Laura Diaz Anadon, Assistant Professor in Public Policy at the John F. Kennedy School of Government at Harvard University, and Visiting Senior Lecturer in Science, Technology, Innovation and Public Policy at the Department of Science, Technology, Engineering and Public Policy at University College London, will present a public lecture on November 24 at the Graduate Institute in Geneva, Switzerland from 18:30 – 20:00.
This lecture, jointly hosted by the CIES at the Graduate Institute and the GGKP, will draw on recent interdisciplinary research to highlight new insights on the impacts of various policies on advancing energy innovation. Special emphasis will be placed on the growing experience from emerging economies and low-income countries in adopting new energy technologies. It will also suggest future research directions that could help to better inform ongoing national and international discussions on innovation in energy.
Q&A WITH LAURA DIAZ ANADON
1. What role can technological innovation play in moving society toward sustainable development?
Technological innovation can play a central goal to achieving all 17 of the Sustainable Development Goals agreed by the governments of 193 countries in September 2015. Innovation is both its own goal (#9), and key to addressing all other goals in a cost-effective manner. For example, innovation in agricultural technologies can mitigate hunger (goal 2) and protect ecosystems (goal 15); innovation in water technologies can increase the availability of water and sanitation for all (goal 6) while helping conserve marine resources (goal 14); and innovation in energy technologies has the potential to ensure access to affordable and reliable energy (goal 7), to mention a few. At the same time, technology also has the potential for great harm, as we see with the case of fossil energy technologies and global warming, or with the case of using antimicrobial drugs, which can build resistance and render them ineffective. So technological innovation poses both great opportunities and challenges.
2. What are the main challenges with respect to innovation in energy technologies?
As part of a project with over 30 multidisciplinary researchers that started 4 years ago, we came up with four key challenges common to harnessing technological innovation for sustainable development that are not specific to energy.
The first challenge is that technology innovation is a complex and non-linear process. It is complex in the sense that it does not only entail invention (or R&D) but it also entails experimentation in niche markets, adaptation, and widespread but also selection, adoption, adaptation and retirement. And it is non-linear in the sense that these processes are interlinked and widespread adoption can lead to insights that spur adaptation and further invention. In practice this means that actors interested in utilizing innovation cannot limit themselves to one part of innovation.
The second challenge partly stems from the first one. The wide range of activities that contribute to innovation almost always result in a multiplicity of actors, often acting at various levels. Actors may include final users, local governments, local and transnational firms, national governments, and international organizations. This means that coordination of actors and activities is a major challenge, as has been observed in cases such as cookstoves to replace traditional biomass for 1.7 billion people.
The third challenge is that technologies are heterogeneous, so the partnerships, incentives and approaches that work to, for instance, residential solar panels are not the most appropriate for centralized power generation, for instance. In fact, our research has shown that there are often more commonalities between the processes that can support innovation in technologies across sectors than within sectors. To give an extreme and somewhat obvious example: a ceramic water filter is more similar to a cookstove than a carbon capture and storage plant in terms of the processes and mechanisms for moving from initial invention of these technologies through to widespread use. For this reason, its extremely valuable to learn across sectors and not only look at examples from energy for example.
And fourth, people in low-income countries and poor people more generally have a lower ability to pay and thus exert less market-pull and political influence to guide innovation to meet their needs. This is a major problem in the context of sustainable development.
And to answer the question a little more specifically, I will also mention a challenge that may be more pressing in some parts of the energy sector.This more energy-specific challenge is that electricity or liquid fuels are commodities (unlike drugs that cure new diseases, for instance). So for grid-connected electricity, new technologies must compete with others that are not only creating the same product, but also have multi-decadal lifetimes, and have a system of regulations and actors interested in preventing change. Moreover, the price of the incumbent technologies does not include the health and environmental costs it is imposing on society. This presents an additional hurdle for some energy technologies.
3. Can you give us an example of a successful and of a non-successful adoption of energy technology by a developing country?
This is a very difficult, and perhaps impossible question to answer. Assessing success depends on the criteria used to measure success.
If by success one refers to the emergence of a local manufacturing industry that exports internationally, then the case of solar PV manufacturing in China would be successful. Interestingly, it is a case in which the central government played a relatively minor role at the beginning, as Christian Binz and I are showing in current work. If one refers to being at the forefront of science and technology in that particular area or pollution caused by the manufacturing process, then it the case of solar PV in China may not (at least as of now) be such a success.
Similarly, the case of wind power in China and India shows the difficulty in talking about success without some qualification.
In a paper with Kavita Surana we show that India and China both started promoting wind power development and manufacturing in the mid-1980s, although with very different approaches. India relied more on the private sector and China on state-owned enterprises. Depending on the metric that one uses, one could conclude that one, the other, both or none were more successful. Our research showed that there are tradeoffs related to the type of actors engaged in the promotion of an industry, the timing and magnitude of resources mobilized, and reliance on domestic versus foreign resources.
4. What additional research is needed to better enable energy innovation?
There is a breadth of experiences of policies or interventions across various sectors and technologies. But to use these experiences there are several areas that still need investigation.
First, it is very hard to determine what one can learn or transfer without a common framework to help us understand the process of technology innovation and the characteristics that make different technologies and circumstances comparable. In our project we developed a model and conceptual framework aimed at supporting such comparative analysis, but much more work is necessary to test and refine this framework.
Second, we know surprisingly little about the impact of various interventions within specific sectors and technologies. For example, in the area of R&D investments, we know very little about the effectiveness of different type of mechanisms (grants, prizes, collaborative agreements, national labs) across different dimensions (fundamental discoveries and inventions, patents, spin-offs, publications, human capacity development, etc). Thus, program evaluation is an important area for future research. There is emerging work even in the area of energy, including work by colleagues at the Kennedy School, but more is needed.
Third, even though we know from research that technology users cannot be an ‘afterthought’, we need to better understand what types of partnerships with what resources are more effective at meeting the most pressing needs on the ground. A subset of this gap is our poor understanding of how different actors can promote invention and adoption of energy technologies that address the needs in developing countries, instead of relying on adapting existing technologies. The reason for this ‘invention’ gap is of course related to the lack of market pull and to some extent empowerment, but it is an unresolved problem.
Fourth, through our multidisciplinary project we learnt about interventions that took place in health that were unknown to people in energy, and we discovered that some academic disciplines may have already done research in particular areas that other relevant disciplines or sectors may now know about. For example, behavioral economists has been active in energy, economists looking at intellectual property have been active in health. Innovation systems and historians scholars have looked at procurement in the case of defense and IT, etc. Given the rewards posed on specialization, it is hard for scholars to know about all relevant literature. For practitioners the task is also daunting, without some way to digest the vast literature.
5. What can the policy community do about it?
The policy community can work as the bridge builder between the research community and the technology users. Given the wide range of actors and activities required for innovation in a particular technology to take place, coordination is a crucial role. In our work we have seen that, depending on their resources, different policy organizations can act not just as the funders of initiatives, but (among other topics) also as conveners of various actors, as providers of legitimacy, and as partners in collaborative efforts, as providers of information (which includes putting to use the results of research) to reduce transaction costs, etc.
As we mentioned, there is little funding aimed at developing technologies to address specific needs in developing countries. The policy community can also foster research along the lines mentioned above! In summary, policy makers need to really grapple with how to re-orient innovation systems to better meet the needs of vulnerable populations including both the poor today and future generations who lack a voice in current innovation systems.
Dredd on Thu, 19th Nov 2015 7:14 am
Questionable “Scientific” Papers can throw a monkey wrench into any technology policies.
JuanP on Thu, 19th Nov 2015 7:40 am
I skipped this one. I have no time to read a retarded Harvard moron who believes technological innovation leads to sustainable development. This proves my point that a college education is worth nothing, particularly an Ivy League one. There is nothing worse than educated fools like this.
There is no such thing as sustainable development in the world today. This expression is either an oxymoron or a contradiction in terms depending on one’s level of understanding. Nuff said!
Davy on Thu, 19th Nov 2015 8:22 am
Firstly technological innovation is the source of our problems and using more technology to fight technological problems is a dog chasing his tail. Technological innovations are slowing drastically as the economy slows and energy quality declines. Populations are growing dangerously per carrying capacity. Our earth ecosystem from oceans to climate is in decline and localized failure. Technology brought this on it will not change anything. Technology just transfers one problem to another and or from one place to another.
Sustainable Development Goals are hope speak for a world of academics that don’t have answer that are solutions. The real honest answers are that the multitude of problems have no solutions and this is a macro predicament. This message is not politically correct per the global social narrative. That narrative is humans always have technological and knowledge based solutions if and only if they are applied correctly. This message is as old as modern man. This is why we are where we are at.
We really need to turn away from the hope speak in this article. We are in a paradigm shift of forced degrowth. The status quo of technology, energy, and economy is not going to operate as it did a few years ago before limits of growth problems went nonlinear. There was a time when this very intelligent article had some legitimacy but no longer. Pre 1980’s we maybe could have used technology to slow the end of modern man but technological man can never continue long term because it goes against nature and her ecosystem. The “natural” is the only long term and sustainable. What is natural well it is closer to semi-nomadic hunter gathers than modern man that is for sure.
Nonetheless this thinking employed by this author needs to be adapt to a descent-centric thinking. We need to employ these ideas in reverse and acknowledge descent, decay, and lifeboats. It is not that the mechanics of the message are wrong it is the message itself that is incorrect. We have to acknowledge technology is the problem, population is in overshoot, and development must go in reverse. There is no sustainable development.
We can have a pseudo “sustainable-degrowth” process of sorts. This would be a crisis situation in a declining economy. Once we enter a crisis of degrowth the normal economy will decay quickly and with it we will see drastic changes brought on by economic abandonment, dysfunctional networks, and irrational policy. IOW random chaos will be front and center in our political, social, and economic climate. The key is embracing this destructive change as our only hope for less pain and suffering.
There are some things we can change with the decline ahead. Many of these changes are as simple as saying no to poor activities and ending poor lifestyles. We can mitigate and adapt to problems we already have. We know sea level rise is now and will get worse. Instead of subsidizing coastal development we need to subsidize withdrawal from coastal development. The same is true in drought revenged areas. The last thing we need is more growth of population and development in Las Vegas. Lastly we need to have a social discussion that bad things are ahead. We can fudge from saying the whole story that very bad things are ahead. People need to know “bad” is ahead so when the very bad happens it will not be so bad. The very worst is expecting better and then the worst hits. This is what we are setting up for a huge global population and the anger will be immense and global.
You are saying “Davy these things are not possible”. I am saying the alternative in this article is not possible but for different reasons. What I am saying is our only hope is loosely what I said above and that is a dive into degrowth. A degrowth that is not and cannot be manage accept around the edges. It is likely we will not be adopting any degrowth policies accept when forced into it by circumstances. This is why I am saying we have a small window of a better collapse than a worse collapse by embracing the correct policies in a crisis. Let me emphasize small window. That is as much hope as I can give you guys.
paulo1 on Thu, 19th Nov 2015 9:42 am
“What role can technological innovation play in moving society toward sustainable development”?
Well, Laura, we invented a new light switch. This will allow us to turn off lights better when we aren’t using them. When everyone starts using this new switch it will be equivalent to shutting down 7 coal fired plants.
apneaman on Thu, 19th Nov 2015 9:45 am
How To Fuck 7 Billion People
“Right now the current sum of 400 ppm of CO2 will raise earth’s temperature 17°C in 1000 years. At 400 ppm of C02 earth’s temperature rise will NOT stop at 2°C in 100 years. This is illusion. It’s like we are kicking a ball 100 yards and negotiating the first 20 yards after the ball is in flight says scientist, Thomas J. Goreau.
We can’t even do the first 20 yards of 2°C over 100 years as it is, let alone the 17°C over 1000 years to come even if we wanted. This is called runaway.”
“Kevin Anderson’s Biofuel Rampage
In 2007, the IPCC told us emissions must peak by 2015 for 2 °C in 100 years.
In 2014, the IPCC told us emissions must peak by 2030 for 2 °C in 100 years.
The IPCC says we can do this because of what they call “future negative-emissions bio-energy”. meaning we will get energy by consuming plant matter in a way that pulls more CO2 out of the air than it emits; for which no such technology exists, and we need 1.5 billion acres of NEW farmland to do it. That much farmland is about the size of India, which is equal to nearly 50% of all the arable land on earth. Our cities and farms already occupy 50% of earth’s land.”
“To feed nine billion people all at once for all their lives means we will need 12 million acres of brand new farmland EVERY year for 30 years. Instead, we are losing 24 million acres of farmland EVERY year. We are losing soil at twice the rate we need to grow it just to be able to eat, never mind the additional requirements of BECCS.”
“94% Of Groundwater Is A Non-Renewable Resource
Ground water depletion has gone critical in major agricultural centers worldwide. Only 6% of groundwater can be renewed over 50 years of rain.”
Links & more
https://www.reddit.com/r/collapse/comments/3tfiez/how_to_fuck_7_billion_people/
penury on Thu, 19th Nov 2015 10:59 am
Like the man says “we all are fuked”
yellowcanoe on Thu, 19th Nov 2015 11:07 am
I think what she was trying to say is that technological innovation leads to a sustainable flow of publications and eventual promotion to Full Professor.
Davy on Thu, 19th Nov 2015 11:12 am
Pen, the question is when are we fock’d. Do we have 3-5-10 years? Most of us agree here on our fock’ing but I have yet to see agreement on the timing of this great event. I imagine it is all of the above since this is a process.
Pennsyguy on Thu, 19th Nov 2015 12:36 pm
Well said Davy, et al.
Two rather superfluous observations:
1. Our technology has allowed us to do amazing things. Imagine if Newton could see the world today. But, out technology has never, ever created any energy–the food for any human or non-human endeavor.
2. Complex technologies have limited effectiveness over time and will not solve any problems caused by complex technologies.
apneaman on Thu, 19th Nov 2015 1:39 pm
“It is not difficult to make microbes resistant to penicillin in the laboratory by exposing them to concentrations not sufficient to kill them… There is the danger that the ignorant man may easily underdose himself and by exposing his microbes to non-lethal quantities of the drug make them resistant.”
Sir Alexander Fleming – discoverer of penicillin
New ‘superbug’ gene found in animals, people in China
“London | Reuters — A new gene that makes bacteria highly resistant to a last-resort class of antibiotics has been found in people and pigs in China — including in samples of bacteria with epidemic potential, researchers said Wednesday.
The discovery was described as “alarming” by scientists, who called for urgent restrictions on the use of polymyxins, a class of antibiotics that includes the drug colistin and is widely used in livestock farming.
“All use of polymyxins must be minimised as soon as possible and all unnecessary use stopped,” said Laura Piddock, a professor of microbiology at Britain’s Birmingham University who was asked to comment on the finding.”
http://www.grainews.ca/daily/new-superbug-gene-found-in-animals-people-in-china
A Once Powerful Antibiotic Goes the Way of All Flesh
http://www.wired.com/2015/11/colistin-last-report-antibiotic-drug-resistance/
Imagining the Post-Antibiotics Future
After 85 years, antibiotics are growing impotent. So what will medicine, agriculture and everyday life look like if we lose these drugs entirely?
“As a biologist, Fleming knew that evolution was inevitable: sooner or later, bacteria would develop defenses against the compounds the nascent pharmaceutical industry was aiming at them. But what worried him was the possibility that misuse would speed the process up. Every inappropriate prescription and insufficient dose given in medicine would kill weak bacteria but let the strong survive. (As would the micro-dose “growth promoters” given in agriculture, which were invented a few years after Fleming spoke.) Bacteria can produce another generation in as little as twenty minutes; with tens of thousands of generations a year working out survival strategies, the organisms would soon overwhelm the potent new drugs.”
https://medium.com/@fernnews/imagining-the-post-antibiotics-future-892b57499e77#.sm96kp3pu
apneaman on Thu, 19th Nov 2015 3:06 pm
Here’s some wonderful Franken food/energy innovation. I think I’ll take a pass at least until some long term testing has been done…….on the unsuspecting consumer sheeple as per usual. If I start seeing little kids with a third eye or extra limbs, I’ll know it didn’t work out so well and just cross salmon off the menu permanently.
The FDA just approved the nation’s first genetically engineered animal: A salmon that grows twice as fast
https://www.washingtonpost.com/news/to-your-health/wp/2015/11/19/the-fda-just-approved-the-nations-first-genetically-engineered-animal-a-salmon-that-grows-twice-as-fast/?hpid=hp_hp-more-top-stories_gm
yukonfisher on Thu, 19th Nov 2015 6:09 pm
Between Jevon’s paradox and the laws of diminishing returns, technological innovation at best will buy some of us more time, while placing the rest of the world further into overshoot.
Regarding the super salmon above; TANSTAFL. A fish that grows twice as fast twice the size will consume at least 4 times the food as a conventional salmon. So its EROEI will be lower. It will probably compare, for flavour and texture, about as well to wild natural salmon as feedlot cow does to wild bison.
apneaman on Thu, 19th Nov 2015 7:45 pm
Some more of that hi-tech sustainability.
ToxiCity
Ghana is one of several African countries where electronic goods are sent once they have been discarded by developed nations. Agbogbloshie is an enormous dumping ground near Accra where digital appliances are dismantled for scrap. The process employed by those working there involves burning off plastic casing to uncover metal components. As a result, extremely toxic chemicals are released into the environment
https://rtd.rt.com/films/toxicity/
newfie on Thu, 19th Nov 2015 7:59 pm
Oh sure. “Sustainable” never ending growth. ROTFLMAO.
makati1 on Thu, 19th Nov 2015 8:01 pm
As mentioned, if you are not using a appliance, tuen off the electric at the plug and save a lot of electric and $$$.
“Standby and baseload consumption together can account for 10% of the energy used in an average house – around $200 per house per year (all electric house @ $0.28/kWh).”
http://www.level.org.nz/energy/appliances/standby-mode/
BTW: If you are not paying that amount per KwH now, you soon will be.
makati1 on Thu, 19th Nov 2015 8:03 pm
Didn’t bother to read this Unicorn huger ‘write for a paycheck’ article. Headline told me what I would find under it. Bullshit.
onlooker on Fri, 20th Nov 2015 9:12 am
Magnificently stated Juan, this moronic article is just one step above in stupidity from claims such as former President Ronald Reagan “There are no great limits to growth because there are no limits of human intelligence, imagination, and wonder.” Also, their is Julian Simon who argues growth has no limits because humans and their intellectual capacity has virtually no limits. I guess he forgot that these humans need to be fed haha.
GregT on Fri, 20th Nov 2015 10:19 am
Human beings are every bit as smart as the bacteria in this clip:
To Boldly Grow
https://www.youtube.com/watch?v=pztmw1R5qcw
Kenz300 on Fri, 20th Nov 2015 12:18 pm
The transition to safer, cleaner and cheaper alternative energy sources is growing around the world.
China pledges to achieve cuts to greenhouse gases|Politics|chinadaily.com.cn
http://usa.chinadaily.com.cn/china/2015-11/20/content_22486817.htm