Egregoros

Signal feed

Timeline

Post

Remote status

Flash memory invented in 1984.

This is a great example of a technology with a slow innovation curve, but one that would eventually come to replace a lot of other things.

If you were smart, you would have known that (for example) tape based video cameras were going to be disrupted when flash memory hits enough density.

These things are tricky to think about because in many cases the growth curve is exponential, so something goes from "few kilobyte Nintendo cartridge" to "multi-terabyte SSD on a stick" in the matter of 4 decades.

These things are important to see and keep an eye on, because they are sitting there in plane sight, but most people don't pay attention - and they change how the future will look.

RT: https://mastodon.world/users/labrafa/statuses/116538277647424312

Replies

12
Batteries and solar are two emerging technologies which have exactly this kind of behavior - which is why I'm very bullish on the future of these technologies.

I acknowledge the problems, and particularly that geothermal and nuclear are WAY BETTER from first principles. But the thing is, there's insane amounts of R&D going into solar and batteries, so they're evolving FAST, while nuclear and geothermal have relatively little R&D and so they're stuck in the doldrums (for now).
Which technologies win? The ones that can find a small boring niche and move up the chain from it.

Batteries -> Laptops and Cell Phones -> Cars -> Grid storage -> ???

It was really laptops and cell phones that gave batteries the beach-head to be able to start pushing out from.

Nuclear is an incredible technology, but it's very hard for it to evolve because it's not able to get this beach-head. Nuclear reactors are huge monstrosities which are developed by a few companies and there's very little competition and R&D compared to the cut-throat battery industry where finding a better chemistry is the difference between being King Shit and being Piece of Shit.
China and India have started deploying utility solar like mad and (for the first time ever) petroleum / coal generation has gone flat.

The logic IMO is that yes unreliable production sucks, yes batteries suck, but mining, transporting, and burning coal, then dealing with the issues from dirty smoke in the cities, sucks more.

And China IS building a shitload of nuclear capacity, but they're also putting in a shitload of solar because it's quick and cheap to install, and nuclear is the opposite of quick and cheap to install...
> The drop in Lithium prices correlates with China digging up more Lithium.

This is not price of lithium commodity, it's the price of battery capacity. As batteries become more dense, the price of capacity drops even if the price of lithium remains the same.

> China's markets aren't exactly natural

Oil is worse because a battery you buy once, oil you buy continuously as you use energy.

> No one wants to be dependent for their energy, least of all on China.

Everybody buys everything from China, basically nobody cares.

> As for the solar panels
> the trend is clearly slowing

Pic related.
> Oil isn't worse, but it's a long story.

It isn't worse if you're an oil producer, but for everyone whose not, it's a total shit deal.

> government subsidies

If you think the utility scale solar installations getting built in China and India are all because of hippie brainworms, IDK what to tell you...
I don't know what you're getting at then. You're saying it's all government subsidies, but then it's not hippie brainrot, and China and India are deploying it in massive quantities ... for some reason(?)

What exactly is it that you're claiming here?
What I think you're missing here is that the incentives really don't matter much anymore because the cells themselves have become insanely cheap. It's about 10ish cents a watt on Alibaba. 15 cents delivered in Europe. So India is probably doing it for 5 cents a watt if we're being honest.

Now for every watt installed, you get about 1000 watt-hours per year (France). In Africa you get 2000 watt-hours per year.

So math: If on average you're paying in 5 cents a watt, and your power cost (during sunny hours) is 5 cents per kwh, it takes a year to pay itself back. That is insanely good...

Now maybe power is worthless in the day, but it's worth something at night... Battery storage is about $50/Kwh. If you're time-shifting by one day, you need to store 1/365 of that 1000 watt-hours you're generating in the year so you can release it at night. So you need another 13 cents of batteries.

5 cents of panels + 13 cents of batteries to make power that is available any time day or night, as long as sun WAS available in that 24 hour period.

You do still need coal or natural gas for long cloudy periods, but if you're a grid operator, you'd be insane not to throw some panels in the mix to reduce your fuel burn during summer months. This is the logic by which India and China are building solar.
The operative word here is "elaborate".

In India (I imagine) they want to steal the money, they pocket it and call it a day.

In the US, they have this entire fanfic series around alternative energy and climate and making people feel good, and it's all very wasteful - in that a lot of money goes to places other than the politician's pocket, but the US is SO RICH that it's possible to get away with that type of thing...