healing society and our planet. The Encyclical provides the blueprint.
The following means and principles to actualize the vision of Laudato Si’ were put forward at the 2 November 2016 Roundtable at the Pontifical Academy of Sciences:
Expand the dialogue with those with influence and power (noting specifically those who drive investment decisions) on the dovetailing of environmental and social issues - “the book of nature is one and indivisible” - and its relevance and implications; toward that end establish a sustainable investment advisory committee for the Vatican’s own investment activities.
Continued personal engagement and presence of the Pope in delivering and keeping current the message of Laudato Si’. The more Pope Francis speaks about climate change and Laudato Si’, the more he will influence public opinion around the world.
A detailed and well resourced communication and messaging strategy for Laudato Si’, targeted to diverse audiences, which stresses the urgency of the challenge. A plan, differentiated in style, tone, pace and suggested terms of engagement for the four different generations that are active at this moment in history. The different generations should be addressed on their own terms, and with their input. Engage leaders in social media to spread and evolve the message of Laudato Si‘.
That the institution of the Catholic Church, serving as spiritual guide and moral messenger, also serve as physical and behavioral example, modeling in microcosm, the planetary vision of Laudato Si’ by accelerating the conversion to sustainable stewardship of its own land and assets, the Church’s training programs for priests being a powerful, integral aspect.
Promote an interdisciplinary interfaith forest, land and climate initiative - which acknowledges the “mysterious relations between things” - convened and directed by an inclusive public private partnership.
Be aware of and address the emotional and spiritual implications and sorrow deriving from our “disfigurement” of our common home, which we have “burdened and laid waste,” and from distressing commercialism, which “baffle[s] the heart.” Laudato Si’ needs to be widely discussed, shared and acted upon in public and mental health circles, for which it has profound relevance.
Principles to incorporate in the various work of our communities, and additional points of discussion:
Understand the relationship between “velocity” of current culture and the loss of internal, spiritual time and time for reflection, which is necessary for building a just and compassionate society.
Recognize that energy poverty is a major impediment to equity and harmony both within and between communities and nations, and greatly impedes our progress in sustaining the Earth as our common home.
Support grass roots activist movements and individuals, as powerful countervailing as well as spiritually enriching forces that make the need for global stewardship vibrant and accessible.
Assure that indigenous forest inhabitants have meaningful work that arises from their values, and their relationship to the land. Assure that there are specific avenues for the wisdom of these communities to permeate our atomized civil societies.
Encourage down to earth dialogue among faith communities and civil society on the subject of environmental market mechanisms which, like any other tool, can be used either for good or ill, remaining mindful that the Economy is a subset of Nature, and not the other way around.
Support governments in crafting policies and laws which reflect our moral and spiritual obligations to each other and to Nature, as they translate into physical and material obligations.
Work to establish local and national commitments to use-inspired basic research, required for sustainable energy and water systems and valuing forests. Research and innovation is a vital tool in implementing the Encyclical, will foster beneficent new technologies, narrow the gap between Nature and technology, and allow people and Nature again to “extend a friendly hand to one another.”
We need a change of heart; we need to increase tenderness towards each other and the environment, and the way we will get there is not built solely on greater analytical insights and new policy, but also moving aesthetic experiences that raise our minds, hearts, and souls towards the good the transcendental, and the holy.
Diets of those consuming industrially produced meat, notably cattle, require a disproportionate amount of arable land, and water. This extravagant inequity highlights that, as with what we purchase, what we eat is a moral choice. Nature’s bounty can be sufficient for all needs, but not all greed.
Engage the spiritual infrastructure of our world geographically, and include georeligious dynamics in dialogues about environmental programs and policy. Keep the spirit of Laudato Si' alive, repeated, and deeply ingrained in communities of faith through communications media, actionable geography-relevant materials (like maps with guided land-use and land/facility maintenance suggestions for various dioceses), and through scientific, and NGO partnerships.
Disseminate a central lesson of Laudato Si’: that we bear moral responsibility for the full lifecycle of activity resulting from our individual economic actions. We each have personal responsibility for the environmental harm caused by the energy we use or the food we eat, any inequity or injustice in the product supply chains that provide us goods and services, and the byproducts and waste we create.
Operationally capitalize on and expand the commonalities between religions, communities, and beliefs around the planet, a shared language that can build understanding and cooperation to support sustainability.
Laudato Si’, explicitly and implicitly, grounds our material reality in a cosmological view of interrelatedness - in the tradition of St. Francis, Teilhard de Chardin, Thomas Berry, among others - proclaiming the Universe a “communion of subjects,” and not “a collection of objects.” (Thomas Berry, 1999)
November 2, 2016 - NatureWith prices for renewables dropping, many countries in Africa might leap past dirty forms of energy towards a cleaner future
At the threshold of the Sahara Desert near Ouarzazate, Morocco, some 500,000 parabolic mirrors run in neat rows across a valley, moving slowly in unison as the Sun sweeps overhead. This US$660-million solar-energy facility opened in February and will soon have company. Morocco has committed to generating 42% of its electricity from renewable sources by 2020.
Across Africa, several nations are moving aggressively to develop their solar and wind capacity. The momentum has some experts wondering whether large parts of the continent can vault into a clean future, bypassing some of the environmentally destructive practices that have plagued the United States, Europe and China, among other places.
“African nations do not have to lock into developing high-carbon old technologies,” wrote Kofi Annan, former secretary-general of the United Nations, in a report last year. “We can expand our power generation and achieve universal access to energy by leapfrogging into new technologies that are transforming energy systems across the world.”
That's an intoxicating message, not just for Africans but for the entire world, because electricity demand on the continent is exploding. Africa's population is booming faster than anywhere in the world: it is expected to almost quadruple by 2100. More than half of the 1.2 billion people living there today lack electricity, but may get it soon. If much of that power were to come from coal, oil and natural gas, it could kill international efforts to slow the pace of global warming. But a greener path is possible because many African nations are just starting to build up much of their energy infrastructure and have not yet committed to dirtier technology.
Several factors are fuelling the push for renewables in Africa. More than one-third of the continent's nations get the bulk of their power from hydroelectric plants, and droughts in the past few years have made that supply unreliable. Countries that rely primarily on fossil fuels have been troubled by price volatility and increasing regulations. At the same time, the cost of renewable technology has been dropping dramatically. And researchers are finding that there is more potential solar and wind power on the continent than previously thought—as much as 3,700 times the current total consumption of electricity.
This has all led to a surging interest in green power. Researchers are mapping the best places for renewable-energy projects. Forward-looking companies are investing in solar and wind farms. And governments are teaming up with international-development agencies to make the arena more attractive to private firms.
Yet this may not be enough to propel Africa to a clean, electrified future. Planners need more data to find the best sites for renewable-energy projects. Developers are wary about pouring money into many countries, especially those with a history of corruption and governmental problems. And nations will need tens of billions of dollars to strengthen the energy infrastructure.
Still, green ambitions in Africa are higher now than ever before. Eddie O'Connor, chief executive of developer Mainstream Renewable Power in Dublin, sees great potential for renewable energy in Africa. His company is building solar- and wind-energy facilities there and he calls it “an unparalleled business opportunity for entrepreneurs”.
Power outages are a common problem in many African nations, but Zambia has suffered more than most in the past year. It endured a string of frequent and long-lasting blackouts that crippled the economy. Pumps could not supply clean water to the capital, Lusaka, and industries had to slash production, leading to massive job lay-offs.
The source of Zambia's energy woes is the worst drought in southern Africa in 35 years. The nation gets nearly 100% of its electricity from hydropower, mostly from three large dams, where water levels have plummeted. Nearby Zimbabwe, South Africa and Botswana have also had to curtail electricity production. And water shortages might get worse. Projections suggest that the warming climate could reduce rainfall in southern Africa even further in the second half of the twenty-first century.
Renewable energy could help to fill the gap, because wind and solar projects can be built much more quickly than hydropower, nuclear or fossil-fuel plants. And green-power installations can be expanded piecemeal as demand increases.
Egypt, Ethiopia, Kenya, Morocco and South Africa are leading the charge to build up renewable power, but one of the biggest barriers is insufficient data. Most existing maps of wind and solar resources in Africa do not contain enough detailed information to allow companies to select sites for projects, says Grace Wu, an energy researcher at the University of California, Berkeley. She co-authored a report on planning renewable-energy zones in 21 African countries, a joint project by the Lawrence Berkeley National Laboratory (LBNL) in California and the International Renewable Energy Agency (IRENA) in Abu Dhabi. The study is the most comprehensive mapping effort so far for most of those countries, says Wu. It weighs the amount of solar and wind energy in the nations, along with factors such as whether power projects would be close to transmission infrastructure and customers, and whether they would cause social or environmental harm. “The IRENA–LBNL study is the only one that has applied a consistent methodology across a large region of Africa,” says Wu. High-resolution measurements of wind and solar resources have typically been done by government researchers or companies, which kept tight control of their data. The Berkeley team used a combination of satellite and ground measurements purchased from Vaisala, an environmental monitoring company based in Finland that has since made those data publicly available through IRENA's Global Atlas for Renewable Energy. The team also incorporated geospatial data—the locations of roads, towns, existing power lines and other factors—that could influence decisions about where to put energy projects. “If there's a forest, you don't want to cut it down and put a solar plant there,” says co-author Ranjit Deshmukh, also an energy researcher at Berkeley.
The amount of green energy that could be harvested in Africa is absolutely massive, according to another IRENA report, which synthesized 6 regional studies and found potential for 300 million megawatts of solar photovoltaic power and more than 250 million megawatts of wind. By contrast, the total installed generating capacity—the amount of electricity the entire continent could produce if all power plants were running at full tilt—was just 150,000 megawatts at the end of 2015. Solar and wind power accounted for only 3.6% of that.
The estimate of wind resources came as a surprise, says Oliver Knight, a senior energy specialist for the World Bank's Energy Sector Management Assistance Program in Washington DC. Although people have long been aware of Africa's solar potential, he says, as of about a decade ago, few local decision-makers recognized the strength of the wind. “People would have told you there isn't any wind in regions such as East Africa.”
The World Bank is doing its own studies, which will assess wind speeds and solar radiation at least every 10 minutes at selected sites across target countries. It will ask governments to add their own geospatial data, and will combine all the information into a user-friendly format that is freely available and doesn't require advanced technical knowledge, says Knight.“It should be possible for a mid-level civil servant in a developing country to get online and actually start playing with this.”
SOUTH AFRICA LEADS
In the semi-arid Karoo region of South Africa, a constellation of bright white wind turbines rises 150 metres above the rolling grassland. Mainstream Renewable Power brought this project online in July, 17 months after starting construction. The 35 turbines add 80 megawatts to South Africa's supply, enough to power about 70,000 homes there.
The Noupoort Wind Farm is just one of about 100 wind and solar projects that South Africa has developed in the past 4 years, as prices fell below that of coal and construction lagged on two new massive coal plants. South Africa is primed to move quickly to expand renewable energy, in part thanks to its investment in data.
Environmental scientist Lydia Cape works for the Council for Scientific and Industrial Research, a national lab in Stellenbosch. She and her team have created planning maps for large-scale wind and solar development and grid expansion. Starting with data on the energy resources, they assessed possible development sites for many types of socio-economic and environmental impact, including proximity to electricity demand, economic benefits and effects on biodiversity.
The South African government accepted the team's recommendations and designated eight Renewable Energy Development Zones that are close to consumers and to transmission infrastructure—and where power projects will cause the least harm to people and ecosystems. They total “about 80,000 square kilometres, the size of Ireland or Scotland, roughly”, says Cape. The areas have been given streamlined environmental authorization for renewable projects and transmission corridors, she says.
But for African nations to go green in a big way, they will need a huge influx of cash. Meeting sub-Saharan Africa's power needs will cost US$40.8 billion a year, equivalent to 6.35% of Africa's gross domestic product, according to the World Bank. Existing public funding falls far short, so attracting private investors is crucial. Yet many investors perceive African countries as risky, in part because agreements there require long and complex negotiations and capital costs are high. “It's a real challenge,” says Daniel Kammen, a special envoy for energy for the US Department of State and an energy researcher at the University of California, Berkeley. “Many of these countries have not had the best credit ratings.”
Elham Ibrahim, the African Union's commissioner for infrastructure and energy, advises countries to take steps to reassure private investors. Clear legislation supporting renewable energy is key, she says, along with a track record of enforcing commercial laws.
South Africa is setting a good example. In 2011, it established a transparent process for project bidding called the Renewable Energy Independent Power Producer Procurement Programme (REIPPPP). The programme has generated private investments of more than $14 billion to develop 6,327 megawatts of wind and solar.
Mainstream Renewable Power has won contracts for six wind farms and two solar photovoltaic plants through REIPPPP. “This programme is purer than the driven snow,” says O'Connor. “They publish their results. They give state guarantees. They don't delay you too much.” Although the country's main electricity supplier has wavered in its support for renewables, the central government remains committed to the programme, he says. “I would describe the risks in South Africa as far less than the risks in England in investing in renewables.”
For countries less immediately attractive to investors, the World Bank Group launched the Scaling Solar project in January 2015. This reduces risk to investors with a suite of guarantees, says Yasser Charafi, principal investment officer for African infrastructure with the International Finance Corporation (IFC) in Dakar, which is part of the World Bank Group. Through the Scaling Solar programme, the IFC offers low-priced loans; the World Bank guarantees that governments will buy the power generated by the projects; and the group's Multilateral Investment Guarantee Agency offers political insurance in case of a war or civil unrest.
Zambia, the first country to have access to Scaling Solar, has won two solar projects that will together provide 73 megawatts. Senegal and Madagascar were next, with agreements to produce 200 and 40 megawatts, respectively. Ethiopia has just joined, and the IFC will give two further countries access to the programme soon; its target is to develop 1,000 megawatts in the first 5 years.
MAKING IT FLOW
That power won't be useful if it can't get to users. One of the big barriers to a clean-energy future in Africa is that the continent lacks robust electricity grids and transmission lines to move large amounts of power within countries and across regions.
But that gap also provides some opportunities. Without a lot of existing infrastructure and entrenched interests, countries there might be able to scale up renewable projects and manage electricity more nimbly than developed nations. That's what happened with the telephone industry: in the absence of much existing land-line infrastructure, African nations rapidly embraced mobile phones.
The future could look very different from today's electricity industry. Experts say that Africa is likely to have a blend of power-delivery options. Some consumers will get electricity from a grid, whereas people in rural areas and urban slums—where it is too remote or too expensive to connect to the grid—might end up with small-scale solar and wind installations and minigrids.
Still, grid-connected power is crucial for many city dwellers and for industrial development, says Ibrahim. And for renewables to become an important component of the energy landscape, the grid will need to be upgraded to handle fluctuations in solar and wind production. African nations can look to countries such as Germany and Denmark, which have pioneered ways to deal with the intermittent nature of renewable energy. One option is generating power with existing dams when solar and wind lag, and cutting hydropower when they are plentiful. Another technique shuttles electricity around the grid: for example, if solar drops off in one place, power generated by wind elsewhere can pick up the slack. A third strategy, called demand response, reduces electricity delivery to multiple customers by imperceptible amounts when demand is peaking.
These cutting-edge approaches require a smart grid and infrastructure that connects smaller grids in different regions so that they can share electricity. Africa has some of these 'regional interconnections', but they are incomplete. Four planned major transmission corridors will need at least 16,500 kilometres of new transmission lines, costing more than $18 billion, says Ibrahim. Likewise, many countries' internal power grids are struggling to keep up.
That's part of what makes working in energy in Africa challenging. Prosper Amuquandoh is an inspector for the Ghana Energy Commission and the chief executive of Smart and Green Energy Group, an energy-management firm in Accra. In Ghana, he says, “there's a lot of generation coming online”.
The country plans to trade electricity with its neighbours in a West African Power Pool, Amuquandoh says, but the current grid cannot handle large amounts of intermittent power. Despite the challenges, he brims with enthusiasm when he talks about the future: “The prospects are huge.”
With prices of renewables falling, that kind of optimism is spreading across Africa. Electrifying the continent is a moral imperative for everyone, says Charafi. “We cannot just accept in the twenty-first century that hundreds of millions of people are left out.”
Link to the article:
It’s shocking for me (Robert) to accept that my home could be wiped out by greatly rising seas. That’s because I live on a hill north of San Diego, 45 feet above sea level and more than a mile inland from the coast. Equally shocking to me (Dan) is that the current coastline of my beloved Mendocino County, California, could largely disappear, a place where I spend weekends with my daughters exploring rivers that run inland, deep into wine country. These inundations won’t happen this century, but that is little solace. At the rate the world is going, land so dear to our hearts could slip under the sea and stay there for thousands of years.
That hurts. Most of us believe our homes, our towns, our cities will be here for centuries and millennia to come. And why not? In Europe and across Asia millions of people live in cities that are thousands of years old. Indeed, inspired by European permanence, Robert’s family built garden walls from stone and fondly looked forward to passing on the land to hoped-for-grandchildren, and theirs, and so on.
That idea, however, now seems flawed to both of us writing this article. Strong, new research indicates that anyone or anything tens of feet above the sea today may one day face an unbeatable force, whether a country home near San Diego or a skyscraping condo in Miami. Although shorelines are forever evolving, these changes can be predicted directly, and are due to needlessly excessive carbon dioxide (CO2) emissions from a relatively brief, recent period of time.
How has the public not been made clearly and painfully aware of this? Why does fierce debate over climate miss so glaring a threat? The misperception, the widespread disbelief and the fallacy are rooted in a grave error in our thinking about time.
AN ARTIFICIAL HORIZON
The many models that have projected scenarios about future climate change generally forecast only to the year 2100, or at times merely to 2050. As a result, public discussions have been mostly about “X degrees of warming” or “Y feet of sea level rise” to the end of this century. We have accidentally but notably limited our thinking, causing us to miss striking impacts that arise beyond this limited and artificial, specific time horizon.
It is fair to say that citizens and politicians intend for Miami, and indeed the whole State of Florida, to exist well beyond 2100. Same for New York City, Boston, Washington D.C., London, Shanghai, Amsterdam, Mumbai and so on. Yet the same people discount staggering losses these places face beyond 2100. That’s wrong, and immoral too.
That’s because a crucial fraction of airborne carbon from the industrial revolution, plus that coming this century and next, will persist for tens to hundreds of thousands of years. The CO2 stemming from just 150 years ago to a mere two centuries ahead may commit the world by inertia to tens of thousands of years of impacts.
Anything going on for tens of thousands of years ahead essentially means “forever” on human time scales. These new data imply that we’re creating a kind of forever legacy, one that potentially can’t be ever forgotten, or fixed, no matter how far ahead we conceive of humanity.
We are doing ourselves a dreadful disservice by consistently framing 2100 as essentially the last, final year of impacts. We’re thinking in a blinkered way decades out, while our foot is pressing hard on a warming accelerator that has serious impacts centuries out.
How, then, can we think about climate and seas in truer time frames?
An admirable new paper by Peter Clark and colleagues in Nature Climate Change, titled “Consequences of Twenty-First-Century Policy for Multi-Millennial Climate and Sea-Level Change,” illuminates the issue and helps point a way ahead. It addresses sea level rise in a longer term from a scientific perspective.
The authors first analyze data that show how a major rise in CO2 and warming from 20 millennia ago brought Earth out of an ice age. Air temperatures continued to rise over a long period from the Ice Age to the near-modern climate that began some 11 millennia ago. From that time onward, CO2 levels and air temperatures sharply leveled off.
Sea levels, which were 400 feet lower than today, did not stop rising, however. They continued rising long past when air temperatures reached their plateau, rising for another 8,000 years, climbing another 150 feet up to today’s height. The oceans did not achieve the near-current state that we all know as modern coasts and maps until roughly 3,000 years ago.
The mere sliver (in geologic time) of climate stability in the last 10 or so millennia has dearly helped human societies and cultures to flourish. But the lesson is that seas are acutely sensitive to CO2 and temperatures, and they can have inertia lagging the carbon cycle and climate system. That means today’s oceans could go on rising very long after CO2 might be steadied—even if humanity takes determined action to slow rises in CO2worldwide, or even decrease emissions. This thorny fact is not widely appreciated.
As Clark and his co-authors note, one-fifth to half of the airborne CO2released by human industry so far and in the next 100 years will still be present in the atmosphere by the year 3000. Combine CO2 persistence with the inertia of seas and it can mean sea level rise might go on at least 10 or more millennia—the unimaginable. There is no easy off switch to halt the rising of seas, no matter how much future societies might wish it to end.
The opportunity to go on ignoring this basic dynamic is now vanishingly small. There’s already been a well-accepted 1.5 degree Fahrenheit increase in global temperatures since 1900. That change alone seems to come close to the greatest variations that have occurred over the previous 10,000 years.
The current rate of change is just as concerning. It had taken a long period, from some 21 millennia to 12 millennia ago, for atmospheric concentrations of CO2 to jump by 80 parts per million (ppm), from about 190 to 270 ppm. In that time span global temperatures rose by an average of 7 degrees F. We are on track to repeat that kind of increase over a much shorter period.
Keep in mind what that scale of change means. A difference of 7 degrees F separates today’s “ideal” climate from the extreme conditions of an ice age. For a refresher, the Ice Age built ice sheets over Canada, New England, parts of the Midwestern U.S., Northern Europe and Northern Asia. The Great Lakes were born when those sheets retreated. The meltwater retreat created Long Island in New York, and Cape Cod. Huge impacts were thus wrought by 7 degrees F; ice stood two miles tall over parts of North America, and shaped the elevations of a continent we know today.
Just imagine if there’s another 7 degrees F of global warming ahead. Certainly that would alter land, sea and ecology in scales and ways hard to fathom.
By looking back to Earth’s more distant past we know that with a temperature rise of “only” 2 degrees to 5 degrees F warmer, seas could rise 15 to 65 feet, a level that would drown so much today. For a thought experiment, adding 5 degrees F of warming is very imaginable, given current trends of increasing CO2. So it is reasonable to imagine seas 60 feet higher. That would render all of Florida a memory, almost all of New York City, much of the Eastern seaboard, parts of the Western U.S. and Gulf Coasts—and (Robert’s) acre of San Diego land that today is a mile from the present shore.
Mechanisms by which this happens are easy to fathom. Greenland’s ice sheet stores only 22 feet of potential sea level rise, possibly ongoing for some 10 millennia. However, the Antarctic ice sheet stores around 150 feet of potential rise in that same time frame. Ironically, over the last dozen years, the East section of the Antarctic ice sheet annually has gained some 175 trillion pounds of ice. But West Antarctic annually has lost much more, some 275 trillion pounds of ice. (Greenland has averaged 600 trillion pounds of ice lost yearly, which is equivalent to10 billion trucks a year carting ice away).
We may be heading quite outside of conditions known in human recorded history. Earth might even begin to exhibit changes of states that only can be guessed at. A new study, for instance, shows that net melting is causing Earth to slightly change how it moves on its polar axis. Days are getting just very slightly longer as ice melts at poles and redistributes that mass as water towards the equator. A very tiny change in Earth’s spin may not be troubling, yet it helps to show the magnitude of changes possible from CO2. Even distant earthquakes conceivably can grow in size or frequency, as unburdening crust rebounds after losing trillions of tons of ice. That in turn also could mean increased volcanism and tsunamis worldwide.
These threats may be on long timescales but there’s an acute need for scientific knowledge, measured in and across millennia, to seep into our global discussions.
August 2016 was the planet’s warmest month on record, by a lot. It was the 16th month in a row that a monthly heat record fell, way beyond any such streak in 137 years of record keeping. Arctic temperatures were an eye-opening 20 degrees F above normal. With relatively extreme levels of heat covering the Arctic, ice levels in the winter there were the lowest ever recorded. Nights have stayed warmer worldwide, too, making heat waves tougher to endure. This happened alongside the largest, single-year jump in atmospheric CO2 concentrations ever recorded. The level is now over 400 ppm and rising. And the global ocean reached record warmth as well.
So what does all this mean for sea level rise?
An international panel in 2013 had given scenarios for rise in this century mainly based on straightforward expansion of warming oceans. They only allowed for a small influence from marine ice-sheet instability, known as MISI, primarily on the assumption that Antarctic ice sheets were too stable and vast to irreversibly shrink this century.
The report presented an optimistic lower-end CO2 scenario that assumed strong actions would be taken later this century to reduce CO2 emissions, and which predicted an estimated 1 foot of rise (0.3 to 0.6 meters) by 2100. The higher-end estimate, based on current trends continuing and little strong action this century to reduce CO2, led to 3 feet of rise by 2100, with the rate increasing rapidly to between one third to over half of an inch (8 to 16 millimeters) per year during the last two decades of this century. Such a rate only a century hence could be up to 10 times the 20th century average rise and might possibly approach what had occurred around end of the Ice Age, when seas rose rapidly.
In the three years since that major report, three new papers on ice-sheet dynamics have shown that our prior understanding was incomplete, and that MISI mechanisms may be much more extensive across the Antarctic. The enormous Pine Island Glacier in Antarctica, for example, is thinning and retreating at a quickening rate. Mechanisms in newer models show that mass loss from unstable retreat may potentially become significant, sooner than expected. Some early collapse may be starting at the Thwaites Glacier now. Unexpected collapse of the Antarctic marine ice sheet could cause previous upper estimates of sea level rise to be exceeded not long after the end of this century. Although the timescale is uncertain, more rapid collapse could occur in a relatively short time period of two to nine centuries.
Furthermore, an important paper released in 2016 notes marine ice cliffs may be becoming instable, another mechanism for yet more rapid retreat through 2100. A different paper, out in March, shows sea levels could start to rise much more than was forecast in the prior lower-end scenarios. It indicates that more than 40 feet of rise may potentially come just from Antarctica by 2500, in accord with higher-end scenarios for CO2.
The point here is that 2100 shouldn’t be regarded as a terminal year. To do so is folly, a fallacy in thinking. Life goes on, people do not end there, and seas will not suddenly halt their rise then.
Scientists are natural skeptics, not prone to dramatize their findings. But cause for abundant hope is fading. That ought to stretch our thinking. Listening to the sea and this emerging science should mean adjusting ideas about what’s wise. The paleoclimate record indicates that in periods of meltwater, or termination of the last glacial period, seas possibly might have risen at an astounding rate of a foot per decade, or 10 feet per century. There is no reason to say it can’t happen again, or rise by faster rates. Given aggressive CO2 trends, it must be considered.
Will such ideas lead to sound policy decisions? They should, but probably will not. Consider that likely levels of CO2 could make a folly of putting billions or trillions of dollars into armoring coastlines. One can imagine an enormously long and expensive wall, say 10 feet high, being topped in a century or two. And one can’t even imagine seawalls able to handle oceans going 50 feet higher and rising.
Costly walls might make slightly more sense if rising seas could be counted on to stabilize, or retreat from knowable heights, and do so in a year meaningful to our species. Since neither is the case, capital that might be spent on armoring might instead be deployed in smarter ways. Arguably, rather than spending enormous yet finite capital on costly “hardening,” it would be better to put resources into avoiding CO2emissions, and growing renewable energy in the first place. Prevention rather than cure. That brings up the next part of this story: What, then, should we do?
GLOBAL CLIMATE POLICY: WHERE’S THE ACTION?
One recently celebrated initial step was the Paris climate agreement, spelled out in December 2015. Although pundits thought it would take years to ratify the accord, by October 2016 the needed threshold of 55 nations that also represented 55 percent of global emissions had ratified it, putting it into effect.
Moving from hope to real and difficult action has undermined prior aspirational agreements, however, such as the Kyoto Protocol. Paris is an important start, as is a recent amendment expanding the Montreal Protocol to cover hydrofluorocarbons, but the world is critically short on time and the means to verify reductions, and on finance for the necessary actions to achieve those reductions.
Paris, moreover, isn’t binding. It is no treaty, and it lacks penalties. And perhaps most importantly the formal goal of 2 degrees Celsius (3.6 degrees F) for an “upper limit” on “allowable” warming is in truth a legal fiction, a mere balm for present leaders, since the planet is on a clear path to blow right past it.
Furthermore, science suggests this 2 degrees C of warming is far more dangerous than the negotiators seem to think. Warming with much higher seas for millennia can be already baked in, even at a hoped-for 2 degrees. That is why the Paris Accord left many scientists shaking their heads in despair. There is an enormous gap between how quickly the science says carbon emissions must fall to stay within 2 degrees C, and what global agreements like that from Paris may aim to require.
International equity is important, too. Western nations have already burned through much of the world’s total allowable carbon budget—the amount of carbon the world can burn before the planet is likely to cross the 2-degree threshold. This is profound, and vexing. Developing nations like China and India bear little blame for fuels burned for a century till now, and they may unsurprisingly argue for growth based on carbon-spewing industry of their own.
Yet repeating our same carbon-path is now unaffordable given the global carbon budget. The physical carbon ceiling is wholly unyielding. The chemistry and physics of warming can’t be bargained with or pled to. Therefore, although the Paris climate accord is good as a first step, the need now is for ongoing real action and a strong, continuing commitment to progress to a 1.5 C target. If we act as if Paris and the Montreal Protocol amendment are the major endpoints, not a beginning, that will put off real solutions until it is too late.
There are also pitfalls along the way if we don’t make climate solutions an ongoing process. “Cap-and-trade” systems for carbon emissions in theory can begin a transition to market-based mechanisms but they have already been gamed by many participants because caps are not rigorous and diminishing. A very hard look is needed at how natural gas is implemented: Can a plant be built today and be decommissioned by 2050? So-called “clean coal” is expensive, untested, unwieldy and unworkable, yet it is raised as a panacea. (Lost coal jobs are indeed a concern worthy of much attention, however). Nonstarters like geoengineering are suggested in some desperation, at least in the long term, yet they defy morality and could worsen a spiraling ocean acidification.
Today, opportunity lies in implementing clean, green economies of solar and wind power, and energy efficiency, and geothermal and hydropower when ecologically friendly. The challenges of ocean acidification, fragile ecosystems and climate-induced migration all point to the need to scale up the truly clean energy economy at an exceptional pace.
We suppose that possibly we all could close our eyes and hope that, say, leaders in China go even bigger on clean energy while dropping coal entirely. But China is cutting back on its ambitious solar goals.
We could hope for “negative emissions” by sucking CO2 from the air and sequestering it into stone far below ground. That's technically feasible in certain basaltic rock regions, but the process is extremely expensive, and it is difficult to see this being implemented at a global scale. And that is where the rub is: CO2 dumping is free, today, and CO2 sequestration is costly.
There are steps that make sense. Carbon taxes—including revenue neutral ones where other taxes are reduced—can work because they send unambiguous economy-wide signals. Carbon accounting across the public sector, and for companies wishing to do business with local to national governments, can educate and start the movement to full carbon pricing. Strong crossover policies, such as those linking car purchases to low-carbon goals, also accelerate the process. Financial divestment from fossil fuels—which has been a challenge to implement—is another natural place to begin.
We must consider, then, opportunities that harness viable technology and economics. For example, a simple, transparent carbon tax could be key. It could help get us near where we’ve got to be and hasten green energy. Even many big businesses are now calling for a carbon tax. A simple tax that’s adopted widely could be very significant. But in the U.S. a carbon tax goes unmentioned in political debates.
One way or another, if leaders are going to get real on climate, they have to end fossil fuel subsidies, then phase out fossil fuel use, all while implementing clean, renewable energy for electricity generation and transportation. We should do this for our grandchildren and for their grandchildren. And because it is patriotic, will make us stronger and is far less distorting to our interests than fossil fuel dependence.
These moves are not burdens. They are opportunities. Getting closer to 100 percent renewables could be achieved more readily than most people say. It can make nations stronger and more resilient, and add jobs. In some places like California, China, Denmark, Germany, Kenya and Morocco, renewable energy is progressing faster than in others. But nowhere is it fast enough.
We two authors have spent most of our careers advancing renewable energy and sustainability, addressing climate both in theory and practice around the world—in academia, the public sector, the private sector and as entrepreneurs. Yet nothing currently gives us great hope that very harsh scenarios for climate change and sea level rise, lasting for millennia, will be completely avoided.
Looking at rates of CO2 emissions, and at international actions that lean toward lofty words about future cuts over real action with teeth today, optimism does not spring to mind. In a mere couple of centuries, humans will have committed Earth to new climate regimes and higher seas never seen in our history, that will potentially last millennia.
And we will have done it all, knowing the likely consequences.
The views expressed are those of the author(s) and are not necessarily those of Scientific American.
ABOUT THE AUTHOR(S)
Robert Wilder is a member emeritus of the Director’s Council at Scripps Institution of Oceanography at the University of California, San Diego, and a Fulbright Specialist. He is co-founder of three clean energy indexes; he is at present chair of the WilderHill Clean Energy Index, manager of the WilderHill Progressive Energy Index (for reducing CO2), and co-manager of the WilderHill New Energy Global Innovation Index.
Daniel M. Kammen is a professor of energy at the University of California, Berkeley, where he holds appointments in Energy and Resources Group, the Goldman School of Public Policy, and department of Nuclear Engineering. Kammen is the founding director of the Renewable and Appropriate Energy Laboratory (RAEL). He is also a former Chief Technical Specialist at the World Bank for Renewable Energy and Energy Efficiency and currently serves as a Science Envoy for the U. S. State Department.
David Ferris, E&E reporter
A group of leaders in the solar industry have been holding secret meetings for the last 14 years, strategizing how to make solar the dominant source of energy on Earth.
Called the Solar Circle, it is a quiet sort of brain trust made up of members hand-chosen for their talents and commitment to the cause (see sidebar). It has systematically explored and sought to improve every aspect of the supply chain, playing a behind-the-scenes role as solar transformed from a hippie curiosity into the fastest-growing source of new energy on the power grid.
Twice a year, the group meets like clockwork, despite having no budget, no legal structure and no staff. Members travel on their own dime to weekend retreats that have been held everywhere from Maine to Mexico. And now, after years of brainstorming sessions, deep dives into policy and finance, and late-night guitar sessions, the circle has matured from industry association into something else.
"It has become akin to a family," said Denis Hayes, a founder of Earth Day and an early director of what would become the Department of Energy's National Renewable Energy Laboratory.
The group, founded by 30 representatives from every slice of the solar value chain, is exceedingly diverse. Members are entrepreneurs, philanthropists, engineers, manufacturers, venture capitalists, architects, project developers, activists, lobbyists, physicists, journalists and policymakers, and specialists in most technological means of deriving energy from the sun, as well as adjacent fields like wind power. While the group's thrust is American, it has had delegates from India, Japan, Germany, Great Britain and Hong Kong, and includes innovators who designed the pillars of today's solar landscape.
Many of the founders have been active in solar for decades and are now retired or approaching the end of their careers. They have been supplemented by newcomers who bring the roster of inactive and current members to about 50.
The coterie's older members include Steven Strong, an architect who installed solar panels on the George W. Bush White House; Stanley Bull, a former associate director of the National Renewable Energy Laboratory; and Mike Eckhart, the founding president of the American Council on Renewable Energy and now the head of environmental finance and sustainability at Citigroup. Other, younger members are in the thick of today's turbulent solar market, like Danielle Merfeld, a technology director at General Electric Co.; Tom Starrs, a vice president of solar panel manufacturer SunPower Corp.; Rhone Resch, the recently departed head of the Solar Energy Industries Association; Danny Kennedy, a founder of solar rooftop installer Sungevity (EnergyWire, Feb. 4); and David Hochschild, a member of the California Energy Commission.
The circle was founded in 2002, when the notion of solar playing a serious role on the electric grid was enough to make a congressman laugh. Solar panels were those things that got attached to satellites and blasted into space.
The circle's recruits were early believers in the science of climate change and had a fervent hope that solar could replace the carbon-spewing coal plants that formed the country's energy backbone. But their industry — if it could even be called that — was so small and fragmented that many of its members had never met.
Now most are astonished at how fast and how large solar has grown. Since the circle's founding, the price of an installed residential rooftop solar system has dropped from $11 a watt to less than $4, and the solar industry employs over 200,000 Americans, more than the number who work in oil and gas extraction (EnergyWire, Jan. 12). Solar farms produce only a slim fraction of U.S. electricity — six-tenths of 1 percent as of last year, according to the U.S. Energy Information Administration — but adoption is skyrocketing. If trends hold, this year will see solar bring more new capacity to the U.S. grid than any other source.
That acceleration has some members of the circle wondering whether they still have a role to play. On one hand, solar has scaled to a size they could scarcely imagine; on the other, it has a long way to go if it is to meet the group's professed goal of ruling the world's energy system.
In any case, the circle has tapped its members into an energy source they could find nowhere else.
"It allowed us to take a breath for a moment, marshal our resources and be stimulated intellectually," said Scott Sklar, a solar lobbyist and a former director of the Solar Energy Industries Association. "It was a way to cloister away with people who were as crazy as you were."
The group hopscotches across the country, alternating between the East and West coasts, seeking out nature retreats and organic food when it can. It has converged near a space observatory in the Colorado Rockies, at a convent, at an eco-conference center outside Washington, D.C., and several times at Asilomar, the famed meeting spot on the central California coast. Members have brought their families to Hawaii and met on the shores of Mexico's largest freshwater lake.
Other times, they come together at members' offices, such as in Seattle (at the Bullitt Center, run by Hayes); Oakland, Calif. (headquarters for Sungevity, co-founded by Kennedy); and Chicago, at the offices of Howard Learner, the executive director of the Environmental Law & Policy Center.
Everyone's contribution is different. Hochschild tees up tantalizing political conversations. Joel Makower, the founder of GreenBiz.com, who attended in the early days, counseled on how to expand the group's message to the larger energy industry. Julie Blunden, a former vice president of SunEdison and SunPower, delivers a detailed talk on the financial state of the industry, while Donald Aitken, an educator and sustainable building expert, gives the latest on climate change. Barbara Harwood, an advocate for affordable energy-efficient homes, was a deep thinker who spoke rarely; Dan Shugar, one of the most successful serial entrepreneurs in solar, is known for yelling and pounding the table when he gets worked up.
Most conversations revolve around photovoltaic solar power on the U.S. power grid. But some members doggedly remind their colleagues that there are plenty of other ways to produce solar power and many other places that need it.
Robert Shaw, an early investor in solar manufacturing, talks about the possibility of using sun power to create hydrogen fuel. ("It's a lonely subject to bring up, but I do it at every meeting," Shaw said.) Bill Guiney, who started the solar arm of industrial conglomerate Johnson Controls, is a vocal advocate of solar-thermal power. Others advise their compatriots that it isn't all about the grid. An early member was Harish Hande, an Indian entrepreneur and a founder of the movement to provide solar lighting for the billion or more people in the developing world who have no electricity. Others in small-scale solar are Titus Brenninkmeijer, an heir to a German clothing fortune who backs clean energy projects, and Richard Hansen, an engineer who focuses on rural Latin America. ("I keep the message going like a parrot," he said. "The sunshine's for all.")
A constant topic of discussion has been finance and how solar power can become affordable. That discussion, led by such members as Blunden, Shaw and Eckhart, is where many of the circle's members say they got their most valuable money lessons.
How could the young industry stimulate manufacturing? How about green banks, which make low-cost loans to low-carbon projects? That latter topic was explored by Alisa Gravitz, the CEO of nonprofit Green America, who served as moderator for the group's early meetings. Other sessions dissected the anatomy of the yieldco, a renewable energy finance instrument that has now fallen on hard times.
"There was a rigorous attention to the costs of solar, very careful tracking, where the chokepoints are, where the points of leverage are," said Bracken Hendricks, former executive director of the Apollo Alliance, a group that in the early 2000s sought to rally labor and environmental groups around renewable energy.
To understand the circle's value, consider what happened when Strong showed off about his solar buildings.
Strong is a little-known but influential architect. His company, Solar Design Associates, created the United States' first entirely solar-powered house and the first solar-powered sports stadium (for the San Francisco Giants), and installed photovoltaic solar panels and a solar hot water system at Bush's White House, on an outbuilding. At one meeting, he proudly gave a slideshow of arrays he had placed on U.S. embassies. His colleagues weren't entirely impressed.
"A number of us said, 'Steve, what's really great is you got the government to realize that solar matters,'" said Jito Coleman, former president of Northern Power Systems, a wind turbine manufacturer. "But the problem is that none of this shit looks good."
That was the starting point for one of the first high-level conversations about the aesthetics of solar panels — a topic that remains vital today. (Tesla Motors Inc.'s Elon Musk in late July revealed that part of his master plan is to make rooftop solar panels "beautiful.")
Every member interviewed for this story said the same thing: The chance to share rough-hewn ideas and get unvarnished feedback made the circle invaluable.
"It's a group that is internally pretty critical of missteps," said Dan Kammen, an energy professor at the University of California, Berkeley. Circlers felt safe sharing sensitive information — the prices of solar modules, the valuations of companies — because conversations were off the record and members came to learn they could trust each other.
Participants also cherish the "calibration exercise" held on Saturday morning, when each member gives an update on how things look from his or her part of the industry. No other venue exists where members get a 360-degree view of what's going on. Afterward, the group follows an agenda through the rest of the weekend that includes small group sessions, presentations and discussions.
"I've never left a meeting wanting more," Guiney said, "other than more time."
Secrecy has been essential to the circle's success, members said, though secrecy might be the wrong word; "hiding in plain sight" is more like it. Some members mention the circle on their websites or LinkedIn profiles, without elaboration. "It has not had any visibility, and it has not sought any visibility," Hayes said. By meeting out of the public eye, members said, they are able to speak freely.
EnergyWire learned of the circle's existence from a chance comment of one of its members at a public meeting last fall. Since then, 19 members have gone on the record to tell the Solar Circle's story. Many said the circle has been able to stay so low-profile for so long because of a fierce commitment to keep its container tight, as well as a trait that is common in the circle but rarely found among those at the top of an industry: humility. The group has self-selected for members disinclined to boast or brag.
The group has grown, but slowly, as it seeks out a rare combination of traits: unswerving commitment to solar, a high level of expertise, a humble and generous outlook, and the ability to mesh with a well-established clique. Candidates are auditioned and often turned away. "We look at not just what they are but who they are," said Guiney. "We're sharing some personal information, and we want to make sure that is a person who's trustworthy and honorable. They've got to be in it for more than a buck. It's got to be a passion."
Among the additions have been Kennedy and Blunden, as well as Jigar Shah, the founder of solar developer SunEdison, and Merfeld of GE, who caught the attention of Shaw when she gave a talk at Cornell University.
The group has no members from newer companies in the clean energy space that come closest to being household names, such as Tesla, Sunrun Inc. and SolarCity Corp.
"We know people in all of those companies," Shaw said. "I just don't think they matched the personality, the work-together ethic of the group."
A guest speaker or two can be found at almost every retreat. Once, the guest was a Stanford professor who proposed a road map to the U.S. getting 100 percent renewable energy (ClimateWire, June 2); another was a social media expert from President Obama's first presidential campaign. Often it is a local politician who can give the group a ground-level view, such as Jay Inslee, who spoke before the group when he was a congressman and is now the governor of Washington.
Sometimes the guest stirs things up.
A solar city
In 2004, the circle invited Marvin Keshner, a director at Hewlett-Packard Laboratories, who proposed an idea that astonished the circle.
He suggested that photovoltaic solar panels could follow the curve of another silicon-based industry — semiconductors — that had in the 1980s and 1990s scaled to titanic size, using economies of scale to usher in our era of ubiquitous, cheap computing. Keshner proposed that the United States lead an effort to build hundreds of huge solar factories that would produce several gigawatts of panels a year and spread solar to every roof by slashing its price to a dollar a watt. He called this factory a "solar city."
Keshner's proposal was prescient. Massive factories that produce gigawatts of solar modules a year did get built — in China. The cost of an installed solar system may reach $1 a watt — by 2020. And one U.S. company is attempting to steal back China's lead with a solar "gigafactory." Its name? SolarCity.
But back in 2004, when the idea first fell on the circle's ears, it was a revelation. Shaw said, "It was so far away from where the industry was at that point that it was almost unthinkable."
The group briefly considered mounting a manufacturing effort like Keshner suggested but changed its mind after it realized how much that would cost.
The circle was a venue where exciting prospects first entered the minds of some of the industry's leading lights. Ideas are bandied about, in the leisure of a conversation among equals, with little attempt to make them concrete. Thus the Solar Circle has served as a sort of salon for the solar industry, directing intellectual heat onto promising ideas that subtly percolated outward, often at the state level.
The circle counts among its members some of the architects of today's solar landscape. Starrs, the SunPower vice president, originated key parts of net metering, which compensates small-scale solar generators, like homes, for the power they supply the grid — a proposition that now underlies the financial value of much of the country's fleet of rooftop solar panels. Aitken helped draft the first renewable portfolio standards, which are now in place in a majority of U.S. states. Shah of SunEdison pioneered the power purchase agreement, the model that is used by utilities and businesses to contract the power from renewable energy power plants.
The circle often lends a hand to a member in need.
Some of the younger members, now in their 40s, look to the older cohort, many in their 70s, as mentors. Several members said Hochschild got crucial support from the circle as he co-founded Vote Solar, a San Francisco ballot initiative that was one of the first successful attempts to make solar power a voting issue. (Hochschild declined to be interviewed for this story.)
"What's interesting to me is that it remains a tightly correlated group that will help each other out at the drop of a hat," Blunden said. "I go to them for a kick in the pants."
Others, like Kammen, discovered the power of the circle's network. An introduction from another circle member brought two startup founders into the professor's office. Kammen was impressed and became chairman of the startup's research board. Today that company, Enphase, dominates the market for microinverters, which convert direct current to alternating current at the point of the solar panel and have become a key link in smart and efficient solar arrays.
"This was really a group that just had a lot of interesting conversations," Kammen said, "many of which became companies, ideas or white papers."
But conversations are ephemeral, and even the circle's own members don't agree on whether they have had an impact.
"I think that key leaders within the industry were able to be significantly more effective and nimble and creative and timely because of the circle's existence, and I can't help but believe that the incredible success of the solar industry has been greatly supported by the existence of the circle," said Hendricks.
Others are more circumspect. "If we were all shot and killed," Sklar said, "solar would still be here."
The next dawning
What does a group dedicated to dominance do when it finally starts to win?
That is the existential question facing the Solar Circle and its membership. For years, the group wondered how to get celebrities and religious leaders to speak about climate change and renewable energy; in the last year it got just that, from Leonardo DiCaprio to Pope Francis (ClimateWire, Jan. 20; Greenwire, Sept. 25, 2015). Members strategized how to speed the adoption of rooftop solar; earlier this year, the U.S. surpassed a million solar installations.
Now that solar is maturing into a complex global enterprise, the horizon is filled with other questions: How will gigawatts of intermittent solar power be stored? Can home or industrial-size batteries get cheap enough to do it? Can electric cars? Can the hub-and-spoke electric grid be flattened into a mesh, making a thousand rooftop solar panels as valuable as a centralized coal power plant?
Members of the group are quick to point out that it's still early days for solar. "When there's solar energy on every building you look at, our job might be done then," said Guiney. Some circle members, particularly the younger ones, think the circle could play a role in transforming the world's energy system into one that revolves around the sun.
"In a whiteboard environment, what would we do?" Blunden asked. "We've got to prepare for domination."
But before domination comes defense.
One of the solar industry's key policy tenets, net energy metering, is under attack by climate deniers and "utilities who think they own the electricity world," said Shaw. Nevada gutted its net-metering policy last year, arguing it is a hidden penalty on customers who don't generate their own power. Another key policy tool, the renewable portfolio standard, seemed to be on a path toward bringing ever more renewable power to ever more states — until recently. In the last year, standards have been scrapped in Kansas and West Virginia and have stalled in Ohio and Maryland.
In other ways, solar is "so successful that we caused a new problem," Shaw said. In California, by far the leader in integrating renewables onto the power grid, output from solar and wind farms has spiked at times of day when demand for power is the lowest — the so-called duck curve — which has caused the grid operator to shut down deliveries (EnergyWire, May 2, 2014).
The circle, founded with 30 members, now has meetings attended by between a dozen and 20 regulars. Many of the original members have stepped away, and some refer to it in the past tense. Some, like Kammen, believe the circle has been overtaken by events; he has stopped going, he said, because he can see the same people and have the same conversations at the energy and climate conferences that crowd the calendar these days.
Others find that time is overtaking them.
"I wouldn't say it's a social club, but it's not as substantial or as relevant as it once was," said Hayes. "We're a bunch of geezers now. We're going to start dying, and we'll see if we get replaced and it continues to have usefulness."
At a meeting last year, the circle mourned the passing of three spouses. One was Harwood, who was a circle member along with her husband, Aitken. He still makes it to all the meetings he can, because both the topic and the people are close to his heart.
"There is no other such group anywhere that meets regularly and has such a diverse membership," he said. "And God, we love each other. When we meet each other, there's hugs all around."
Twitter: @DavidFerris Email: email@example.com
What is the history and evolution of environmental thinking and
writing? How have certain "environmental classics" shaped the way in
which we think about nature, society and development? (And, as a
corollary, what has shaped the intellectual history of programs like
the Energy and Resources Group?). This course will use a selection of
20th century books / papers that have had a major impact on academic
and wider public thinking about the environment / development to probe
these issues. The selection includes works that have influenced
environmental politics, policy and scholarship in the USA as well as in
the developing world. We will not only read these classics, but we will
also read reviews and critiques of these books ­ both those written
at the time of first publication, and more recent commentaries ­ to
explore the evolution of thought on these transforming ideas.
When available, the webpage for this course will be posted here. Please check back later for an updated link.
In this course, you will develop an understanding ­ and a real
working knowledge ­ of our energy technologies, policies, and
options. This will include analysis of the different opportunities and
impacts of energy systems that exist within and between groups defined
by national, regional, household, ethnic, gender distinctions. Analysis
of the range of current and future energy choices will be stressed, as
well as the role of energy in determining local environmental conditions, and the global climate.
The course website can be found here: http://er100200.berkeley.edu/
This graduate seminar will examine the relationship
theory and practice with respect to issues of energy use, technology
culture. We will explore the often divergent ideas about development
have emerged from civil society, academia, multinational development
agencies, and national development plans in order to investigate the
differing perspectives currently envisioned for a sustainable energy
future. The course will focus on energy options at the household and
community level, paying particular attention to the needs of
primarily in rural areas of developing nations. It will then examine
theories of energy systems as a national, often centrally planned
infrastructure. The seminar will explore ideas of 'appropriate
technology', and cultural and political aspects of energy services, and
environmental impacts. Specific themes in the class will include gender
analysis, renewable energy alternatives, the emergence of decentralized
energy options, and new energy and environmental linkages.
This technical course focuses on the fundamentals of photovoltaic (PV)
energy conversion with respect to the physical principles of operation
and design of efficient semiconductor solar cell devices. Incorporating
ideas from a variety of disciplines, the course aims to equip students
with the concepts and analytical skills necessary to assess the utility
and viability of various modern PV technologies in the context of a
growing global renewable energy market. Traditional materials science
and device physics are integrated with the practical issues of
connectivity, cost and market analysis, and policy considerations to
provide a complete picture of the engineering and development of modern
PV systems. Background in solid state physics or
semiconductor electronics is strongly recommended.
Collaboration with HWK on making energy research a new core area for the German Inst. for Advanced Study
+ MORE to come!
Fellowships in Energy and Sustainability
We also know that it can be hard to enter and stay in this field. We have complied a number of opportunities in the following spreadsheet document. It can be downloaded in three formats, Open Office, Microsoft Office, and pdf. ( OODOCPDFInternship Opportunities
These internships are UNPAID because it takes us significant time and effort to coordinate working with you and ensure we meet our mutual needs (yours, ours, society's etc). What we do provide is guidance, templates, and a supportive environment. We expect a lot of work and a lot of laughter; we all pitch in for constant snacks and ways to rejuvenate each other. If this sounds like an environment you could also thrive in, please send us an email with your interests, your resume and if you/your university is willing to provide any funding for you.
Build Your Resume: Intern at the CoolClimate Network Fall 2012
At present, our primary needs include:
FUNDRAISING INTERN (unpaid)
You may be new to the business world but are charming and have lots of creative ideas on how to attract and retain funders for the
Cool California Challenge http://www.coolcalifornia.org/community-challenge. You're a pro at online social networking, love both cold calling and developing longer-term relationships with companies doing good deeds that you think should be involved in our unique State-wide campaign. Please e-mail firstname.lastname@example.org to find out more.
DRUPAL THEMER INTERN (unpaid)
We need to re-brand coolclimate.berkeley.edu to better show folks how we research to create tools in order to support programs. We know what we want to highlight - and are open to suggestions but just don't have to implement these into a website. We also know what coding best practices are and will make sure you follow them... so it could be good learning experience for those of you who know the basics of HTML and CSS and just ready to learn to theme (i.e. bringing Drupal and its PHP quirks into your toolkit). Please contact email@example.com to find out more.
API ADDICT (unpaid)
We have data that the world wants to use, and we want to share, but we need to set up an
infrastructure to do so. In this internship you would have the opportunity to open up our GHG footprint data using best practices on open and linked data. The CoolClimate Team coolclimate.berkeley.eduhas numerous models and tools of GHG emissions at zipcode-level granularity that we want to grow, and the world to be able to use, but we need help making this dream come true. We know the basic best-practices, but just don't have the time to implement the project. If you do, this would be a wonderful contribution to society, and look excellent on your resume. You don't need to be a coding genius but relevant experience with basic
standards would be ideal. Please contact firstname.lastname@example.org to find out more.
ASSISTANT MEDIA AND PUBLICATIONS EDITOR INTERN(s) (unpaid)
You're a motivated undergraduate media studies or graduate school of journalism student looking to build their resume and make a real impact on a live, on-the-ground program with journalism genius and editorial imagination. Assistant editors with the CoolCalifornia Challenge generate buzz, interest and excitement around the challenge to maintain momentum that is crucial to supporting community-based sustainability efforts. Tell the Challenge story through conducting interviews, following up on story leads, generating story angles and writing Challenge news updates, blogs, social media posts and newsletter content tailored to various audiences and goals.
VISUAL DESIGNER(s) (unpaid)
Take a look at http://coolclimate.berkeley.edu/ and http://rael.berkeley.edu/. It should be obvious that we need aesthetic aid. We could use both web
and print students, but we have most experience on user-interface and interaction design (not that you could tell by the tools that are
currently displayed ;)). While we can offer your resources on best-practice web-design, we're hoping that you'll be able to bring your aesthetic eye to a variety of print and web media. This would be a fantastic and varied portfolio builder for numerous good causes. Please email@example.com to find out more.
MARKETING MANAGER for the CoolClimate CoolCalifornia Challenge (unpaid)
You may be new to the marketing community but you're a self-starter and have lots of creative ideas on how to support the Cool California Challenge http://www.coolcalifornia.org/community-challenge. You're a pro at online social networking, are or want to become familiar with the adobe suite and love coming up with clever slogans,
graphics and guerrilla advertising ideas. If you don't know about behavior change science you're a quick learner and are ready to read a few books to get on board with this team's fun-loving, but behavior-changing game-plan. Most importantly, you're super excited to be involved in developing our unique State-wide campaign. Please contact firstname.lastname@example.org to find out more.
COMMUNITY LIAISON for the CoolClimate CoolCalifornia Challenge (unpaid)
Are you interested in sustainable communities, climate action plans, and good ol’ fashioned fun? If so, then this is THE opportunity for you to apply proven behavioral psychology techniques to garner interest, gather people, and get results for the larger environmental good in the CoolCalifornia Challenge! The Challenge is a lively, innovative competition between eight California cities to reduce their community-wide carbon footprints and build more vibrant and viable communities. You will be THE nexus between between UC Berkeley, Cool City Officials, Volunteers, and Participants. Using a Community Based Social Marketing framework, you will be assisting one Cool City (Davis, Sacramento, Tracy, or Chula Vista) with various responsibilities such as social outreach, event coordination, targeted messaging, and more! Set your own schedule in a fun work atmosphere, flexible hours, and an opportunity for excellent recommendations while you learn new skills and build your professional experience. We're located on the UCB campus in the CITRIS building and have lots of friends. If you’re interested in joining the CoolCalifornia Challenge team, please send us an email with a cover letter your interests and your resume.
In exchange for some hard work, on your own schedule, we would provide a fun work atmosphere, flexible hours, and excellent recommendations. We're located on the UCB campus in the CITRIS building and have lots of friends. These internships are perfect learning experiences to enhance your resume while learning new skills. We make sure you work with us to come up with a list of skills you'll learn by the end of the summer (we have some ideas ;)), and then help you get them, via weekly to do lists and check-ins according to the number of hours you're willing to commit. There are also numerous potential avenues for advancement and personalized experiences. Please contact us to learn more. If you're a graphic designer and want to make what we've got better - we're all for it, just work with us to help us meet our primary needs too. The more you give the better our recommendations will be (but we're pretty darn nice to begin with ;)!
For questions or suggestions, please contact email@example.com
Specific Projects Cool Climate Network
Want to create a peer-reviewed, transparent and accurate carbon calculator for your country's actors (individuals, businesses, households, local governments, "communities" etc...) ? We want to help! Through the CoolClimate Consortium (http://coolclimate.berkeley.edu/) we would like to recruit train and support interns from all continents to use our data and tools (in conjunction with their own unique local sources) to develop their own country-specific GHG calculators to facilitate decision support across the globe.
Although we plan to collect data on over 100 countries in which to implement our calculators, and welcome applications from all continents, based on our current projects, we are especially interested in researchers from the following countries:
Opinion Editorials & Policy Briefs
We encourage our students to make their opinions known and participate in their communities. We have included links to some of their work here:
Open Education ResourcesAccess to Published Information
We support open access journals and open educational resources at all levels of achievement. Check out Environmental Research Letters, a journal that allows ANYONE to see it's articles and the data attached to each publication. Unfortunately, ERL requires a cost placed on authors to publish in this peer-reviewed outlet , but these fees are of little consequence to academic institutions and are often waived.
We also try to post all of our articles via this website. If you're looking for an article we've published, that you can't seem to find, let us know, and we'll do our best to get it to you (and others!)
Turning our Students into Teachers
One of the best ways to master material is to teach it. Some of our students also share their findings and lesson designs via our course websitesthese portals:
A larger listing can be found here: http://en.wikipedia.org/wiki/Open_educational_resources and a coordinated, worldwide effort to increase and connect these distributed knowledge portals is in the process of being outlined. (Open can mean a lot of different things to different segments of the population and open access, does not necessarily connote "free as in beer". We do not want to get into this long, complex and crucially important debate here. However, we do want to point you to some varied resources about how to choose how to publicize your work.)
As always, we try to work hard, play nice, and do our best.... please let us know if you have other suggestions we should incorporate!