There’s no shortage of quality management talent in Australia. The problem is that they are working for Australia’s best organisations and corporations. It’s very hard to lure them into the shaky, ‘maybe if’ world of early-stage venture.It can be very hard to find good management depth in entrepreneurial teams, but I think the quote is spot-on. It's not that Australia has a shortage of talent (at least, on a per-capita basis). What is a problem (and this is similar to what I experienced when I was living in Canada) is that the large companies (particularly resources and finance) are where good, stable careers are forged. The allure of the start-up hasn't got the same cache as in the US. The good news is that this is a classic virtuous cycle, and the Australian tech community and startup successes of late is changing that mentality.
Musings of a industry insider on clean energy, water efficiency, carbon reduction and the effects on entrepreneurship, venture capital, and the world at large.
Sunday, October 26, 2008
Short segue
I thought this was a great quote from David Landers, of Allen & Buckeridge (Sydney-based VC):
Thursday, October 23, 2008
Solar - Part 1a, Ausra switches on new power plant
Ausra switches on new power plant
From the San Jose Business Journal:
Speaking for me personally, I'm really proud of the progress that Ausra has made in commercializing their technology. Many technology founders underestimate the difficulty of scaling up a technology, and when it comes to bending metal and pouring concrete, meeting budget and schedule can be pretty harrowing, and numerous companies have stumbled trying.
I'll return with a detailed discussion of solar next time, but I thought this announcement fit well right here.
From the San Jose Business Journal:
[Ausra] switched on the first solar thermal power plant built in the country in nearly 20 years today at an event in Bakersfield.
This is the first plant Ausra has constructed in the U.S. and is crucial to Ausra’s ability to raise financing beyond the venture capital it already has, its executives said. The demonstration today was important for Ausra to showcase its technology, said CEO Bob Fishman.
“We do this to prove to PG&E and the rest of the world and to customers that we’re for real and that it works and that we’re not just talking about doing solar power, we’re doing it,” Fishman said. “And to get them to accept the technology and purchase it, I think requires a demonstration that can actually do what we say it will do.”
Ausra’s 5 megawatt system is a test facility and produces enough electricity to power about 3,500 average homes. It includes 720 mirrors that are 8 by 50 feet long that direct the sun’s rays to a solar thermal tower. The heat from the sun heats water inside the tower turning it to steam and that steam. The steam runs a turbine that produces electricity. And that electricity will be sold to Pacific Gas & Electric Co.
Ausra’s investors include Kleiner Perkins Caufield and Byers and Khosla Ventures as well as KERN Partners, Generation Investment Management and Starfish Ventures.
Speaking for me personally, I'm really proud of the progress that Ausra has made in commercializing their technology. Many technology founders underestimate the difficulty of scaling up a technology, and when it comes to bending metal and pouring concrete, meeting budget and schedule can be pretty harrowing, and numerous companies have stumbled trying.
I'll return with a detailed discussion of solar next time, but I thought this announcement fit well right here.
Solar Energy - Part I
Let's start this discussion with Solar Energy. Solar is the 800lb gorilla in terms of investments right now. The last six years' of VC investments are shown on the chart below. Solar clearly dominates. I thought it would be worthwhile to use this chart as a means of prioritizing these posts - so solar clearly is first.
There are a few reasons that solar energy has attracted so much funding, but the main ones include the fact that solar is such a broad field, solar has already proven successes, and that solar has a pretty clear path to a pretty big market.
Solar Energy technology pretty much is any technology that extracts energy from the sun. This includes solar PV, concentrating solar PV, solar thermal, and concentrating solar thermal. Within each of these are multiple subsets. Solar PV consists of monocrystalline, polycrystalline, thin film, triple-junction, and dye-based cells. Concentrating solar PV can be low (3x concentration), medium (10~100x concentration) and high (~1000x concentration). Solar thermal for heating can be simple 1x roof-top water heaters. Solar thermal for utility scale power generation can be tower configurations, trough design, linear Fresnel, or dish designs.
And, it doesn't stop there. Companies which lower the amount of silicon used and companies which allow for cheaper silicon to be used have been funded. Companies which improve the production yield, or better improve manufacturing processes have been funded. Companies which lower the cost of installation, or improve the tracking of solar modules have been funded. In short, anything that can lower the cost of electricity, anywhere along the solar value chain is of interest.
Why is this? Well, basically energy is a commodity. Barring any kind of "feel good" attributes of green-energy, most people don't have any clue what energy turns their lights on. In a hyper-rational, non-subsidized world that has no clue about external factors like global warming, the day that solar is 1 cent/kWh more expensive than the cheapest form of power, nobody wants it. The day that it is 1 cent/kWh less expensive than the cheapest form of power, everyone wants it. And by "everyone", we mean all 6 billion people on the planet. This is the ultimate tipping point.
So, VCs understand that there is a big market, and this market will crack open if solar power can be made cheaply enough. A lot of the cost of solar PV modules has been their silicon content, which has driven investment into anything that will use less silicon. Concentrating solar PV assumes that by replacing the expensive silicon part within a module with cheaper lenses and mirrors, the overall cost of solar energy will drop. Thin-film solar modules attempt to drastically reduce the silicon content (or eliminate it entirely) by using different materials. Solar thermal, in whatever form, expects that, for utility-scale electricity generation, the best approach is to generate steam and spin a turbine - benefiting from a lot of the work done in the past on thermal power plants.
It's an interesting situation, and one that is encouraging. Back in my Ballard days, when fuel cells were going to change the world, Ballard's mantra was that "we'll make the fuel cells, other suppliers will solve all the other problems". Those "other problems" included hydrogen storage, hydrogen infrastructure, and vehicle manufacturing. There was a huge chicken-and-egg problem which Ballard struggled to overcome. Yet, in the solar industry, there seems to be room for many of these innovations and business models, and the single-mindedness of "decrease cost per watt" has focussed the entrepreneurial community in an extremely positive way.
Next time - more specifics on the technology and path to market.
I actually took this from PBS here, which credits the Cleantech Group.
There are a few reasons that solar energy has attracted so much funding, but the main ones include the fact that solar is such a broad field, solar has already proven successes, and that solar has a pretty clear path to a pretty big market.
Solar Energy technology pretty much is any technology that extracts energy from the sun. This includes solar PV, concentrating solar PV, solar thermal, and concentrating solar thermal. Within each of these are multiple subsets. Solar PV consists of monocrystalline, polycrystalline, thin film, triple-junction, and dye-based cells. Concentrating solar PV can be low (3x concentration), medium (10~100x concentration) and high (~1000x concentration). Solar thermal for heating can be simple 1x roof-top water heaters. Solar thermal for utility scale power generation can be tower configurations, trough design, linear Fresnel, or dish designs.
And, it doesn't stop there. Companies which lower the amount of silicon used and companies which allow for cheaper silicon to be used have been funded. Companies which improve the production yield, or better improve manufacturing processes have been funded. Companies which lower the cost of installation, or improve the tracking of solar modules have been funded. In short, anything that can lower the cost of electricity, anywhere along the solar value chain is of interest.
Why is this? Well, basically energy is a commodity. Barring any kind of "feel good" attributes of green-energy, most people don't have any clue what energy turns their lights on. In a hyper-rational, non-subsidized world that has no clue about external factors like global warming, the day that solar is 1 cent/kWh more expensive than the cheapest form of power, nobody wants it. The day that it is 1 cent/kWh less expensive than the cheapest form of power, everyone wants it. And by "everyone", we mean all 6 billion people on the planet. This is the ultimate tipping point.
So, VCs understand that there is a big market, and this market will crack open if solar power can be made cheaply enough. A lot of the cost of solar PV modules has been their silicon content, which has driven investment into anything that will use less silicon. Concentrating solar PV assumes that by replacing the expensive silicon part within a module with cheaper lenses and mirrors, the overall cost of solar energy will drop. Thin-film solar modules attempt to drastically reduce the silicon content (or eliminate it entirely) by using different materials. Solar thermal, in whatever form, expects that, for utility-scale electricity generation, the best approach is to generate steam and spin a turbine - benefiting from a lot of the work done in the past on thermal power plants.
It's an interesting situation, and one that is encouraging. Back in my Ballard days, when fuel cells were going to change the world, Ballard's mantra was that "we'll make the fuel cells, other suppliers will solve all the other problems". Those "other problems" included hydrogen storage, hydrogen infrastructure, and vehicle manufacturing. There was a huge chicken-and-egg problem which Ballard struggled to overcome. Yet, in the solar industry, there seems to be room for many of these innovations and business models, and the single-mindedness of "decrease cost per watt" has focussed the entrepreneurial community in an extremely positive way.
Next time - more specifics on the technology and path to market.
Thursday, October 16, 2008
Ocean Power and the Cleantech Universe
Well, there has been a lot of interest in the Ausra investment. Some samples of press releases are here, here, here, and here, plus others.
It's great to see the interest in solar thermal technology. However, recently I've started an exercise examining the entire spectrum of all that fits within the cleantech universe. Rob Day had an excellent article on ocean power and it got me thinking about posting my thoughts on the other technologies (wind, solar, fuel cells, biofuels, water recycling, demand management software, hybrid vehicles, batteries, large-scale energy storage, etc. etc. etc.)
So, I'll let Rob's post lead off for ocean power, and I'll be following up in subsequent posts on other technologies. Stay tuned!
It's great to see the interest in solar thermal technology. However, recently I've started an exercise examining the entire spectrum of all that fits within the cleantech universe. Rob Day had an excellent article on ocean power and it got me thinking about posting my thoughts on the other technologies (wind, solar, fuel cells, biofuels, water recycling, demand management software, hybrid vehicles, batteries, large-scale energy storage, etc. etc. etc.)
So, I'll let Rob's post lead off for ocean power, and I'll be following up in subsequent posts on other technologies. Stay tuned!
Wednesday, October 01, 2008
Australian Solar Potential
As I mentioned on Rob Day's blog, Australia has fantastic solar resources, and the political climate has changed dramatically to be more embracing of renewable and low-carbon technology. Australia is racing towards an emission trading scheme by 2010. However, the preponderance of coal-fired power plants provides an additional opportunity for solar thermal technology. By augmenting the power production of coal-fired power plants (of which Australia has many), solar thermal technology can lower the carbon footprint of these plants in an extremely economical way.
One particular solar thermal company which found its origins in Australia has raised a $60m Series C round. It's worth checking out.
One particular solar thermal company which found its origins in Australia has raised a $60m Series C round. It's worth checking out.
Labels:
ausra,
Khosla Ventures,
KPCB,
Solar Energy,
solar thermal
Subscribe to:
Posts (Atom)