Showing posts with label CO2. Show all posts
Showing posts with label CO2. Show all posts

Friday, June 16, 2017

Bermuda Government seeks feedback on fuels policy


National fuels policy is the subject of a new government discussion paper — and the Department of Energy is now seeking public feedback on it.

The policy sets out the government’s aims of achieving a mix of fuels that is cost effective and less polluting.

The document, which is available on this webpage under the heading of Related Media, can also be found on the Bermuda Government web portal or in hard copy from the Department of Energy at the Government Administration Building, 3rd floor, 30 Parliament Street.

The deadline for written comments on the policy document is close of business on July 7, 2017, submitted via e-mail to energy@gov.bm or by hand at the Department of Energy, Government Administration Building, 3rd floor, 30 Parliament Street.

The Department says it will review all information obtained and respond to each submission.

Jeane Nikolai, Department of Energy director, said: “Fuels is another essential pillar of the energy sector which directly affects the local community and economy. The New Fuels Sector Policy will mark the beginning of Bermuda’s road towards a fiscally transparent, efficient and environmentally sensitive fuel regime.” More

National Fuels Policy Document

Sunday, September 14, 2014

Why Peak Oil Refuses To Die

Perhaps you’ve seen one of the recent barrage of articles claiming that fears of an imminent peak and decline in world oil production have either been dispelled (because we actually have plenty of oil) or are misplaced (because climate change is the only environmental problem we should be concerned with). I’m not buying either argument.

Richard Heinberg

Why? Let’s start with the common assertion that oil supplies are sufficiently abundant so that a peak in production is many years or decades away. Everyone agrees that planet Earth still holds plenty of petroleum or petroleum-like resources: that’s the kernel of truth at the heart of most attempted peak-oil debunkery. However, extracting and delivering those resources at an affordable price is becoming a bigger challenge year by year. For the oil industry, costs of production have rocketed; they’re currently soaring at a rate of about 10 percent annually. Producers need very high oil prices to justify going after the resources that remain—tight oil from source rocks, Arctic oil, ultra-deepwater oil, and bitumen. But oil prices have already risen to the point where many users of petroleum just can’t afford to pay more. The US economyhas a habit of responding to oil price hikes by swooning into recession, and during the shift from $20 per barrel oil to $100 per barrel oil (which occurred between 2002 and 2011), the economies of most industrialized countries began to shudder and stall. What would be their response to a sustained oil price of $150 or $200? We may never know: it remains to be seen whether the world can afford to pay what will be required for oil producers to continue wresting liquid hydrocarbons from the ground at current rates. While industry apologists who choose to focus only on the abundance of remaining petroleum resources claim that peak oil is rubbish, the market is telling Houston we have a problem.

Meanwhile some environmentalists have abandoned the subject of peak oil because they believe it’s just not relevant. For them, climate change is the only thing that matters. Society must deal with its collective carbon habit by going cold turkey on all fossil fuels. We can make the needed energy transition through the strategies of substitution and efficiency. Develop low-carbon energy sources (solar and wind, possibly nuclear), and use energy smarter! Electrify transport with battery-powered cars! Get with the program and stop wasting time on side issues!

Like the abundant-resource argument, this line of thinking proceeds from an unassailable premise. Anthropogenic climate change is indeed the nastiest, gnarliest environmental issue humanity has ever faced. The potential consequences stretch centuries or millennia into the future and imperil not just humanity, but thousands or millions of other species. But peak oil won’t go away just because it’s an inconvenient distraction from addressing that gargantuan issue. In fact, the two problems are closely linked and society will need to address both by way of a realistic, comprehensive strategy. I’ll get back to that point toward the end of this essay.

Is the necessary transition to renewable energy a simple matter of politics and regulation, as many climate campaigners seem to suggest? Hardly. Transitioning the electricity sector is a huge task in itself (the variability of wind and solar power implies soaring costs for energy storage, capacity redundancy, and grid upgrades once these sources start to provide a substantial portion of total electrical energy consumed). But liquid fuels pose an even bigger hurdle. Even the most advanced batteries do a poor job of storing energy when compared to oil; that’s why we’re unlikely ever to see electric airplanes, tractors, ships, 18-wheel trucks, or bulldozers. Some energy pundits tout compressed natural gas as a viable bridge fuel for transport, but that assumes sufficient availability and continued affordability of fracked shale gas—a prospect that seems highly unlikely in view of the results of Post Carbon Institute’s ongoing research into possible shale gas drilling locations and per-well production profiles. Hydrogen could be a niche fuel in some instances, but conversion from other energy sources (electricity or natural gas) to hydrogen implies energy losses, as does hydrogen storage. Further, if we were to make lots of H2 from water, using electricity, in order to fuel much of the transport sector, this would place an enormous extra burden on solar and wind, which already face a daunting job replacing coal and natural gas in the power generation sector.

How about energy efficiency? Good idea! We need to cut energy waste, and the folks at Rocky Mountain Institute have proposed many good ways of doing that. But, at the end of the day, efficiency is subject to the law of diminishing returns; so, while the tie between energy consumption and economic output is somewhat elastic, it cannot be severed. Specifically regarding oil: yes, many nations have reduced petroleum consumption in the last few years as a way of adapting to higher prices. But the fact that their economies have weakened suggests that efficiency gains have tended to lag behind oil price increases. Average vehicle fuel economy has improved, but not fast enough—so our main “efficiency” strategy has in reality simply been to travel less, and then deal with the withdrawal of economic benefits that cheap transport formerly provided.

None of this is trivial: oil is essential to the functioning of the modern industrial world. We use it for just about all transportation, which is key to trade. It’s also the fuel for construction, resource extraction (mining, fishing, forestry), and agriculture. Together, these sectors form the backbone of the real, physical economy of industrialized nations.

Again: the costs of oil production are rising and oil is stubbornly hard to substitute. As I argued in a recent book, this effectively spells the end of the historic period of rapid economic growth that began shortly after World War II. There is no way out; inevitably, society will become less mobile and—this should be cause for much greater concern—it will either produce less food or produce it in more labor-intensive ways.

Of course, peak oil and climate change aren’t the only looming challenges we should be concerned about. Economists rightly worry that the world is mired in far too much debt. Ecologists warn us about biodiversity loss, pervasive chemical pollution, and human overpopulation. Food system analysts try (usually in vain) to direct public attention toward the predicaments of topsoil degradation and depletion of aquifers from over-irrigation. Public health professionals caution us about the specter of pandemics as antibiotics lose effectiveness due to rapid microbial evolution. For city managers, the crumbling of water, sewerage, bridge, gas, and electricity grid infrastructure implies countless disasters just waiting to happen. I could go on. It’s all so overwhelming! Perhaps the only way to avoid crisis fatigue these days is simply to stop paying attention. But amid all these priorities and problems, peak oil refuses to die.

Those of us who insist on paying attention sooner or later get around to doing a form of mental triage. What are the worst crises that humanity faces over the long run? Which are the worst in the short term? What are the deeper issues, of which many problems are mere symptoms? This sorting process has led many systems thinkers to the conclusion that our species, in essence, faces an ecological dilemma of overpopulation, resource depletion, and environmental degradation resulting from a relatively brief period of rapid expansion enabled by a huge but temporary energy subsidy in the form of fossil fuels. We discovered buried treasure and went on a spending binge, adopting a way of life that cannot be supported long-term. Peak oil, climate change, mineral depletion, soil degradation, species loss, and the rest are justwords that blind men use to describe an elephant.

What we must do now is treat symptoms while keeping in mind the root disease, seeing why and how various crises are related. I have a couple of suggestions in this regard. One is that we begin to speak of peak oil and climate change as two sides of the same coin. The coin itself represents our reliance on fossil fuels and their unique energetic benefits. Both side-problems (the declining economic value of fossil fuels as they deplete, on one side, and the increasing environmental cost of burning them, on the other) demand that we reduce our fossil fuel dependency as rapidly as possible, even though that means sacrificing benefits we have come to depend on. If we maintain this holistic view of the situation, we’re more likely to understand that there is no way to keep eating our cake while having it too, either by continuing to burn fossil fuels of declining quality or by relying on new technology to fix what is actually an ecological problem. We can’t frack our way back to economic prosperity; nor can we unplug a coal plant, plug in a solar panel, and go on expanding population and consumption. We will have to adapt to the quantities and qualities of energy that are actually available from renewable sources alone, and that will mean changing the way we do just about everything.

Which brings me to the second, related suggestion. The constellation of challenges before us ensures that economic growth, as we have known it, is over, finished, kaput. That’s a terrible thing, in that the end of growth will almost certainly entail financial and political turbulence with real human casualties. But from the standpoint of diagnosis and treatment, it simplifies everything marvelously. If our impending crises stem from fossil-fueled expansion of population and consumption, their resolution surely starts with a coordinated, planned, and managed program of decarbonization and degrowth. We must reduce population and energy consumption from fossil fuels, while minimizing the human and environmental impacts of both past growth and the process of contraction. Easily said, not so easily done. But if civilization is to maintain itself in any recognizable form, this is what’s necessary. It would really help if those of us working at treating the various symptoms of the global meta-crisistogether acknowledged that growth is a core part of the underlying problem, not a solution, and that it is effectively over in any case.

Ignore peak oil (this could equally be said of climate change), and our view of the global problem-set immediately becomes distorted. We grasp at apparent solutions that turn out to be a useless waste of effort, or worse. Peak oil helps us understand what we’re faced with, and what we must do. It’s a gift wrapped in a curse. And it refuses to go away no matter how often it is pronounced dead.

By. Richard Heinberg

 

Wednesday, August 6, 2014

Why Morgan Stanley Is Betting That Tesla Will Kill Your Power Company

There’s a reason that power companies are attacking rooftop solar across the nation: They see those silicon panels as nothing short of an existential threat.

As the cost of solar continues to fall, and more people opt for the distributed power offered by solar, there will be less demand for big power plants and the utilities that operate them. And one major investment giant has now released three separate reports arguing that Tesla Motors is going to help kill power companies off altogether.

Earlier this year, Morgan Stanley stirred up controversy when it released a report that suggested that the increasing viability of consumer solar, paired with better battery technology—that allows people to generate, and store, their own electricity—could send the decades-old utility industry into a death spiral. Then, the firm released another one, further emphasizing the points made in the first. Now, it’s tripling down on the idea with yet another report that spells out how Tesla and home solar will “disrupt” utilities.

“There may be a ‘tipping point’ that causes customers to seek an off-grid approach,” the March report argued. ”The more customers move to solar, the [more the] remaining utility customers’ bills will rise, creating even further ‘headroom’ for Tesla’s off-grid approach.”

Yes, Tesla Motors, everyone’s favorite electric car company. And that’s where the controversy comes in. Morgan Stanley breathlessly pegged Tesla as “the most important auto company in the world” in part because its electric car business was pushing it to develop better energy storage technology, and then mass manufacture said batteries. That’s exactly what Tesla CEO Elon Musk and company will be doing at its forthcoming Gigafactory, which it is building in the Southwest with Panasonic.

With the new manufacturing facility, Morgan Stanley reasons, Tesla stands to double its business (adding another $2 billion in revenue) by selling the lithium ion batteries it typically ships under the hood of a Model S to homeowners with solar panels, too. If consumers can store energy the panels generate during the day for use at night, it would ostensibly render the need for utilities to pipe in faraway power—and their electric bills—obsolete.

Energy storage, when combined with solar power, could disrupt utilities in the US and Europe to the extent customers move to an off-grid approach

Musk is also the chairman of Solar City, a company that leases rooftop solar setups to homeowners, and one that would benefit from the battery tech. Now, the shadiness here is that Morgan Stanley released the report trumpeting Tesla’s crossover energy storage potential—causing Tesla’s stock to rise—right before it underwrote a fundraising round for… Tesla.

So the whole thing is very incestuous, and it does render some of the projections a little suspect, but the bottom line here is that private solar and battery companies are viable enough that they’ve attracted the backing of one of the world’s biggest financial services companies—over the multi-trillion dollar utility industry.

“Energy storage, when combined with solar power, could disrupt utilities in the US and Europe to the extent customers move to an off-grid approach,” Morgan Stanley writes in its third report this year emphasizing the prospect. ”We believe Tesla’s energy storage product will be economically viable in parts of the US and Europe, and at a fraction of the cost of current storage alternatives.”

In other words, Morgan Stanley has Tesla’s back, big time. It’s betting that Musk is going to make the best solar energy batteries money can buy.

Ironically enough, however, even staunch clean energy advocates are wary about Morgan Stanley’s finding that utilities are going the way of the buffalo. “Barring extraordinary circumstances, the economic case for grid defection is still very weak for US consumers,” Stephen Lacey, the senior editor of Greentech Media, wrote of the Morgan Stanley report. ”The electricity system offers valuable backup in case a customer over- or under-invests in an on-site system.”

It’s more likely, then, that people will still buy home solar—by the tens of millions, Greentech suggests—but not unplug from the grid entirely. Utilities will be diminished, but not broken. This process is underway in Europe already, where countries like Germany have powerful incentives for consumers to switch to solar.

Last year, the Economist called the sharp decline of European utilities “startling,” noting that together, they lost half their value—$600 billion—in just five years. Here in the states, utilities and conservative politicians are fighting solar tax credits to prevent the same thing from happening. For the most part, the utilities are losing.

All of this is, ideally, what needs to happen. Climate change is accelerating, and we need to transition away from those massive, fossil fuel-slurping power plants. Distributed solar is an increasingly powerful force behind that weaning process.

And even if some of Morgan Stanley’s calculations are shaky, the trends that Tesla is helping to amplify are anything but—clean, personalized (or community-wide) power will play a major role in shaping our energy future.

The fact that a greed-driven titan of finance like Morgan Stanley recognizes as much, and is willing to triple down on its bets on battery storage and distributed power, is a promising sign that the energy revolution is underway. More

 

Sunday, August 3, 2014

The High Cost of Gas Exports - Australia

The impact of LNG exports, particularly of coal seam gas, on Australian industry continues to be the topic of debate, with one recent report warning that there it will further destroy the local manufacturing industry (already reeling from Dutch disease) - High gas prices threaten thousands of jobs, billions of dollars: industry.

A new report warns the riches promised by exporting Australian gas may have a devastating impact on local industries, particularly manufacturing. A coalition of half-a-dozen industry groups commissioned the report by Deloitte Access Economics.

The report says domestic gas prices are rapidly rising as the market links in with international prices. It warns that, if the rise goes unchecked, the manufacturing sector alone will contract by as much as $118 billion by 2021, with nearly 15,000 jobs lost. The report also finds that mining might contract by $34 billion and agriculture by $4.5 billion.

Peak Energy: The high price of gas exports

 

Thursday, June 19, 2014

Solar is here

Solar is here.

That's right. You know the solutions to the climate crisis are available today; we simply need the public (and political) will to implement them. Clean energy is urgently necessary, abundant, and becoming increasingly more affordable. That's why on June 21, The Climate Reality Project is joining 12 other organizations in a day of action to support clean-energy solutions and show our commitment to bringing solar power to communities around the world.

If you don't already have plans to take part on Saturday, don't despair! Here are a few last minute ways to get involved:

  1. Sign: Send President Obama an email thanking him for putting solar panels on the roof of the White House.
  2. Share: Take your own #PutSolarOnIt photo and share it with your social media network.
  3. Discover: Check out the Mosaic website to find out if solar is right for you.
  4. Participate: Check out OFA's website to find an event near you, some of which are being hosted by your fellow Climate Reality Leaders.

The reality is this: solar is affordable. It's clean. And it's powerful. The cost of solar panels has plummeted 60 percent since early 2011, and the number of installations keeps growing. The United States now has enough installed solar capacity to power more than 2.2 million homes. In several states, solar power is now competitive with other sources of energy without emitting the dangerous greenhouse gases that cause climate change.

Climate Reality Leaders are the first responders to the climate crisis and lead action across the globe. We're proud so many of you will be participating on Saturday by hosting presentations, organizing events, and informing others about the benefits of solar power.

The Climate Reality Leadership Corps Team

Solar Array at Caledonian Bank, George Town, Cayman Islands

 

 

Sunday, June 8, 2014

US Navy Lab Turns Seawater Into Fuel

 

 

Published on May 21, 2014 • For centuries, alchemists have tried to turn lead into gold. That transmutation has long

been proven impossible, but another similar dream - turning water into fuel - seems to be achievable. Scientists at a

U.S. Naval Laboratory proved it by flying a model airplane burning re-engineered seawater. VGA'S George Putic has the story.

Wednesday, April 16, 2014

Scientists Discover How to Generate Solar Power in the Dark

Meet 'photoswitches,' a breakthrough set of materials that act as their own batteries, absorbing energy and releasing it on demand.

The next big thing in solar energy could be microscopic.

Scientists at MIT and Harvard University have devised a way to store solar energy in molecules that can then be tapped to heat homes, water or used for cooking.

The best part: The molecules can store the heat forever and be endlessly re-used while emitting absolutely no greenhouse gases. Scientists remain a way’s off in building this perpetual heat machine but they have succeeded in the laboratory at demonstrating the viability of the phenomenon called photoswitching.

“Some molecules, known as photoswitches, can assume either of two different shapes, as if they had a hinge in the middle,” MIT researchers said in statement about the paper published in the journal Nature Chemistry. “Exposing them to sunlight causes them to absorb energy and jump from one configuration to the other, which is then stable for long periods of time.”

To liberate that energy all you have to do is expose the molecules to a small amount of light, heat or electricity and when they switch back to the other shape the emit heat. “In effect, they behave as rechargeable thermal batteries: taking in energy from the sun, storing it indefinitely, and then releasing it on demand,” the scientists said.

The researchers used a photoswitching substance called an azobenzene, attaching the molecules to substrates of carbon nanotubes. The challenge: Packing the molecules closely enough together to achieve a sufficient energy density to generate usable heat.

It appeared that the researchers had failed when they were only able to pack fewer than half the number of molecules needed as indicated by an earlier computer simulation of the experiment.

But instead of hitting a projected 30 percent increase in energy density, they saw a 200 percent increase. It turned out that the key was not so much packing azobenzene molecules tightly on individual carbon nanotubes as packing the nanotubes close together. That’s because the azobenzene molecules formed “teeth” on the carbon nanotubes, which interlocked with teeth on adjacent nanotubes. The result was the mass needed for a usable amount of energy storage.

That means different combinations of photoswitching molecules and substrates might achieve the same or greater energy storage, according to the researchers.

So how would molecular solar storage work if the technology can be commercialized? Timothy Kucharski, the paper’s lead author and a postdoc at MIT and Harvard, told The Atlantic that most likely the storage would take a liquid form, which would be easy to transport.

“It would also enable charging by flowing the material from a storage tank through a window or clear tube exposed to the sun and then to another storage tank, where the material would remain until it's needed,” Kucharski said in an email. “That way one could stockpile the charged material for use when the sun's not shining.”

The paper’s authors envision the technology could be used in countries where most people rely on burning wood or dung for cooking, which creates dangerous levels of indoor air pollution, leads to deforestation and contributes to climate change.

“For solar cooking, one would leave the device out in the sun during the day,” says Kucharski. “One design we have for such an application is purely gravity driven – the material flows from one tank to another. The flow rate is restricted so that it's exposed to the sun long enough that it gets fully charged. Then, when it's time to cook dinner, after the sun is down, the flow direction is reversed, again driven by gravity, and the opposite side of the setup is used as the cooking surface.”

“As the material flows back to the first tank, it passes by an immobilized catalyst which triggers the energy-releasing process, heating the cooking surface up,” he adds.

Other versions of such device could be used to heat buildings.

Kucharski said the MIT and Harvard team is now investigating other photoswitching molecules and substrates, “with the aim of designing a system that absorbs more of the sun's energy and also can be more practically scaled up.” More

 

Monday, March 17, 2014

World Energy Outlook hides the real potential of renewables

The IEA’s annual World Energy Outlook (WEO) is seen as the most authoritative set of energy scenarios in the world. Yet when we test the forecasts for the growth of renewable energies in the WEO’s main scenario against reality, we find that the WEO consistently comes out too low. Each year from 2006 on the WEO has had to increase its forecast for wind and solar power. Yet each year the WEO predicts the growth of renewables to level off by 2020, for no clear reason. This sends a wrong message to policy makers about the real potential of renewable energy. It is time for the IEA to acknowledge that its assumptions need correcting.

Every year in November, the International Energy Agency publishes its annual World Energy Outlook (WEO). It intends to show the possible directions for our global energy system, with the goal of guiding policy makers in designing their policies and measures. The World Energy Outlook is the most authoritative scenario exercise in the world, and is seen as such by policy and decision makers. It’s not a prediction of the future, but a sketch of possible pathways. The fact that the WEO appears every year makes it possible to assess how well it forecasts the development of renewables in the various scenarios. Looking back is not a favourite activity of scenario builders – they prefer to look forward. But it is instructive if you want to evaluate how well the scenarios hold up against reality. As it happens, the IEA has a sub-programme for Renewable Energy Technology Deployment, IEA-RETD, supported by eight IEA country members, which carried out a limited assessment of the WEO-2013 and earlier editions. The results are very interesting. First the good news. In general, the scenarios are of high quality. That is to say, they generally pass the recommendations made in the IEA-RETD’s scenario guidelines (called “RE-Assume”), which were published last summer and which show policy makers how they should understand energy scenarios and transpose their conclusions into policies. The WEO does well by most criteria, e.g. on transparency. This implies that policy makers should take to heart the WEO’s main conclusion regarding climate change policies: We need to take action that goes much beyond current policies to get anywhere near a safe pathway with respect to energy security and climate change. But the next question for policy makers is: What actions should that be? Here the bad news emerges. The WEO does provide clues about how renewable energy could contribute to the reduction of CO2 emissions, but these clues are absent in the WEO’s main scenario (the “New Policies” scenario). The assumptions about renewable energies used in this scenario and the modelling are based on misconceptions.

Mis-interpreting actual developments

We constructed some graphs showing the cumulative installed capacity of both solar and wind power forecast by the WEO from 2006 to 2013. As shown in the graphs below, every year the WEO adjusted its assumptions upwards. In each year from 2006, the reference scenario in the WEO shows higher cumulative capacity than the year before.

What is more, in all the WEOs the growth is expected to slow down from about the year 2020, but for no obvious reason. Our findings confirm what Terje Osmundsen recently wrote in Energy Post about how solar power is portrayed in the WEO. In wind energy the WEO’s adjustments are quite large as well. Hence, it’s not a wild guess that — unless something fundamentally changes — the 2014 WEO reference scenario will again show an upward adjustment of the growth in renewables towards 2035.

The alternative

WEO’s New Policies Scenario describes the mainstream developments in global energy. These developments put us on a track for a disastrous global warming of more than 3.5°C, according to the WEO. The globally agreed (but not yet operational) target is an upper limit of 2°C. Hence, the IEA also publishes an ‘alternative’ scenario, which shows what actions should be taken to stay within the 2°C limit. This so-called 450 scenario, named after the upper limit of the CO2 concentration in the atmosphere (450 ppm) that still provides a reasonable chance of staying under a 2°C average temperature increase, is regarded as possible but not very likely to happen. According to our retrospective, especially from 2010 onwards, the alternative, 450 scenarios have been much more representative than the reference scenarios when it comes to the actual development of wind energy (and to a lesser extent, of solar power). As can be seen in the graphs below, the projected growth lines quite accurately follow the actual developments. More

Saturday, March 15, 2014

Europe 24 Air Traffic

This data visualization of Air Traffic in Europe was created from real flight data. It shows the air traffic which flies on a typical summer day and highlights the intensity of the operation in Europe - an operation which runs 24x7x365.

NATS and the UK are at the heart of the operation. With Heathrow as the busiest international airport in Europe, and Gatwick as the busiest single runway airport in the world, the UK plays a key role in ensuring air traffic under our control in European airspace is as safe and efficient as it can be.

The question and the elephant in the skies is of course how much fossil fuel is burned and converted into carbon dioxide by aviation globally on a daily basis? For those of us that live on small low lying islands (SIDS) the outcome will be disasterous as our homes will eventually be submerged by rising sea level. Editor

Tuesday, February 4, 2014

Cayman's Delegation at Creating Climate Wealth Summit

Hon Marco Archer and Hon Wayne Panton

The Hon Marco Archer, MLA, Minister of Finance & Economic Development and the Hon. Wayne Panton, MLA, Minister of Financial Services, Commerce and Environment at the Carbon War Room's Creating Climate Wealth Summit on Moskito Island, BVI.

The Carbon War Room's Mission states 'Islands face increasing challenges from their dependence on imported fossil fuels, which impacts the prices they pay for everything from electricity to food. This is further complicated by the added demand that tourism places on the island’s resources. Natural energy resources are abundant on islands. However, the systems required to use them have not been widely implemented and scaled.


This lack of implementation is the result of multi-market barriers that islands and technology providers encounter. These multi-market barriers include local permitting, long-term fossil fuel contracts, and other legislative barriers. What is missing is a scaled regional approach to these barriers.
Sir Richard Branson addressing the plenary session

We seek to bridge this gap by working with islands to identify these barriers and create a regional roadmap for making the necessary changes. This roadmap would detail solutions that can attract both private sector investment and aggregated demand for large-scale renewable energy systems. Learn more about our island selection criteria in the background section.

Our finish line has islands rich with renewable energy systems–and with a strong commitment to fast track becoming completely fossil-fuel-free'.

 

Saturday, January 25, 2014

Message To World Elites: Don’t Bet On Coal And Oil Growth

Davos 2014

A mind-boggling sum of about US$ 800 for each person on the planet is invested into fossil fuel companies through the global capital markets alone. That’s roughly 10% of the total capital invested in listed companies. The amount of money invested into the 200 biggest fossil fuel companies through financial markets is estimated at US$ 5.5 trillion.

By keeping their money in coal and oil companies, investors are betting a vast amount of wealth, including the pensions and savings of millions of people, on high future demand for dirty fuels. The investment has enabled fossil fuel companies to massively raise their spending on expanding extractable reserves, with oil and gas companies alone (state-owned ones included) spending the combined GDP of Netherlands and Belgium a year, in belief that there will be ongoing demand for dirty fuel.

This assumption is being challenged by recent developments, which is good news for climate but bad news for anyone who thought investing in fossil fuel industries was a safe bet. Frantic growth in coal consumption seems to be coming to an end much sooner than predicted just a few years ago, with China’s aggressive clean airpolicies, rapidly dropping coal consumption in the US and upcoming closures of many coal plants in Europe. At the same time the oil industry is also facing slowingdemand growth, and the financial and share performance of oil majors is disappointing for shareholders.

Nevertheless, even faced with weakening demand prospects, outdated investment patterns are driving fossil fuel companies to waste trillions of dollars in developing reserves and infrastructure that will be stranded as the world moves beyond 20th century energy.

A good example is coal export developments. The large recent investment in coal export capacity in all key exporter countries was based on the assumption of unlimited growth of Chinese demand. When public outrage over air pollution reached a new level in 2012-2013, the Chinese leadership moved swiftly to mandate absolute reductions in coal consumption, and banned new coal-fired power plants in key economic regions. A growing chorus of financial analysts is now projecting a peak in Chinese coal demand soon, which seemed unimaginable only a couple of years ago. This new reality has already reduced market capitalization of export-focused coal companies. Even in China itself, investment in coal-fired power plants has now outpaced demand growth, leading to drops in capacity utilization.

Another example of potentially stranded assets is found in Europe, where large utilities ignored the writing on the wall about EU moves to price carbon and boost renewable energy. Betting on old business models and the fossil-fuel generation, they built a huge 80 gigawatts of new fossil power generation capacity in the past 10 years, much of which is already generating losses and now risk becoming stranded assets.

Arctic oil drilling is possibly the ultimate example of fossil companies’ unfounded confidence in high future demand. Any significant production and revenue is unlikely until 2030 and in the meantime, Arctic drilling faces high and uncertain costs, extremely demanding and risky operations, as well as the prospect of heavy regulation and liabilities when (not if) the first major blowout happens in the region. No wonder the International Energy Agency is sceptical about Arctic oil, assuming hardly any production in the next 20 years. More