accelerating change

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Snow on the San Gabriel Mountains (photo by Jerry Thompson1)

Snow on the San Gabriel Mountains (photo by Jerry Thompson1, CC 2.0 license)

On December 30 of last year (six days ago), my wife and I were in Pasadena, CA visiting the Greene and Greene exhibit at the Huntington Library. It was one of those glorious and rare smog-free days in the LA basin. The air sparkled, you could see for miles in every direction, and mountain range after mountain range was visible - all the way out to the snow-covered San Gabriels. Nowadays, the air is only ever this clear around the Christmas holiday, when the freeway traffic is substantially reduced and a lot of factories shut down for the week. It got me thinking about how the future - say ten to twenty years hence - may be unrecognizable in both dramatic and mundane ways. For example, smog-free days may no longer be rare in LA, once the economy has shifted off fossil fuels. (I suspect the traffic will remain, unfortunately!)

Like LA’s typical skies, the energy future is murky in the short term - this year and 2010 - and I’ll leave those predictions to others. But the big trends - sustainability, carbon fighting, and technological breakthroughs - enable us to make better sense of the mid- and long-term. Therefore, In the spirit of the New Year, the incoming administration, and the tipping point that the world has come to about climate change and sustainability, here are ten things I believe are very likely to happen in the next ten years.

  1. Residential solar PV will be cost effective in most U.S. locations (via a combination of price reduction, new design thinking, much more efficient homes, and a carbon tax on fossil fuels).
  2. Home energy storage - via batteries, hydrogen reforming, fuel cells, or other technology - will be available and installed in 10% of new homes in California, for when the sun don’t shine.
  3. More than 10% of new homes in California will be zero-net energy.
  4. 50% of new residential construction in California will be zero-net energy “ready.”
  5. The current LEED standards will be considered obsolete.
  6. More than 20% of peak grid electricity will come from excess capacity from residential solar PV.
  7. There will be general consensus that efficiency and frugality alone will not provide enough CO2 mitigation to prevent major climate change - we will need a technological solution to actually reducing atmospheric CO2 or artificially cooling the earth.
  8. There will be a mid-priced carbon fiber, plugin hybrid passenger car in production that gets more than 75 miles per gallon. The company making it will be the “next GM.”
  9. 10% of the cars on the road will be powered by 100% renewable energy and will be essentially non-polluting.
  10. New technologies for capturing carbon from the atmosphere will be available, powered by excess solar capacity.

What do you think? Am I off base here? Too optimistic? Too pessimistic? Let me know in the comments. I’d love to hear your thoughts, challenges, and predictions for 2018.

Zero-net Energy Series Coming Up

Over the next few weeks, I will be publishing a series on “zero-net energy” residences (related to predictions 1-6 above). This area is about to explode. We already have all the technology, and some people have the experience, to build “zero-net energy ready” houses cost effectively. And although there’s currently a premium to get to zero-net energy, over the next ten years this premium will go to zero, and probably it will be cost-effective to get to positive-net energy - where the house is generating more energy than it needs! Talk about a world-changing situation - it really is possible to have energy too cheap to meter, but it’s going to come off our roofs, not from a nuclear plant or one of those imaginary fusion reactors.

Soyuz Boosters

Soyuz rocket (Photo by James Duncan, CC 2.0 license)

Following up on my post yesterday about the Detroit bailout, today I wanted to mention Tom Friedman’s op-ed in Sunday’s New York Times “The Real Generation X.” It is primarily about how Obama’s stimulus package should focus on preparing us, especially our young people, for the future, not saving old dinosaur industries like Detroit:

We not only need to bail out industries of the past but to build up industries of the future — to offer the kind of big thinking and risk-taking that transforms enormous challenges into world-changing opportunities.

But what I thought was both charming and an important call to action was specifically about the auto industry bailout - an audacious challenge to Obama and Detroit:

You want my tax dollars? Then I want to see the precise production plans and timetables for the hybridization of all your cars and trucks within 36 months. I want every bailed-out car company to move to hybrid electric drive trains, because nothing would both improve mileage and emissions more — and also stimulate a whole new 21st-century, job-creating industry: batteries.

I love the audacity of this idea. It’s a big idea, and breaks the commonly held “20 year” rule that says it takes 20 years for a laboratory discovery to make it into industrial production. But we’ve overcome that rule occasionally before, in moments of great crisis, haven’t we? The Manhattan Project and the conversion of U.S. industry to war production during World War II, and the Apollo program both accelerated the 20 year rule significantly.

Do you have other audacious suggestions for Obama, or examples of technologies that broke the 20-year rule? I’d love to hear about them in the comments section!

Mission Peak (L), Mount Allison (C) and Monume...

Mission Peak in Fremont, CA. Image via Wikipedia

A roundup of a few stories that came out this week that I found particularly interesting.

  • Solyndra, a startup in Fremont, CA (just down the street from my office), is using a new form factor for thin film solar cells:

    Unlike conventional solar panels, which are made of flat solar cells, the new panels comprise rows of cylindrical solar cells made of a thin film of semiconductor material. The material is made of copper, indium, gallium, and selenium. To make the cells, the company deposits the semiconductor material on a glass tube. That’s then encapsulated within another glass tube with electrical connections that resemble those on fluorescent lightbulbs. The new shape allows the system to absorb more light over the course of a day than conventional solar panels do, and therefore generate more power.

    Not only do they not need trackers, but because they are mounted with space between each tube, they aren’t susceptible to wind and they can collect light reflected off the building’s roof and ambient light coming in obliquely.

    What I like about this story is that it shows that there’s still a lot more innovation to be done in all areas of alternative energy design - yesterday I saw another report about a new fuel cell membrane made of a cheap material instead of platinum, and there’s practically a new wind energy device every week. They’re not all going to be winners, but it’s the kind of design ferment that’s going to lead to big cost and practicality improvements in every area.

  • The EPA provides an interactive analysis (using Google Earth) of marginal and contaminated land that could be used for renewable energy farms - wind and/or solar:

    According to the EPA, many lands tracked by the agency, such as large Superfund sites, and mining sites offer thousands of acres of land, and may be situated in areas where the presence of wind and solar structures are less likely to be met with aesthetic, and therefore political, opposition.

    One stumbling block for a massive transition to solar power in the U.S. has been the land use question. I’m not saying we want to build our power on contaminated lands, but it’s interesting to see this as an option.

    Via CleanTechnica.com

  • Renault commits to electric vehicles. Saying that:

    “EVs are a necessity because hybrids cannot deliver the level of gasoline use and emissions reductions that governments and customers are demanding of automakers”

    Renault unveiled two zero-emission concept cars at the Paris autoshow Mondiale de l’Automobile, both of which are pure electric. The cars have a range of 160-200 kilometers (95-120 miles) and are designed for day-to-day use and short weekend trips, “not vacations” as Renault admits.

    Renault is committing to EVs because they believe that’s the only they’ll be able to deliver the gasoline economy and emissions reductions being demanded by both the market and governments.

These stories caught my eye as not just “more of the same” this week. What green energy stories got your interest up recently?

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Top Fivewoodleywonderworks

Top Five Stories

August was a great month for energy storage breakthroughs! In addition, a big talking head talks big, and a business-of-green-energy announcement make my list of top stories.

1. Hydrogen from water
2. Fuel cell breakthrough #1: cheap catalyst
3. Fuel cell breakthrough #2: better cathode
4. Al Gore’s call to action: The U.S. should “produce all electricity from carbon-free sources by 2018.” (Actually from late July, but my blog didn’t start until August!)
5. Green energy investment up 60% YoY in 2007, on target for 60% YoY growth in 2008

Moore’s Law depended (and still depends) on a constant flow of breakthrough technologies, processes, scale, and designs. You can’t necessarily predict how Moore’s Law will continue to hold two years from now, or five years from now, but you can be confident that through some combination of technologies, processes, and designs, the price/performance of IT will continue to decline at an exponential rate.

The top five green energy stories of 2008 give an indication that the same types of forces are at play in the green energy world. Numbers 1, 2, and 3 each represent a potential 10x reduction in the cost of the most expensive part of a particular energy flow. For number 4, Gore used the bully pulpit of a Nobel Prize and Oscar (and, oh yeah, he was nearly president) in a most constructive way. And number 5 illustrates that green energy technologies are on a growth rate of doubling about every 18 months.

Did these stories excite you as much as they did me? Were there other green energy stories in August that you feel are more important?

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Windmills Along the M6

Windmills Along the M6, photo by Bob Cox Photography

Saw this news item about the growth of green energy investment last week, which tends to correlate with the idea that the growth rate of renewable energy is not linear, but geometric (that is, doubling every n years, like Moore’s Law).

The UN Environment Programme (UNEP) reports that investments in renewable energy in 2007, at $148 billion, were 60 percent above 2006, with 2008 growth continuing. Achim Steiner, head of UNEP, said:

“The clean energy industry is maturing and its backers remain bullish. These findings should empower governments both North and South to reach a deep and meaningful new agreement by the crucial climate convention meeting in Copenhagen in late 2009. It is increasingly obvious to the public and investors alike that the transition to a low-carbon society is both a global imperative and an inevitability. This is attracting an enormous inflow of capital, talent and technology. But it is only inevitable if creative market mechanisms and public policy continue to evolve to liberate rather than frustrate this clean energy dawn. What is unfolding is nothing less than a fundamental transformation of the world’s energy infrastructure.”

There was similar news recently about the growth of both solar energy generation and wind energy generation.

Thanks to blow-hard winds, the United States has just become the world’s largest generator of wind energy.

Germany previously held this distinction, though since the United States has about 26 times more land than Germany, the milestone isn’t a huge surprise. Nonetheless, we weren’t expected to reach this point until late 2009. [Emphasis added - npd]

The key point is that we’re ahead of schedule on renewables, because the schedule was based on linear growth projections. The big question that remains is not whether the growth is exponential, but what’s the time period for doubling? Is it two years? Three years? One year? What do you think?

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