Solar can be deployed by hundreds of thousands of individual efforts and financing at the same time, with almost no bureaucracy. It starts to produce electricity basically the same day.
I can't imagine anything being able to compete with that for speed and scale - or costs, for that matter. Once deployed it's basically free.
The issue is that works perfectly well when solar is a small % of the grid, but when that number grows, then you need grid scale solutions and coordination for things to continue working well. And that requires both technical skill and political will.
Solar is highly distributed. At the most basic level with a solar & battery system the production and consumption and CONTROL are all yours. You own it and it's literally on your property.
Refinements on ways to sell it to neighbours / recharge various EV's / use it for new purposes are all up to you.
There are lots of analogies to self hosting or concepts around owning and controlling your own data, when it's owned by you, you retain soverignty and full rights on what happens.
I'd expect most tech people will value the distributed nature of solar over equivilents, that by design require centralisation and commerical/state ownership and control.
Get your solar, back increasingly distributed approaches, let those pushing centralised agendas be the ones to pay for their grid. Eventually they are forced to change.
As we're finding in Australia, our high solar uptake by citizens.. is pressuring governments to respond, lest their centralised options become redundant.
The bigger issue, at least in the US, is that there is a huge lack of supply in the equipment to connect to the grid at the moment. Backlogs are still 1-3 years after order, not terrible but still an issue deploying.
(Home) batteries are quickly becoming cheap and per-hour electricity rates can be implemented at a reasonable time. With that, the grid owner can influence the grid stability without having to build capacity or generation itself.
My goal is to do wholly owned solar and batteries at home, only using the grid as backup, if I move out of the city. But I think the big problem with this new demand is that it’s for data centers. I can’t see that working for them.
We see that quite often here in the summer as the energy price sometimes drops to minus 60ct/kWh (more often it hovers around -5 to -10). It is pretty much "please use everything now" to avoid grid issues. It often happens on very clear days with lots of wind.
Well as we all know the political will in this country seems to generally be "let's all commit suicide together", but perhaps mass installations of solar will provide material reason to improve conditions somewhat.
i wonder if ppl's electricity consumption habits will change in response to this, idk like turning the heat way up during the day or using high power appliances more during the day
We have a solar electric plan - the price per kWh is much higher during the duck curve in return for cheap rates during sunshine hours. The rates are something like 1x during night, 0.5x during sunshine, 4x during the morning and afternoon peaks.
We have our heat pump water heater running during the cheap hours, and also change our use of air conditioning/heating to accommodate.
It would probably not work in our favor if we didn't work from home and were out of the home all day.
That is something you can reasonably do, but it's only useful in winter.
> or using high power appliances more during the day
Well, given that people have to work during the day, I doubt that that will work out on a large enough scale. And even if you'd pre-program a laundry machine to run at noon, the laundry would sit and get smelly during summer until you'd get home.
The only change in patterns we will see is more base load during the night from EVs trickle-charging as more and more enter the market.
At least in the US there is a push to make electric appliances smarter already. So for example, the electric hot water heater responding to the strain on the grid. The same could happen for AC, heat, EVs and other higher load appliances. At scale that can help out the grid immensely either in times of peak load or dip in demand.
There should be a minimum level of expertise or commitment to the truth so that publication who certainly think of themselves as major league or factual don't publish blatantly false statements like this.
Yes, demand rose, and solar panels were installed whose capacity was about 60% of the new demand, but to say solar handled 60% of new capacity is blatantly false.
As someone who owns solar panels, I'm painfully aware that there can be days, weeks of bad weather when there's barely any generation. But even at the best of times, solar has a hard time covering for the demand of something like data centers which suck down insane amount of juice round the clock.
There's also no information about whether these data centers are located to be close to solar farms, and we know that in many cases, they're not.
Confusing headline (on purpose I'm sure). No, solar didn't handle 61% of total energy demand. It handled 61% of the so-called "surge" - 3% growth over the prior year.
Where are all the "without nuclear power we're dooooooomed" people at the moment?
It's just like the eco nerds said all the time... solar not just works out on the technical side, it also works out on the build speed and financing side.
So the increase was 3.1% and it was "fourth largest in the last decade", which means, "barely above average growth rate". Considering that economy growth rate was the fastest in a decade except 2021 which was a covid recovery year, it doesn't really show anything abnormal at all.
Solar can be deployed by hundreds of thousands of individual efforts and financing at the same time, with almost no bureaucracy. It starts to produce electricity basically the same day.
I can't imagine anything being able to compete with that for speed and scale - or costs, for that matter. Once deployed it's basically free.
The issue is that works perfectly well when solar is a small % of the grid, but when that number grows, then you need grid scale solutions and coordination for things to continue working well. And that requires both technical skill and political will.
Solar is highly distributed. At the most basic level with a solar & battery system the production and consumption and CONTROL are all yours. You own it and it's literally on your property.
Refinements on ways to sell it to neighbours / recharge various EV's / use it for new purposes are all up to you.
There are lots of analogies to self hosting or concepts around owning and controlling your own data, when it's owned by you, you retain soverignty and full rights on what happens.
I'd expect most tech people will value the distributed nature of solar over equivilents, that by design require centralisation and commerical/state ownership and control.
Get your solar, back increasingly distributed approaches, let those pushing centralised agendas be the ones to pay for their grid. Eventually they are forced to change.
As we're finding in Australia, our high solar uptake by citizens.. is pressuring governments to respond, lest their centralised options become redundant.
The bigger issue, at least in the US, is that there is a huge lack of supply in the equipment to connect to the grid at the moment. Backlogs are still 1-3 years after order, not terrible but still an issue deploying.
(Home) batteries are quickly becoming cheap and per-hour electricity rates can be implemented at a reasonable time. With that, the grid owner can influence the grid stability without having to build capacity or generation itself.
My goal is to do wholly owned solar and batteries at home, only using the grid as backup, if I move out of the city. But I think the big problem with this new demand is that it’s for data centers. I can’t see that working for them.
We see that quite often here in the summer as the energy price sometimes drops to minus 60ct/kWh (more often it hovers around -5 to -10). It is pretty much "please use everything now" to avoid grid issues. It often happens on very clear days with lots of wind.
Mine bitcoin, run LLM inference, smelt aluminum, make synthetic fossil fuels from atmospheric CO2.
> make synthetic fossil fuels from atmospheric CO2.
that would actually be my preferred solution (if only it was less energy inefficient, sigh).
Well as we all know the political will in this country seems to generally be "let's all commit suicide together", but perhaps mass installations of solar will provide material reason to improve conditions somewhat.
i wonder if ppl's electricity consumption habits will change in response to this, idk like turning the heat way up during the day or using high power appliances more during the day
We have a solar electric plan - the price per kWh is much higher during the duck curve in return for cheap rates during sunshine hours. The rates are something like 1x during night, 0.5x during sunshine, 4x during the morning and afternoon peaks.
We have our heat pump water heater running during the cheap hours, and also change our use of air conditioning/heating to accommodate.
It would probably not work in our favor if we didn't work from home and were out of the home all day.
This is already a reality with smart chargers in the UK. Your electric car can be charged when the electricity rates are lower (night usually)
> idk like turning the heat way up during the day
That is something you can reasonably do, but it's only useful in winter.
> or using high power appliances more during the day
Well, given that people have to work during the day, I doubt that that will work out on a large enough scale. And even if you'd pre-program a laundry machine to run at noon, the laundry would sit and get smelly during summer until you'd get home.
The only change in patterns we will see is more base load during the night from EVs trickle-charging as more and more enter the market.
At least in the US there is a push to make electric appliances smarter already. So for example, the electric hot water heater responding to the strain on the grid. The same could happen for AC, heat, EVs and other higher load appliances. At scale that can help out the grid immensely either in times of peak load or dip in demand.
There should be a minimum level of expertise or commitment to the truth so that publication who certainly think of themselves as major league or factual don't publish blatantly false statements like this.
Yes, demand rose, and solar panels were installed whose capacity was about 60% of the new demand, but to say solar handled 60% of new capacity is blatantly false.
As someone who owns solar panels, I'm painfully aware that there can be days, weeks of bad weather when there's barely any generation. But even at the best of times, solar has a hard time covering for the demand of something like data centers which suck down insane amount of juice round the clock.
There's also no information about whether these data centers are located to be close to solar farms, and we know that in many cases, they're not.
Jevons paradox in action https://en.wikipedia.org/wiki/Jevons_paradox
Also known as induced demand (as more is available)
Confusing headline (on purpose I'm sure). No, solar didn't handle 61% of total energy demand. It handled 61% of the so-called "surge" - 3% growth over the prior year.
Where are all the "without nuclear power we're dooooooomed" people at the moment?
It's just like the eco nerds said all the time... solar not just works out on the technical side, it also works out on the build speed and financing side.
Curiously, TFA doesn't raise the question of why demand surged, it spends its 8 microparagraphs only praising solar.
I'm going to go out on a limb and say it has some thing to do with those data centers and LLM stuff.
Funny, I was thinking the same thing.
So the increase was 3.1% and it was "fourth largest in the last decade", which means, "barely above average growth rate". Considering that economy growth rate was the fastest in a decade except 2021 which was a covid recovery year, it doesn't really show anything abnormal at all.