1/I recently read American Prometheus, about Robert Oppenheimer, to get some insight into rapid, large scale science innovation. Oppenheimer famously led the Manhattan Project that led to the atomic bomb. A lot of interesting lessons, so, a THREAD.
2/The first reflection I had, which is counterintuitive and really wasn’t what I expected: the Manhattan Project was actually much smaller scale than I expected. What made it so successful wasn’t some outlandish budget, at least in modern terms.
3/Let me explain. The Manhattan Project spent ~$2B, or ~$20B ($4B/yr) in today’s dollars. An enormous amount, to be sure, but comparatively, smaller than the DOE budget today ($46B/yr) or even individual company R&D like Amazon (42B/yr). sgp.fas.org/crs/misc/RL346…
4/Of course these funds were concentrated to a single program, while today the DOE and companies fund many items, but I was actually shocked at the absolute funding level. I’d built it up in my head to be much more.
5/So if it wasn’t unprecedented (in modern terms) funding that led to the Manhattan Project’s success, what was it? I think three things played a major role:
-Timing
-Focus
-Bureaucratic streamlining
Let me explain.
6/TIMING. All applied engineering breakthroughs are preceded by basic science breakthroughs. This can lead to a common phenomenon in hard tech, one we call “overnight successes, decades in the making”. Once the right groundwork is laid, innovation can happen FAST.
7/In the Manhattan project, major science breakthroughs in atomic physics in the preceding decades laid the foundation for rapid Applied R&D. In Oppenheimer’s words:
“We took a tree with a lot of ripe fruit and shook it and out came radar and atomic bombs.”
8/You can’t just manufacture a Manhattan Project out of nowhere, there has to be a basic foundation. Solar’s 2010s surge is a great example. Lot’s of R&D got the cost curve down over decades, and once it passed a cost tipping point, it had an explosion of growth.
9/FOCUS. The life of a modern researcher is quite different than the focus achieved on the Manhattan project. In short, the administrative burden on researchers, as well as the lots-of-little-grants approach to funding leaves our researchers spread thin.
10/Researchers at the Manhattan Project got to put 100% of their time and attention into executing one project. Modern researchers spend the majority of their time dealing with administrative tasks, and even when they do research it’s very scattered.
11/In the modern funding system, most researchers apportion their time a little here, a little there, 20% to a grant, 33% to another, etc. This constant switching, and wild swings in timeline due to external factors like award negotiation, doesn’t leave a lot of time for FOCUS.
12/BUREAUCRATIC STREAMLINING. Given the urgency of the war effort, and the fact that the Manhattan Project predated a lot of review laws, they did things exceptionally quickly. Some of the anecdotes on project development are shocking in a modern context.
13/For example, when it came time to pick a test site, Oppenheimer just scouted an area in the New Mexico desert on horseback, picked it, and then cleared an area using eminent domain. That was it. No permits, review, stakeholder engagement. Nothing.
14/Of course this isn’t possible now, nor should it be. Many of the permits and reviews we have today are vital to protecting the environment, people, and historical significance of regions. But in many cases modern restrictions prevent anything from happening.
15/Take for example geothermal permitting. NREL found a single project can invoke 6 different Environmental Assessments, each taking 10 months to complete. In fact the majority of the development timeline is spent waiting on permits. osti.gov/pages/servlets…
16/NREL also found we could double the geothermal in the US from just shortening this timeline by two years. Timelines the most underappreciated factors in science innovation, and the Manhattan Project was a success in part because it could move at a rapid timeline.
17/There are a lot of lessons for modern innovation that we can learn from the Manhattan Project, and thankfully the lessons aren’t just spend more money. We can reinvigorate innovation in climate change and other fields from improving the research process.
18/TIMING. It’s key we keep spending on basic science and early stage innovation. Conceptual breakthroughs of today will become the trees we shake fruit from in the future. Nothing is too urgent to abandon basic science and innovation spending.
19/FOCUS. We must trust our researchers more. Researchers should be able to get funded quickly, have more autonomy, and be able to focus more on singular projects. I hope we see a lot more programs like Fast Grants that @patrickc writes about here.
20/STREAMLINING. We need to find a better balance between careful planning and actually building things. Innovation, particularly in solving climate change, is going to require us to build. A lot. @jtemple has a great overview here. technologyreview.com/2020/01/15/130…
21/I’m encouraged that there are more lessons from the Manhattan Project beyond just spend a ton of money. We can do big things in science, fast, and it’s going to help us solve climate change. We just need the right focus. END
PS: The creation of the atomic bomb is a controversial topic, one the author's of American Prometheus do a great job discussing. It's complicated, especially during the total war of WWII, and the ethics are to tough to get into on twitter, so this thread is just on science.
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1/Nearly everything we take for granted in the modern world is the result of government funded research and public-private partnerships. @apoorv_bh89 recently laid down this challenge. Challenge accepted.
2/The weird but true story of the government-backed McRib goes back, way back, to the days of WWII. Supplying soldiers in combat with healthy and tasty food to keep them going in trying conditions has been a challenge for millennia.
3/WWII meant delivering a lot of things, including food, on a size and scale that had never been done before. The military partnered with the private sector to provide better and better options for combat meals. Famously, this produced the M&M. militarytimes.com/off-duty/2016/…
1/Alright this is an experiment, probably my most obscure thread to date, but I want to talk about one of the step-change tech breakthroughs being applied to geothermal that is transforming the sector: the polycrystalline diamond cutter (PDC) drill bit. THREAD:
2/First, a little overview of the drilling process, which is similar whether you are targeting oil, gas, geothermal, minerals, water, etc. It mostly involves breaking rock down with a drill bit and removing the pieces by circulating them up from the bottom.
3/A predominant early method of drilling basically involved dropping something hard into the ground over and over again to make a hole, called “percussion drilling”. You can see this technique in action many times in There Will Be Blood.
1/Ok so now that we are all interested in electricity reliability, really big ruling from the California PUC today. Recognizes a 7000MW (!!) shortfall by 2025 and calls for new resources, including 1000MW each of new geothermal and long duration storage. docs.cpuc.ca.gov/PublishedDocs/…
2/What’s going on? 2020 rotating outages exposed major vulnerabilities in California and in the next few years, Diablo Canyon nuclear and a lot of once-through cooling (OTC) natural gas is set to retire. The problem is just going to get worse.
3/The Administrative Law Judge (ALJ) ruling looked at revised peak load requirements, shutdowns of nuclear and gas capacity, and compared it to existing planned procurement in the state. It’s not pretty. Mid case below:
Regular reminder that pretty much everything defining the modern energy sector--wind, solar, shale O&G, li-ion batteries, EVs--has its roots in a brief period in the 70s when we actually spent $$$ on R&D. We can and should do it again. Chart from @ITIFdc.
Wind:
"In the United States, in contrast to Denmark, the oil crisis of 1973/4 resulted in a sudden government intervention into wind energy which, paradoxically, was to prove a crucial factor in the growth of Danish firms." hbs.edu/faculty/Public…
Wind:
"Between 1973 and 1988, $380 million of federal was spent on wind turbine development. Following the pattern of AECs funding of civilian nuclear power , the government fully funded large turbines by leading firms, including Boeing, General Electric and Westinghouse."
1/Alright, now that everyone is paying attention to geothermal, time to discuss one of the more exciting developments that is driving geothermal growth to become a mainstream resource: the emergence of modern, emission free, low temperature binary cycle geothermal plants. THREAD
2/Geothermal power for a long, long time, since at least 1904 when the Larderello steam field produced 10 kW in Tuscany. But for nearly the first 100 years, geothermal was limited to places like Larderello, extremely high temperature reservoirs. power-technology.com/features/oldes…
3/This is because geothermal power used dry steam of flash technology, and to provide power, the fluid had to have enough steam to directly power a turbine. By contrast, binary cycle plants heat a different working fluid for the power conversion process. (from DOE GeoVision)
1/Ok y’all, this @jasonbordoff piece is just fantastic. His boldest, and in my opinion accurate, claim is that petrostates will be winners of climate change policy. So let’s unpack that with a THREAD. foreignpolicy.com/2020/10/05/cli…
2/The first principle you need to understand is the nature of current oil production and reserves:
Big Oil (Majors) makes the most headlines, but National Oil Companies (NOCs) have the most oil. Big Oil only controls ~10% of global oil reserves. webstore.iea.org/download/direc…
3/And beyond that, not all reserves are equal. Check out WoodMac’s estimate on breakevens by resource. Notice something? The VAST MAJORITY of low cost oil is controlled by NOCs. woodmac.com/reports/upstre…