I was at an engineering workshop in Berlin a few weeks back and was chatting over dinner with the attendees about our main gripes with politicians. Specifically, we focused on their impact on energy policy and government funding of energy research. Now mind you, we were already a bit on edge given that there was a single bartender staffed for 60-70 thirsty participants who had just come from a grueling two hour bus tour of the city(!), so take the commentary below within the context of this suffering.
A common refrain in our group was that election cycles, whether Presidential or Congressional, happen on time scales incompatible with real innovation in fields like energy or water. By innovation, I mean taking technologies that are still a glint in a scientist's eye in academia or national labs and following it through the entire life cycle: prove the science, demonstrate manufacturability, produce first prototypes, start full scale manufacturing, generate first revenue, ... become an industry leader. Such a process may span 2-3 Presidential or Congressional cycles, during which time the project or company may get killed for reasons totally unrelated to the technology or market...the dreaded and uncontrollable political death.
So what can we do about this?: (a) lengthen the election cycle or (b) make every politician a 1-termer? Neither sounds terribly appealing. The former, taken to its extreme, equals a dictatorship or another authoritarian-style regime. The latter might seem to make every politician ineffectual. However, I'd offer the 1-termer approach is far more politically palatable and might, counterintuitively, lead to greater progress in fields like energy.
I think what inhibits real work from being done in Washington right now is the amount of a politician's time that gets devoted to the re-election campaign (at minimum, the latter 18 months of a 48 month first term President), as well as the potentially conflicting priorities/agenda between ensuring re-electability versus doing what you actually campaigned for. Why does the electorate (irrespective of party) constantly complain about how much a politician diverges from his campaign promises? Is there any other way?
If you remove the "stability" of having that second term (I suggest re-elections are a relatively sure bet based on the last 30 years), I think a politician would feel far more accountable for keeping those campaign promises - they will certainly be fresher in the minds of those who elected him/her and they have only one shot at establishing their "legacy".
The other element of "stability" that we should do away with (although I have no proposed mechanism for accomplishing this) is to eliminate that guaranteed lobbying gig that awaits every former politician. Lobbying does have its place, I just don't think it should be a security blanket for an ex-politician. Like any other citizen of this country, have the politician's future employability depend on how well they conducted themselves during their term. Did they meet their metrics or not? Simply having the Presidential or Congressional gig shouldn't be the meal ticket to wealth that it is right now. A pipe dream, I realize...
On this same trip, I recently finished Thomas Friedman's "Hot, Flat, and Crowded". While I found some of it repetitive, I agreed with some of the sentiments concerning how this country should move on the policy front. One section toward the end really jumped out at me, where he suggested the "China for a day" solution.
"As far as I am concerned, China’s system of government is inferior to ours in every respect—except one. That is the ability of China’s current generation of leaders—if they want—to cut through all their legacy industries, all the pleading special interests, all the bureaucratic obstacles, all the worries of a voter backlash, and simply order top-down the sweeping changes in prices, regulations, standards, education, and infrastructure that reflect China’s long-term strategic national interests—changes that would normally take Western democracies years or decades to debate and implement."
As a case in point, he cites a 2007 degree by the government that shopkeepers across the country would be prohibited from distributing free plastic bags to discourage the mass usage of petroleum-based products; a measure that was to go into effect 6 months later. Contrast this with the 22 years it took us to fully move to unleaded gasoline!
This kind of rhetoric gets you instantly branded as a communist, but we are sometimes too democratic for our own good. I would suggest a slight modification to Friedman's proposal - perhaps we have one day of a scientifically-led oligarchy. A panel of the brightest most apolitical scientists are assembled to decree policy changes that are in our own best long-term interests, that we are unable to implement under our current gridlocked, partisan style of government.
Alas, the rub is we need to ask these same ineffectual politicians for permission to have their power taken away from them for a day. How long do you think that piece of legislation would take to get passed?
Friday, April 13, 2012
Saturday, March 17, 2012
Professor Rowland, science, and policy change
Having worked in Professor Rowland's group as an undergraduate at UC Irvine, I would be remiss in not saying something this week after his passing.
I spent a few quarters working in his labs between 1994-1995 (and was fortunate enough to be around when his Nobel Prize was awarded!). Those experiences were my first taste of research that "really mattered". I had another project I was working on simultaneously in the Engineering department, having something generically to do with microelectronics, but when I took a step back, I asked myself, "Who cares about this?" I wanted to be working on a project, in whatever capacity possible, that had real societal impact. Studying and measuring the impacts of air pollutants just seemed a hell of a lot more important to me. While later in my career in graduate school and as a postdoc I drifted away from atmospheric chemistry, those early experiences were formative, and I still aligned myself with research that I believed mattered (solar energy, water purification).
Whenever I think of my research experience in Rowland's group, it both inspires me for what is possible when science drives policy making, but also discourages me, considering the sorry state of affairs we're in right now. I continue to be blown away at how comparatively easy it was to go from the discovery of ozone-depleting reactions by Rowland, Molina and colleagues, to the discovery of a hole in our ozone layer, to later passing the Montreal Protocol. While I'm sure those events felt like an eternity to those guys between the late 70s to late 80s, they are going to seem like a blink of the eye relative to how much time we're going to continue to filibuster on the issue of climate change. More specifically, the anthropogenic causes of increases in atmospheric CO2 (and other more potent greenhouse gases) and its resulting impact on global temperatures. See this article in Tech Review for additional historical perspective.
How was it that we managed to muster enough will to get the Montreal Protocol passed? What was different then compared to today? You still had large corporate lobbies and interests to fight against. For example,
What changed then? For all the positive attention it has brought to the issue of climate change, Al Gore's work in 90s may have flipped the switch and turned science into politics. I believe it to be mostly well-intentioned - you're passionate and well informed about a topic, you have political clout, so you want to get the message out and see if you can drive change. Sadly, not all politicians "did their homework" as much as Gore did on this subject, and so subsequently you had every bonehead on The Hill weigh in with their take on global warming.
I've proposed this wacky idea before, but a scientific literacy test for Congressman might help. You just have ask the question, are these politicians really that poorly informed about "real science", or are they just pretending to be obtuse and playing the political game? If you assume the former, we can try to inculcate some science into politicians or try to convince a scientist to become a politician. But while politicians today liken themselves to armchair scientists, I'm not sure any self-respecting, successful scientist would want anything to do with the practice of politics.
I spent a few quarters working in his labs between 1994-1995 (and was fortunate enough to be around when his Nobel Prize was awarded!). Those experiences were my first taste of research that "really mattered". I had another project I was working on simultaneously in the Engineering department, having something generically to do with microelectronics, but when I took a step back, I asked myself, "Who cares about this?" I wanted to be working on a project, in whatever capacity possible, that had real societal impact. Studying and measuring the impacts of air pollutants just seemed a hell of a lot more important to me. While later in my career in graduate school and as a postdoc I drifted away from atmospheric chemistry, those early experiences were formative, and I still aligned myself with research that I believed mattered (solar energy, water purification).
Whenever I think of my research experience in Rowland's group, it both inspires me for what is possible when science drives policy making, but also discourages me, considering the sorry state of affairs we're in right now. I continue to be blown away at how comparatively easy it was to go from the discovery of ozone-depleting reactions by Rowland, Molina and colleagues, to the discovery of a hole in our ozone layer, to later passing the Montreal Protocol. While I'm sure those events felt like an eternity to those guys between the late 70s to late 80s, they are going to seem like a blink of the eye relative to how much time we're going to continue to filibuster on the issue of climate change. More specifically, the anthropogenic causes of increases in atmospheric CO2 (and other more potent greenhouse gases) and its resulting impact on global temperatures. See this article in Tech Review for additional historical perspective.
How was it that we managed to muster enough will to get the Montreal Protocol passed? What was different then compared to today? You still had large corporate lobbies and interests to fight against. For example,
The chair of the board of DuPont was quoted as saying that ozone depletion theory is 'a science fiction tale...a load of rubbish...utter nonsense' (Source)I think the popular explanation here is that politics was less polarized back in the 80s. That feels too simple and sentimental an explanation. However, I do have this gut feeling that at least science was not as politicized back then. Politicians were smart enough to realize that they weren't smart enough to issue well informed opinions on technical matters themselves.
What changed then? For all the positive attention it has brought to the issue of climate change, Al Gore's work in 90s may have flipped the switch and turned science into politics. I believe it to be mostly well-intentioned - you're passionate and well informed about a topic, you have political clout, so you want to get the message out and see if you can drive change. Sadly, not all politicians "did their homework" as much as Gore did on this subject, and so subsequently you had every bonehead on The Hill weigh in with their take on global warming.
I've proposed this wacky idea before, but a scientific literacy test for Congressman might help. You just have ask the question, are these politicians really that poorly informed about "real science", or are they just pretending to be obtuse and playing the political game? If you assume the former, we can try to inculcate some science into politicians or try to convince a scientist to become a politician. But while politicians today liken themselves to armchair scientists, I'm not sure any self-respecting, successful scientist would want anything to do with the practice of politics.
Tuesday, February 21, 2012
Why do we blog?
Countless people have covered this subject before, but after trying this blogging thing for a few months, I thought it important to ask myself, "Why am I doing this?", and, appropriately, put those thoughts into a blog.
I've noticed that numerous thoughts and ideas enter my head every day about almost any subject. Occasionally, one of those is actually useful and I try to make a mental note to contemplate that later. Of course, as one would expect, the thought vanishes almost as quickly as you tell yourself to make that note. This is where the blogging comes in.
I think of blogging like I do a dream journal. They say you can never remember your dreams (and begin the rich process of figuring out what they tell you about the skeletons in your closet), unless you jot them down on a notepad.
Blogging about my thoughts and ideas, regardless of whether I have an audience, is a tremendous focusing exercise. It helps you make concise what might otherwise be a series of incoherent, disconnected concepts, because you never know, someone might actually be paying attention to all of your babbling.
I've noticed that numerous thoughts and ideas enter my head every day about almost any subject. Occasionally, one of those is actually useful and I try to make a mental note to contemplate that later. Of course, as one would expect, the thought vanishes almost as quickly as you tell yourself to make that note. This is where the blogging comes in.
I think of blogging like I do a dream journal. They say you can never remember your dreams (and begin the rich process of figuring out what they tell you about the skeletons in your closet), unless you jot them down on a notepad.
Blogging about my thoughts and ideas, regardless of whether I have an audience, is a tremendous focusing exercise. It helps you make concise what might otherwise be a series of incoherent, disconnected concepts, because you never know, someone might actually be paying attention to all of your babbling.
Thursday, February 16, 2012
It's the rate that matters!!!
I say it week after week, but another great post this week by Tom Murphy (UCSD Physics Professor) on our fossil fuels dilemma. He reviews the Hirsch report, which outlines the peak oil problem and its ramifications. To review, peak oil occurs when we are roughly halfway through our conventional oil supply, and it is at that point that the production peak (the maximum rate of extraction) is reached.
Among the solutions offered to the peak oil problems are: increased vehicle efficiency, enhanced oil recovery, heavy oil and oil sands, coal liquefaction, and gas-to-liquid conversion. If one examines some of these options from a purely supply point of view (e.g., our now seemingly inexhaustible natural gas reserves), one naively reaches the conclusion that our problems are solved for decades or centuries.
This thinking ignores the rate side of the equation and the related problem of Energy Return on Energy Invested (EROEI). When you switch from a resource like conventional petroleum that offers a 100:1 ratio to as low as 5:1 for heavy oil/tar sands, you impact the rate at which that resource can be tapped into, no matter how large the supply might be (in theory).
And it is precisely the saturation and eventual decline in our rate of production of fuels that poses the biggest challenge to us (globally) right now. We have not faced such a dilemma before, as we have continued more-or-less unabated on a 2-3% global energy growth curve for many many decades.
The inability of some of our policy makers to see this is frustrating to me, being someone who is a scientist/engineer by training. Or perhaps they do see this and are just feigning ignorance about the problem?
Perhaps they could benefit from an introductory calculus class where they would begin to appreciate analogies like - a car with a 300 mile range that's only capable of going 1mph, or a car with a top speed of 100mph that takes the better part of an hour to reach said speed.
It's the rate that matters people!
Among the solutions offered to the peak oil problems are: increased vehicle efficiency, enhanced oil recovery, heavy oil and oil sands, coal liquefaction, and gas-to-liquid conversion. If one examines some of these options from a purely supply point of view (e.g., our now seemingly inexhaustible natural gas reserves), one naively reaches the conclusion that our problems are solved for decades or centuries.
This thinking ignores the rate side of the equation and the related problem of Energy Return on Energy Invested (EROEI). When you switch from a resource like conventional petroleum that offers a 100:1 ratio to as low as 5:1 for heavy oil/tar sands, you impact the rate at which that resource can be tapped into, no matter how large the supply might be (in theory).
And it is precisely the saturation and eventual decline in our rate of production of fuels that poses the biggest challenge to us (globally) right now. We have not faced such a dilemma before, as we have continued more-or-less unabated on a 2-3% global energy growth curve for many many decades.
The inability of some of our policy makers to see this is frustrating to me, being someone who is a scientist/engineer by training. Or perhaps they do see this and are just feigning ignorance about the problem?
Perhaps they could benefit from an introductory calculus class where they would begin to appreciate analogies like - a car with a 300 mile range that's only capable of going 1mph, or a car with a top speed of 100mph that takes the better part of an hour to reach said speed.
It's the rate that matters people!
Wednesday, February 15, 2012
The (Broken) Academic Publishing System
One thing many scientists have been griping about for a while is the broken system we have for disseminating scientific information. Among the complaints:
In disciplines like particle physics, particularly with the experiments coming out of the Large Hadron Collider (LHC), the open-source movement is well established and has a legitimacy associated with it. Why is that? Well, a project like the LHC involves many hundreds of researchers spread out across the world, was funded by several countries, and involves experiments whose finding are potentially so important (e.g., the discovery of gravitons) that the results must be widely and easily disseminated. Without the input of many other researchers, many of whom will attempt to replicate the results disclosed, no one will trust the legitimacy of those papers.
Unfortunately, not all research is this high impact and involves as much investment from the scientific community, and that is the uphill challenge we face. While the system works and is necessary in these specialized sub-disciplines of Physics, the key question is, how do you motivate scientists in other disciplines who have results worthy of a top-tier journal (like Science or Nature) to publish their results in an open-source journal? Why on earth would an Assistant Professor do that, and potentially jeopardize their tenure? Well, they wouldn't.
Hopefully, with the involvement of enough well published scientists (and a few Nobel Laureates thrown in there) we can start to build some steam in other fields like Chemistry and Biology.
- Motivation - The peer-review system does not sufficiently motivate reviewers to provide a critical review of papers. It is far easier to sing the praises of a paper and spend half the time reviewing it, than to trash it.
- Quality - There is a little too much of the "you scratch my back, I'll scratch yours" dynamic at play. Authors that have historically produced high quality work often get follow-on publications rubber stamped by reviewers, just on the basis of reputation, not on the individual merits of the work in review. There has also been a flood of "me too" journals, perhaps in response to complaints about cost, that publish arguably inferior work to their more well known counterparts.
- Money - The large publishers, like Elsevier, charge institutions and individuals an arm and a leg for journal subscriptions and individual articles (exceeding >$100 per article in some cases!). Only the largest of institutions can afford these, leaving the curious, scientifically-minded taxpayer who funds this research out of the loop.
arXiv is an e-print service in the fields of physics, mathematics, non-linear science, computer science, quantitative biology, quantitative finance and statistics. Submissions to arXiv must conform to Cornell University academic standards. arXiv is owned and operated by Cornell University, a private not-for-profit educational institution. arXiv is funded by Cornell University Library and by supporting user institutions. The National Science Foundation funds research and development by Cornell Information Science.arXiv has its own scientific advisory board and has "published" over 700,000 e-print articles to date, seeming to have all the trappings of a legitimate publisher.
In disciplines like particle physics, particularly with the experiments coming out of the Large Hadron Collider (LHC), the open-source movement is well established and has a legitimacy associated with it. Why is that? Well, a project like the LHC involves many hundreds of researchers spread out across the world, was funded by several countries, and involves experiments whose finding are potentially so important (e.g., the discovery of gravitons) that the results must be widely and easily disseminated. Without the input of many other researchers, many of whom will attempt to replicate the results disclosed, no one will trust the legitimacy of those papers.
Unfortunately, not all research is this high impact and involves as much investment from the scientific community, and that is the uphill challenge we face. While the system works and is necessary in these specialized sub-disciplines of Physics, the key question is, how do you motivate scientists in other disciplines who have results worthy of a top-tier journal (like Science or Nature) to publish their results in an open-source journal? Why on earth would an Assistant Professor do that, and potentially jeopardize their tenure? Well, they wouldn't.
Hopefully, with the involvement of enough well published scientists (and a few Nobel Laureates thrown in there) we can start to build some steam in other fields like Chemistry and Biology.
Wednesday, February 8, 2012
The difference between cleantech and other sectors
Below is one of the best statements I've heard that captures the challenge for cleantech companies versus those in other sectors (by Bob Walker of Sierra Ventures). This came at TiE Energy event where several VCs weighed in on the challenges in cleantech:
For example, in the reverse osmosis membrane industry, the improvement in seawater membrane element productivity (that is, number of gallons per day a spiral wound element can produce) has averaged roughly 3% per year for the last 3 decades, as compared to the 60% per year performance improvement given by Moore's Law.
Why is this the case? Well, it may partly reflect the relative lack of innovation in the water and energy sectors relative to computing, but there are also hard physical limits many of the technologies work up against that will not budge, no matter how hard we try. Going back to the water example, energy/pressure reduction is one of great challenges in membrane-based desalination (reverse-osmosis) right now. However, currently technology is only within 50% of the theoretical (thermodynamic) minimum, and practical constraints limit the potential energy reduction to less than 50%.
To practicing VCs in clean tech, I'm sure I'm preaching to the choir, but I'm not sure these points are well internalized by the industry as a whole and perhaps society at-large. Order(s) of magnitude performance improvements are not to be expected (in many cases) and timelines for prototype development/evaluation operate on fundamentally longer time scales than, say, the beta-release of an IT/Social Media product.
I think it's important for all of us to be properly calibrated as to what to expect of innovation in the clean tech sector and evaluate emerging technologies and investments therein accordingly.
"We are used to companies that are powered by Moore’s Law that sell into an entrepreneurial environment. Intel, Google, Samsung, and LG [all] have an entrepreneurial core. They’ve got to come up with the next cell phone or display technology. These are industries where if you miss a product cycle or two, you are dead. A lot of the industries that we consider cleantech don’t operate that way."Being the founder of a company in the water space with a new membrane technology, these statements certainly resonate with me. Pick your clean technology, whether it's a new membrane or a new energy storage device, and an associated metric (flux, energy/density, etc...) and you'll see anything but Moore's Law-like performance improvement.
 | |||||||
| Moore's Law transistor count growth curve, courtesy Wikipedia. Transistor count roughly doubled every two year, while chip performance (a function of number of transistors and their relative speed) doubled every 18 months. |
For example, in the reverse osmosis membrane industry, the improvement in seawater membrane element productivity (that is, number of gallons per day a spiral wound element can produce) has averaged roughly 3% per year for the last 3 decades, as compared to the 60% per year performance improvement given by Moore's Law.
Why is this the case? Well, it may partly reflect the relative lack of innovation in the water and energy sectors relative to computing, but there are also hard physical limits many of the technologies work up against that will not budge, no matter how hard we try. Going back to the water example, energy/pressure reduction is one of great challenges in membrane-based desalination (reverse-osmosis) right now. However, currently technology is only within 50% of the theoretical (thermodynamic) minimum, and practical constraints limit the potential energy reduction to less than 50%.
To practicing VCs in clean tech, I'm sure I'm preaching to the choir, but I'm not sure these points are well internalized by the industry as a whole and perhaps society at-large. Order(s) of magnitude performance improvements are not to be expected (in many cases) and timelines for prototype development/evaluation operate on fundamentally longer time scales than, say, the beta-release of an IT/Social Media product.
I think it's important for all of us to be properly calibrated as to what to expect of innovation in the clean tech sector and evaluate emerging technologies and investments therein accordingly.
Friday, February 3, 2012
Clean Tech Bust?
There's been much talk this week about the "clean tech bust", particularly after the article in Wired by Juliet Eilperin (national environmental reporter for the Washington Post). While some of underlying macro-trends (huge boost in domestic natural gas production) behind this are undeniable, we can't carry the bubble analogy too far here. Doing so masks very different underlying causes for the internet boom/bust of the 2000s and the current challenges in clean tech. I prefer the term "challenges" over "bust" so as to differentiate it from what happened in the internet sector and because "bust" has a more fatalistic connotation in my mind.
The internet boom was fueled by an explosion of companies with very low capital barriers to entry for investors. This led to a multitude of companies with no clear path to profitability, or in many cases, no business plan of any kind. The advantage here compared to other investment sectors was that the product (e.g. a search engine), or at least a beta version of it, could be developed quickly and the "business experiment" could be run in relatively short order. As an investor you were taking a big market risk here (with the technology risk relatively small), but you could do so on the cheap and get feedback quickly.
In clean tech, we have somewhat the reverse problem. Companies on the supply-side of energy will ultimately have huge capital requirements, and this has posed a huge barrier to entry for many investors. The comparatively long development horizon for most of these cleantech companies (~10 years to exit) means you don't have that quick feedback mechanism offered by the internet/IT investments. Thus, you may not discover flaws in your business model assumptions until $10M-100M of capital has been sunk in a given company. Nevertheless, what keeps investors engaged is the view of a clear, huge market opportunity as everyone uses kWh's, while not everyone absolutely needs those products of the internet boom. Investors have to be sold on this end-game. They must subscribe to ideas like "peak oil", suggesting that conventional petroleum prices will eventually rise once the easily-extracted reserves begin to dwindle, allowing renewables to reach cost-parity or ultimately become cheaper.
Another area where I think clean tech faces unique (but not insurmountable) hurdles relative to internet/IT concerns the lobbying efforts and influence of the incumbents. Take any example you like from the internet-age - say traditional print media battling online publishers, the recording industry battling distributors of digital music - and I would offer that that pales in comparison to the pressures exerted by the petroleum industry on the renewables industry. There's just a different order of magnitude of dollars at stake here.
All this being said, I think we are simply going through the inevitable growing pains that comes with a new technology sector and I remain optimistic about the future of clean-tech.
The internet boom was fueled by an explosion of companies with very low capital barriers to entry for investors. This led to a multitude of companies with no clear path to profitability, or in many cases, no business plan of any kind. The advantage here compared to other investment sectors was that the product (e.g. a search engine), or at least a beta version of it, could be developed quickly and the "business experiment" could be run in relatively short order. As an investor you were taking a big market risk here (with the technology risk relatively small), but you could do so on the cheap and get feedback quickly.
In clean tech, we have somewhat the reverse problem. Companies on the supply-side of energy will ultimately have huge capital requirements, and this has posed a huge barrier to entry for many investors. The comparatively long development horizon for most of these cleantech companies (~10 years to exit) means you don't have that quick feedback mechanism offered by the internet/IT investments. Thus, you may not discover flaws in your business model assumptions until $10M-100M of capital has been sunk in a given company. Nevertheless, what keeps investors engaged is the view of a clear, huge market opportunity as everyone uses kWh's, while not everyone absolutely needs those products of the internet boom. Investors have to be sold on this end-game. They must subscribe to ideas like "peak oil", suggesting that conventional petroleum prices will eventually rise once the easily-extracted reserves begin to dwindle, allowing renewables to reach cost-parity or ultimately become cheaper.
Another area where I think clean tech faces unique (but not insurmountable) hurdles relative to internet/IT concerns the lobbying efforts and influence of the incumbents. Take any example you like from the internet-age - say traditional print media battling online publishers, the recording industry battling distributors of digital music - and I would offer that that pales in comparison to the pressures exerted by the petroleum industry on the renewables industry. There's just a different order of magnitude of dollars at stake here.
All this being said, I think we are simply going through the inevitable growing pains that comes with a new technology sector and I remain optimistic about the future of clean-tech.
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