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Lost_Geometer


				

				

				
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joined 2022 September 17 22:46:14 UTC

				

User ID: 1246

Lost_Geometer


				
				
				

				
0 followers   follows 0 users   joined 2022 September 17 22:46:14 UTC

					

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User ID: 1246

As far as I've seen commercial storage targets shorter duration, less than a day, so I don't really have a source for how the duration scaling works. The limit is where the footprint is dictated by the storage of redox active material. Large tanks are a bit squat, but still contain enormous volumes reasonably compactly.

I do Python (and could use of job, if you want to get your forum-nepotism on). Python comes with a bunch of footguns, in that you can make the language behave unexpected ways by, for instance, executing arbitrary code at places like member or index accesses, have completely divergent function behavior depending on argument count and type, or change the behavior of existing objects (almost) arbitrarily at runtime. The art of Python programming is to use these features, with documentation, when appropriate but no more. These issues probably play out a bit differently depending on team and codebase size.

All the usual advice about factoring code into small pieces through narrow interfaces stands in any language.

Half of the year with the surpluses we could split corundum into al and oxidize, in the winter burn it as thermite.

Not having run the numbers I rather like this solution. We need aluminum anyway, so surplus production isn't as big an issue. Moreover Al is about as ideal a long term energy storage medium as exists -- it's abundant, extraordinarily energy dense by both weight and volume, and safe-ish to handle. Getting power out can likely use existing thermal technology on a large scale, and possibly electrochemical means on a small scale.

Methane from hydrogen is actually medium efficient -- apparently up to 80% if you use archea. Hydrogen from water is another 75% though, so together it's far worse than, say, flow cells. But in a world where power assumed to be cheap, but long term storage and transport expensive, it becomes very viable.

Could you share some details? From where I sit it's hard to estimate the land requirements for electrochemical storage because there is so little market for multi-day systems. In particular, long term storage should depend on available volume, not area.