Afghan opium growers have switched to solar power
bbc.com
bbc.com
In metro Phoenix, AZ (here in the States) we have been seeing something similar as the deep water have been drying up. Arizona is at the bottom of the water rights (from the Colorado river), and people’s solutions have been to install an electric pump to get at the water. With so many people draining off of the aquifer, people who have been depending on the water have been having difficulty with getting consistent water. Many of them are finding that they have to try to sell the property. What they have not been doing are things like, capturing the rain that does come to the region to irrigate crops or landscape; use of greywater; use of a composting toilet (which cleans waste with the carbon cycle rather than the hydrologic cycle), and otherwise conserve drinking and cooking water. Tuscon, AZ and Flagstaff, AZ have residents and public policies in place that does a much better job with this than Phoenix.
With cheap solar added to the mix, what will happen is that it hastens the aquifer depletion.
So those poppy farmers are not thinking with whole systems or thinking in the long term. On the other hand, if they were thinking in the long term, they probably would not be growing poppy as a cash crop in the first place. Perhaps small batches to make high quality anesthesia for local use, as part of of a more diverse crop. You don’t kill off your aquifer, and you don’t make something that will kill off your customers. You’d have nothing left.
My conclusion is that that the market forces, while transformative, is also very limited and short-sighted, and there are better ways for humans to interact with each other.
My chemistry professor was saying in the mid 2000s that water had already become the new Gold.
Collection of rainwater is never an option in farming. The reason they are irrigating is because there isn't enough rain. To capture enough rain to facilitate irrigation requires devices as large or larger than the fields to be irrigated. Rain barrels aren't enough. Agriculture measures water in acre-feet.
So you turn field B into a pond to hold water for field A. How deep is that pond? If it is only a couple feet you will loose all your water to evaporation. You need deeper water. You need a dam. So you better be good at concrete retaining walls, or hope there is a convenient river valley on your plot.
1. To scale, you are really trying to capture water in the soil itself
2. This means taking advantage of terrain features to manage patterns of flow. The idea here is to slow down flow so that it cycles through the planting areas so that the water can infiltrate instead of running off.
3. Mosquitos is a problem if pooling remains for more than three days. The solution here is to add organic compounds (mulching) to cover the areas being pooled. It effectively makes the water go below the surface, and have the added benefit of carrying composting nutrients deeper into the soil.
4. Soil’s ability to hold water depends upon a number of factors. Among them is how much carbon material is there, which includes the remains of root systems. Living, healthy soil will act as a sponge and release water to the plant as needed.
5. So protecting soil erosion is a huge part of conserving water. If the rain is carrying off soil because it is running off too fast, there is never a build up of soil to act as a sponge.
6. You may need to plant more than a monocrop. At least plant ground cover to protect the farm’s soil fertility.
7. Certain soil amendments can have lasting effect on its ability to absorb water. Biochar — charcoal that have been prepared in a way to make it suitable for plants — have the property of absorbing water and releasing it as needed. They also form habitats for microbes and fungi, which can also enhance plant growth.
8. Heavy fertilizing may be contributing to soil loss. They don’t help accumulate the kind of properties that help soil absorb water.
Here is an example paper about it: https://www.sciencedirect.com/topics/agricultural-and-biolog...
It is not as if this stuff is not well known
I used to be a Farm Manager, and did a 3 year apprenticeship in Biodyniamic Ag.
I know of very few crops that can remain fallow/non-irrigated and still do well come harvest, they exist but are hardly going to be widespread much less in AZ. And while there are practices that can be undertaken to conserve water (cover crops, large scale mulching, drip irrigation) all of which I have personal experience in utilizing, this was more about how to ensure the barrier of entry is excluded to those who would otherwise just deplete it in a tragedy of the commons manner.
Let me explain in more detail.
My idea was based on the following: to initially access the aquifer you must install another metered pump that must remain in operation and re-pump an equal amount that you pumped out of the table in earlier seasons throughout the year/season back into the source and failing to return it will not just incur costs/penalties but also deny you access to it.
When I was a Farm manager in Maui we had a similar issue with nearby dry land Taro growers, as a Biodynamic farm we have more active cultures with various water needs, so we had a large reservoir (20000 gallon capacity tank attached to a sand sand based filtration system) that ensured we could remain operational for extended periods of time of drought as we captured rain water as a ritual, but we could also replenish the source if need-be and often did to purge and clean the tanks. They can get moldy due to stagnation, and water is very important in Biodynamics, specifically that which if it is perturbed--its mainly just for water aeration.
The water source we captured from was a creek that came from Haleakala and was gravity fed to our cultures so it was considered sacred, and we were Haoles so we always had to make an even greater effort to maintain good relations with our Native neighbors. Nothing was ever good enough, but we did it anyway.
That meant fixing their neglected or poorly built dams/jetty, and offsetting their water needs when Maui electric shut off the water sources for maintenance and went way longer then they projected (Welcome to Hawaii!).
I lost all of my greenhouse starters so that our neighbors could have water that season and have something to bring to Market and I emptied my tank several times to do so and had to get creative about how I'd water my other active cultures with rain water and had to make due to continue to bring product to Market in order to keep our 1:1 profit sharing model with our vendors/produce managers.
We would was always be seen as foreigners taking resources, despite having been the only Farm on the Islands to take in people with special needs as part of our Program (Camphill), who we built an Art Studio for and then bought a large Home for that took money from our Ag program I was supposed to be managing. And after many 70+ work weeks we finally made them profitable for the first time in their entire existence proving the model can work, but requires EXTENSIVE amounts of hard-work, dedication, and sacrifice.
We often gave away any excess food we couldn't sell or had on hand after we fed our staff to the local food bank. I lost money that year as I had to stop getting paid after my 7th month there, and I often had to fight the Department of Ag in audits so much that I just paid out of pocket to finish the irrigation system myself.
I also made an effort to hire local people, of all colours, rather than my initial desire to take on European applicants who were already trained and I could take them on as non-paid apprentices working the 40+ work weeks, as I had.
I realized it was a lost-cause and that racism/exclusion is prevalent and cannot work due to issues that extend far before my Time there, so I resigned and left on a high (despite massive burn-out) only to be given an affirmation of Pono as I left from Maui.
The point is that collaboration with your neighbors is far more important than any water conserving or well mentioned actions ever will be. And that is how this how sustainability should be approached.
Because the truth is, Nestle has been doing this for some time, some large Multi-national could just show up buy the source, deplete what was there and then walk away and use the losses as a tax write-off. Then come back and buy back all the surrounding area in distress for cheap and recover any costs and hold it in their portfolio as assets to leverage in some other capacity.
A farmer can convert now, and pay the extra price of doing so, while missing out on the easier aquifer water.
Or, they can do what everyone else does: pump now, then convert when their hand is forced.
Absent some group collaboration, this bad deal is the correct choice: anything else would be worse for an individual farmer.
That's a Nash equilibrium.
Not addressing the short vs long term thinking about opium, since it's unrelated, but I don't think your analysis is correct; the Pashtuns have been growing this crop for literally thousands of years.
I tried looking up information on the Pashtuns and pre-modern cultivation of opium. So far, I have only found articles and papers talking about significant cultivation since the 1950s. I have found articles describing this as a fairly complex issue.
I am interested in understanding the traditional farming practices of the Pashtuns, and how and why it changed. Is there anything written about that you know off the top of your head?
I think another point that the Nash equilibrium brings up is that all actors are non-cooperative. I thought I was making a point that self-interest would make rainwater harvesting rational.
I think rainwater harvesting is rational, having seen good designs, and what it can do. It may even cost less than the solar panels, pump, digging out a reservoir, and the drilling... but I don’t think I know the exact numbers to make that kind of comparison.
There is also an assumption that you choose between one or the other, rather than a succession, where one method is employed in the small scale and gradually replaces the other.
Another issue is whether it would scale.
I had not even brought up how specific soil amendments and practices can greatly increase the water retention ability of the water —- which is also a part of rainwater harvesting.
I don’t know how well rainwater harvesting scale to industrial agriculture. I _think_ it can be scalable. Looking at the harvesting practices, you are scarring the head and collecting the sap. So it probably does not require planting in a way to optimize for using a combine to harvest.
Finally, I also recall the farmer’s mindset. I was watching this show about American farmers. One thing they say a lot is how they make gambles. Sometimes it pays off and sometimes it does not. (Which I can say a lot about with regenerative agriculture that is also resilient against a single point of failure). So introducing new practices is risky for the farmer, and they would probably rather build on what they know works. As such, they would narrow their perceived viable choices, and it gets to the conditions for the Nash equilibrium.
Will the neighbor's child, who has become a multi-millionaire, help another neighbor, whose kids are not as fortunate as that kid? I ask this question, not to bring in some silly contrast.
There is a deeper issue, since Arrow's impossibility theorem is shown to be equivalent to a special case of the Nash Equilibrium. As a consequence, Arrovian dictator (in social choice framework) is equivalent to shared compromise in Nash cooperative game. Unless there is a dictator to force cooperation, it is just a talk.
In an extreme, where everyone is poor and struggling for drinking water, you can see some cooperation. As long as the gravy train runs, one just milks it.
I think there will always be some people who are going to be ruthless, but by and large, I think without that conditioning and given the choice, many people would prefer doing things that are fair for other people.
It's interesting that you think this, as there really isn't a large body of strong examples of this behaviour. The person you were responding to came pretty close to something optimistic (there are solutions) but still realistic (most people are not nice to strangers).
Classic capitalism-aggrandizing faux-environmentalism.
That growing poppies is dumb because it will kill off all your customers is a bad argument for two reasons.
1. The heroin market has proven sustainable for generations.
2. Even if suddenly no one wants heroin anymore, the farmer can plant a different crop the next season.
2. It isn’t about whether you can adapt and find a different crop to grow. It is that you are growing something that helps things go into a degenerative, rather than a regenerative feedback loop.
However, we live in a world where entities often do not make ethical decisions. They make practical decisions: should I grow coca or coffee beans? The gang with guns wants me to grow coca, and they are willing to kill people who don't work for them... so I guess I grow coca. You can wish for them to be dead heroes, but that's not how you should bet.
At a larger scale, ethics don't win over profits. There are for-profit prison corporations. I bet they have very well thought-out corporate mission statements.
If you want to talk about why people make the decisions they do, you need to think about psychology and economics. If you want to talk about how people can be supported to make better decisions, you need to talk about politics and economics.
It is true, however, that as the supply increases the likelihood that some consumers (namely addicts) won't be able to purchase any future batches increases as well (due to overdose, loss of income, etc). The market will likely reach an equilibrium eventually. Increases in supply have been met with increases in sales so the equilibrium hasn't been reached. This hasn't been a relevant consideration so far and there is no indication that it is now relevant. As such, it is hardly irrational or dumb to grow poppies at the moment.
The morality of the practice is another concern entirely. It is notable, however, that they do have legitimate medicinal applications.
So much water is now being used that ground water levels in Helmand are estimated to be falling by 3m a year.
The fear is that pretty soon the water will simply run out.
"Maybe this boom will not last longer than 10 years," says Orzala Nemat, who runs the Afghanistan Research and Evaluation Unit, the country's biggest think tank.
That won't just affect the people who have moved into the desert areas, she says. It will affect the entire region.In any case I do think as wells run dry in Afghanistan, they will migrate to these techniques too. However if they are just now pumping, it may be that they are many years behind AZ's farming culture and they probably have a good 20 years of pumping. Drugs, unfortunately is a long term crop. Even if that eventually goes away there are many crops that can make money. They'll adapt as US farmers do each year.
Societies change. Do you know anything about Afghanistan of the 70's? Look it up if you don't. It was fairly westernized. I suspect there's a large portion of the population that would like to return to that, but they either don't have the control, or even if there are a majority of them, they don't have to the will to go against fundamentalists willing to die (or, more importantly, kill) to prevent it.
In any case, painting the entire country with such a broad brush seems unwarranted.
Sometimes, such a class starts a trend, and everyone follows. IMO it helps a lot if there's real economic growth, I mean from useful jobs not from oil etc, so that country bumpkins can live out the dream of moving to the city & having nicer things. But it's not a sure thing, sadly.
I think any narrative along the lines of "Afghanistan is traditional and tribal and you can't change that" which doesn't address that at all is at best poorly communicated, but more likely working from poor assumptions.
I didn't get this sense from anything anyone was saying.
When the Soviet-Afghan War started in 1979, the population of Afghanistan was 13.41 million. Current population is 38.93 million.[2] Afghans who were 14 or older when that war started make up less than 7% of the population.[1]
While I don't doubt that many Afghans would like a more stable country, I'm skeptical that a large portion of them have any real idea of what their country was once like. (Nor do I know how accurate and the Westernized portrayals I've seen really were.)
1 https://www.indexmundi.com/afghanistan/demographics_profile....
2 https://worldpopulationreview.com/countries/afghanistan-popu...
There's a reason why the 50's in America were portrayed so often as a golden age and a time where things were simpler, and part of that is just people that wanted to remember a time before the 60's and 70's where there was lots of upheaval and unrest. Were the 50's as simple and wholesome as depicted? Surely not, there was plenty of intolerance for those that didn't fit into the mold ("beatniks"), and that's before we even broach the rampant racism, segregation, etc. Yet, if you're of a certain age in America, you were raised on the idea that the 50's were wonderful, everyone lived the nuclear family dream, and everyone's mom was like June Cleaver.
How much this applies to current Afghanistan? I have no idea. But I don't think it's impossible there's quite a bit of rose tinted longing for that age among certain segments of the population, even if they aren't old enough to remember it.
Ignoring the sizable demand for different types of housing is gonna give you an incomplete picture of things. Heck, a lot of the reason it's hard to build denser housing in many parts of LA is exactly that demand for a certain qualitative type of environment instead of density and growth above all else.
Phoenix and Tuscon does get seasonal monsoons, but the infrastructure is largely designed to get rid of the water instead of letting it infiltrate the soil near where it lands.
And yes, the pools, golf courses, and lawns bug me too. Phoenix also has the worst tap water in the nation. Many residents, including me, get their drinking water from water and ice stores and water dispensing vending machines.
Not sure they could if they wanted to. The downstream/aquifer water rights of the run off are already spoken for in a lot of the south-western US because there's just not enough water falling anywhere really.
https://www.youtube.com/watch?v=-8nqnOcoLqE
(warning: the intro is very loud)
Why no incentives or drive to curtail production and shift to more useful crops is something that seems to be ignored as an approach in that area.
If anything - 10 years times - second hand solar panels will be epicly cheap in that area and more so, all the land used for heroin production will be barren and that water shortage will impact far further than people will think. All these bore holes - only increase contamination of the water table and that may go unnoticed for decades.
This whole situation is creating a perfect storm on many levels and I welcome the sudden demise of heroin production.
However - all the money spent on customs and border patrol against drugs like heroin - if just a small percentage of that was used to incentivise produces to shift crops and stop producing heroin. That would actually work and be better overall. Though still going to have that water table issue come along and that is ticking clock of not if, but when.
Solar cells should last a long time. The panel itself will probably fail sooner - especially cheap ones made from plastic.
If we (as relatively wealthy people in the world) really want to judge them, we should start by providing education and resources to sustainably earn a living.
Sending there our army and creating chaos was not a great idea.
Afghanistan was at the center of multiple proxy wars between America and Russia, all because of America feeling threatened by communism. The US then helped fundamentalists get into leader positions which further threw the country into disarray. Then to top it all off they started another beautiful war to look for Bin Laden.
I haven't looked into it in a while, but maybe the US still isn't out of there because of a lacking exit strategy.
Imagine living in a country that has continuously been in the crosshairs of foreign fundamentalist, political and capitalist interests for the better part of half a century. Do you really think they know or even care about the effects of their actions? Do you vote caring about Afghanistan? Are you outraged when another cultural site is destroyed by foreign or local terrorism?
We have the luxury of lying back in a comfy bed with a roof above our heads, some form of stable income and not worrying that tomorrow a market square close by will be rubble. Our women can go to schools (and so can we) and we aren't at the mercy of crazy people who want to violently, actively overthrow our government.
Farmers have been doing things like this for generations. American Homesteaders - settlers of the sometimes-rather-arid Great Plains in the US - used windmills for exactly this purpose in the 1800s.
We know renewable energy is super useful under specific circumstances (remote/underdeveloped electrical grid, low power, low need for consistency). Another example in the US is emergency phones on the highway - solar panels power those too, and have for a decade or more.
The critical question is whether it can overcome those specific circumstances and be useful in developed electrical grids with strong needs for high power and consistency.
These aren't perfect numbers, but they clearly demonstrate renewable energy is deployable at national grid scale.
[0]: https://www.edie.net/news/10/Renewables-accounted-for-record...
[1]: https://www.cleanenergywire.org/factsheets/germanys-energy-c...
IMO baseline being nuclear and the rest being mostly renewables (With HEAVY reliance on pumped storage power plants, as a sort of capacitor) is the way to go to minimize emissions.
You're correct, that there is not a 1:1 reduction in fossil capacity through the construction of renewable capacity. But the fossil capacity is used less, as the marginal cost of the renewable energy is near zero.
Most pumped hydro today (at least in the US) was built during the nuclear build-out because nuclear can't easily be "load following." So, we had to build out additional infrastructure with low capacity factor.
IMO, tax emissions, let the free market figure it out.
Sadly we never got that nuclear power plant.
Also, there is no corruption around storing waste because we aren't storing waste yet anywhere outside nuclear facilities which are supervised by the government and the IAEA.
IAEA failed in Iran due to political posturing from europe. Europe has broken more than a few core international organizations. I'd rather not trust them to not cover up anything else for europe.
[1] https://cna.ca/news/germany-replaces-nuclear-coal-ghgs-skyro...
Except they are not. Otherwise Germany wouldn't be one of the dirtiest electricity producers in Europe.
I don't know why EE supporters keep ignoring the fact that any electricity not produced by wind and solar despite being needed will be produced by gas or coal which is why Germany is massively investing into new gas plants and a second gas pipeline to Russia (Nordstream 2).
You cannot solely rely on wind or solar which are intermittent and have a low energy density.
The downside is with no grid power the solar system doesn’t work to power the house. There are systems that can but they’re more money.
Obviously it's not quite that easy, for example an oven uses resistive heating elements which would work fine on DC, however, the relay in the control circuitry wouldn't be able to switch a DC voltage.
Nuclear and pumped storage takes a very long time to build. The other storage systems are starting to make inroads - tiny ones so far, but growing rapidly. The "fast frequency response" market provides them economic support.
It does not work fine at all. Germany is one of the dirtiest electricity producers in Europe.
France emits 50 grams of CO2 per produced kilowatthour while Germany produces 400 grams on average:
> https://www.electricitymap.org
Germany also has the highest electrity prices in Europe:
> https://ec.europa.eu/eurostat/statistics-explained/index.php...
NASA also disagrees that gas plants are a good solution:
There is a reason why the UK is building or planning new nuclear power plants in Hinkley Point, Sizewell and Bredwell.
https://www.abc.net.au/news/science/2017-10-12/renewable-ene...
"Technology has moved on from base load, and now you want flexible power. And that's what demand management, batteries and pumped hydro is," says Professor Andrew Blakers, director of the ANU Centre for Sustainable Energy Systems.
"If you have an increase in demand, a coal power station will take hours [to meet it], a gas turbine 20 to 30 minutes, batteries about a second, demand management about a second, and pumped hydro will take anywhere between 20 seconds and two minutes."
You can not guarantee, no matter the capacity of power storage, that you never produce too little power over a long enough period.
This is the basis of my opinion that the closer to 100% renewable you get the faster the amount of additional capacity you need rises.
Something like 1/x over-provisioning[1] needed, where x is the percentage of environmentally independent power sources.
[1] Not sure if that is the right word.
Put another way, it's probably more likely that they'll be some sort of equipment malfunction than we go an entire month with no wind.
Providing redundancy through independent mechanism (over-provisioning, storage, diverse sources) helps a lot.
But you're right. A grid that's 99% renewable with a natural gas peaker providing that last 1% will be a lot cheaper than a grid that's 100% renewable.
You are right in that there is no such thing as "baseline" generation really. And thermal plants also need to be over-provisioned.
There is dispatchable and non dispatchable power, the former being plants that can alter output on demand.
Base-load is the point which the 24 hour cycle of demand doesn't go below. It's pretty much just a number.
Who occupies the base of the generation stack and will stay running during low demand, is the one who is cheapest. If wind is cheaper than nuclear, it will displace nuclear. The people who say "IMO we need nuclear for baseline and renewable for peaking" completely miss these facts.
The way it is going is renewable at the base of the stack and dispatchable power filling in the gaps, be that during peak or periods of low renewable output.
Very good idea to run gas plants with 490 grams CO2 per kWh instead of nuclear power plants with 12 grams CO2 per kWh, indeed.
France produces 50 grams of CO2 per kWh while Germany has 400 grams on average:
> https://www.electricitymap.org/
Your ideal model for producing electricity actually hurts the environment as the times where gas plants need to run are much more often than you think.
A 100% nuclear grid will need dispatchable peak power as well, be it gas or storage.
Go to smard.de, check "Market data visuals" and "Electricity consumption->Actual consumption" and you will be presented with the baseline which is never below 40 GWh in Germany at any hour.
For reference best UK offshore wind farm had 55.3% capacity factor in 2019 and UK offshore wind average capacity factor was 40.6% in 2019 (2)
(1) https://media.rte-france.com/bilan-electrique-2019-2/ 379.5 Twh produced, 63.1 GW installed, 68.7% capacity factor
(2) https://energynumbers.info/uk-offshore-wind-capacity-factors
Not far from so-called "baseload"
https://www.energylivenews.com/2015/12/15/unplanned-shutdown...
Wind is intermitent but predictable. Loosing a turbine will not make the plant production go to zero (albeit loosing transmission will but same for all power plants).
On the other hand, we have times in Germany when wind and solar are producing less than 1% of their installed power.
I just think Opium farmers in Afghanistan fail to demonstrate a unique use case: great idea, but we've known this works for a while, so this use case isn't not exactly a panacea of novel insight.
But for electricity it's only about 6% in the EU, see table page 7 of the following PDF:
https://www.agora-energiewende.de/fileadmin2/Projekte/2018/E...
- they count biomass as renewable which is not (it is responsible for 230 g CO2 per kWh)
- these numbers are accumulated, i.e integrated values which don't help much because you buy electricity when you need it, not vice versa
- despite Germany being 50% renenwable, we still are one of the dirtiest electricity producers in Europe with 400 g CO2 per kWh on average while France has 50 g on average per kWh
- we also have the highest electricity prices in Europe and the second-highest electricity prices world-wide
> https://www.electricitymap.org/
> https://ec.europa.eu/eurostat/statistics-explained/index.php...
Oh, and Germany is replacing nuclear with gas and coal, which means replacing 12 g CO2 per kWh with 490 g CO2 or even 800 g CO2 per kWh:
> https://www.br.de/nachrichten/bayern/nachfolge-fuer-gundremm...
> https://www.stuttgarter-zeitung.de/inhalt.energieversorgung-...
> https://www1.wdr.de/nachrichten/ruhrgebiet/datteln-vier-geht...
The so-called Energiewende will have cost Germany 520 billion Euros by 2025:
> https://www.welt.de/wirtschaft/article158668152/Energiewende...
Yet it had hardly any impact on our emissions in the energy sector:
> https://www.umweltbundesamt.de/bild/treibhausgas-emissionen-...
If you want to understand why the Energiewende (replacing everything with renewables) doesn't work, go to smard.de, click "Market Data Visuals" and "Actual Generation" and you will see that there are recurring points in time where the power generation of wind and solar is around just 1%.
Note: Before you suggest storage: Germany consumes 1600 GWh electricity per day. We have only 40 GWh of pump-storage capacity, so that won't work. And in case you want to suggest "Power2Gas", I suggest having a look at the caloric value of methane and calculate how much methane you will at least need to generate if you want to store 1.6 TWh of electricity.
Renewable doesn't mean 0 CO2, it means you can renew the fuel. We know how to turn that CO2 back into biomass, it just takes a field. We historically haven't known how to make large quantities of oil without expending some other non-renewable fuel.
Germany consumes 1.6 TWh of electricity per day. The battery of a Tesla S has 100 kWh. So you will need to charge 16 million Tesla S batteries to provide the electricity of Germany for just one day.
Good luck trying to implement that.
The main purpose is the article is the show the afghan farmers thriving with solar but doing so by exporting a product that is considered very harmful to the rest of the world. It’s thrilling, captures attention, is topical, and has more substance than your average clickbait.
I believe this could be extended significantly. If we really wanted to. There is no a real need to run say an auto-manufacturing plant 24/7. There is no reason why we couldn't run it only on sunny days and give everyone a paid day off othertimes.
If a car company knows it can sell 1 million cars a year, it needs to be able to manufacture 1 million cars a year. If they operate their plant 24/7, their plants need to have enough throughout to build 2 cars a minute. However, if they plan to only operate during sunny days, their plants will only operate probably a third of the time, so they need to build three times as many factories, buy three times as many machines, build three times the number of manufacturing lines, and hire more employees.
Isn't it what every non-banana-republic is doing already, indirectly [0]. And if we get serious about achieving net-zero economy and price carbon accordingly the car makers will have to adjust even further. They could plant trillions of trees, or they could make fewer cars. Up to them. I am just saying that in my view making fewer cars will be a more viable economic decision. And consumers will redirect their purchasing power to something else.
Emission standards do reduce number of cars produced, to be sure, but much less than you propose. Mostly what they do is make the cars kinda suck, especially compared to how expensive they are. People buy cars anyway, and put up with it.
An 80/20 compromise where most of the power is from renewables and the rest made up by CCGT seems very much within reach for the UK.
The UK has about 1000 TWh of hydrogen storage potential in onshore salt deposits that could be solution-mined to make underground hydrogen storage caverns.
"Technical potential of salt caverns for hydrogen storage in Europe"
https://www.sciencedirect.com/science/article/abs/pii/S03603...
Siemens is providing a gas turbine generator that will run on 100% renewable hydrogen as part of the HYFLEXPOWER demonstrator project:
https://press.siemens.com/global/en/pressrelease/hyflexpower...
Siemens and General Electric both have roadmaps for gas turbines running on pure hydrogen:
"Siemens’ Roadmap to 100% Hydrogen Gas Turbines"
https://www.powermag.com/siemens-roadmap-to-100-hydrogen-gas...
GE Power "Hydrogen fueled gas turbines"
https://www.ge.com/power/gas/fuel-capability/hydrogen-fueled...
Most current turbine models are already capable of running on a methane-hydrogen blend.
I like to highlight these projects because people sometimes mistakenly think that seasonal-scale storage with hydrogen also requires breakthroughs in scaling fuel cell technology. Evolutionary developments in gas turbine technology will also make it practical.
"Hinkley Point C nuclear plant to run £2.9bn over budget"
https://www.bbc.com/news/business-49823305
French power company EDF said the new nuclear plant it is building at Hinkley Point C will cost up to £2.9bn more than thought.
It raised its estimate for the project, in Somerset, to between £21.5bn and £22.5bn, blaming "challenging ground conditions".
It also said the risk of the project being 15 months late had risen.
...
These cost overruns will not hit UK consumers. However, a new way of paying for further nuclear stations, such as Sizewell, is being considered.
Under this new model, consumers would see costs of construction added to their bills as the project went along. It means that customers could be exposed to cost overruns.
That is why today's announcement is important and why EDF will find it harder to make the argument for building Sizewell.
Why not?
Something low capital, low labor and high energy like steel recycling has already shifted to operate when electricity is cheap.
Downstream suppliers of the plant might change, mainly ones that have a high energy, low capital(either $ or environmental) process.
Or, you know, just use nuclear power:
There are plants like steel furnace that have to run 24/7 as the iron has to be kept melted. If solidifies, you will never be able to get it liquid again.
I don't know much about solar panels, but I thought they broke down fairly frequently and required specialized tools and knowledge to repair? This article makes it sound like the panels are pretty reliable over time, which would be welcome news to me.
2) Drilling down 100M to groundwater -- does this require industrial equipment? I wonder how these farmers afford it, if so, or perhaps drilling 100M is much easier than I believe?
Where did you hear that? Have they perchance been trying to mislead you about renewables?
A solar cell is a huge flat diode. A panel is a chain of them in series. It sits there and makes electricity when exposed to light. There are no moving parts other than electrons. It requires no lubrication and no maintenance. Since they're sealed units under glass, the only thing you might have to worry about is leaks and damage from weather, which can be addressed with sealant if the panel is still functional. Admittedly if you crack it badly enough it will be unrepairable.
The inverter is slightly more fragile, being a big piece of power electronics, but still usually guaranteed for 10 years. The most fragile part of the system is probably the pump.
Most submersible clean-water pumps don't require lubrication and have very little wear as they use fluid bearings. They usually last at least 8-10 years without any maintenance as long as you follow the specs - avoid running dry, starting/stopping too frequently, particles that are too large etc.
(see also: attempted modernisation of collective farming in communist countries; "rocket stoves"; pumps driven by "children playing", and so on.)
I have a 4kW set up here at 56 degrees north in Scotland. The big downside is not the diurnal cycle but the seasonal one; off-grid is not viable here without wind. If I've read this map correctly New York state goes up to 45N, so you should get great power in summer but need to think carefully about winter. I believe you also get colder winters than us?
My grandparents installed a solar panel at their (now my) cabin over 35 years ago. We typically have lots of snow during winter and temperatures down to -20C. During spring and fall it is usually quite windy, with lots of rain and some hail now and then. Summer time it often goes above 30C.
The panel itself has had zero maintenance during that time. It's just been standing there, doing its thing. Maybe someone wiped it once in a while, but not more than that.
A couple of years ago I had to dismount it to do some repairs on the cabin, and then the "cables" going from the outside connection into the panel broke. Some fragile foil-looking things. But up until then it was working just fine.
The battery required more care, but the panel just worked.
General life expectancy of a solar panel is 25-30 years. If they get damaged though (cracked glass), that will let water get into the cells and that will drastically reduce life expectancy. But otherwise, a nice long life. They'll also keep operating beyond that lifespan, however the cells do degrade and produce less power.
Where it gets interesting though is that the cost of solar keeps decreasing and the cells themselves become more efficient. I have some used solar panels that are 78" x 39" and produce 265W. I got 10 of them for $600 shipped (technically $400 for the panels and $200 for the shipping). So used, I'm about 23 cents/watt shipped; 15cents/watt basic. But obviously no warranty and these are less efficient. You can get a used 380W panel that fits in the same space, but around 59cents/watt. In a few years, those 380W panels will be even cheaper, and I could theoretically add an additional KW of power on the same footprint on my roof.
New panels will run about $2-$4/watt. Each generation of solar tends to be more efficient, packing more wattage into less space, and each generation often leads to some place deciding to replace or upgrade their 10-20yr old panels, which then end up on the used market benefitting people like me.
“So much water is now being used that ground water levels in Helmand are estimated to be falling by 3m a year.
The fear is that pretty soon the water will simply run out.
"Maybe this boom will not last longer than 10 years," says Orzala Nemat.”
Home solar panels seem to typically come with guarantees of ~80% capacity up to 20-25 years. I think they need cleaning for peak performance, but that doesn't seem important in this use case.
During the whole process the manufacturer offered little guidance. The user manual is just a few pages of poor translation. Their YouTube channel is disjointed 10sec clips of them drilling. The best advice I got was from a local retired driller that came by.
In the end, I still can't get water out of the hole. I drilled some geothermal wells next to my house so I can theoretically use those and not feel like it's a waste. I'm selling the machine and hiring a pro haha. That was a fun hobby for a year. I had better success on friends property's with shallower water tables where we could hand auger 30ft down to water for $100 worth of tools.
> "It's just how opium poppy is farmed now," Mr Brittan tells me. "They drill down 100m (325ft) or so to the ground water, put in an electric pump and wire it up to a few panels and bingo, the water starts flowing."
This suggests, to me, that the farmers dug the wells. But maybe they are a relic of soviet times?
Point is, there is more to the story here w.r.t. existing capital, I think.
>The story of the revolution in Afghan heroin production shows us just how transformative solar power can be. Don't imagine this is some kind of benign "green" technology. Solar is getting so cheap that it is capable of changing the way we do things in fundamental ways and with consequences that can affect the entire world.
It's not exactly solar that is transformative here, but the access to any electricity at all. It's not like they can use a normal power grid for heroin production, even if they had one there.
Photovoltaic panels are more convenient for providing very small scale off-grid power than most other tech like thermal solar or diesel generators, thanks to being heavily subsidized by other people - that would be the more accurate conclusion.
Solar powered aquifer recharge stations were close contenders for the project.
Aquifer recharge is an interesting topic that one doesn't hear much about.
I guess Domesday dopamine chasers hate missing their rush.
This is the problem with infrastructure tenders all around the world, even immediate operations cost is rarely considered to count against lowest upfront payment.
[1] https://eurasianet.org/afghanistan-population-boom-threatens...
> So much water is now being used that ground water levels in Helmand are estimated to be falling by 3m a year. The fear is that pretty soon the water will simply run out. "Maybe this boom will not last longer than 10 years," says Orzala Nemat, who runs the Afghanistan Research and Evaluation Unit, the country's biggest think tank.
The fear, i guess, must be that a lot of the water doesn't come back to the aquifier.
To make it worse: when groundwater gets depleted, there is a very real risk that the soil on top collapses/compresses, so even if there were enough rain the aquifers would physically be unable to retain the water (https://www.usgs.gov/special-topic/water-science-school/scie....
This is the free market in full effect. The market is actually larger than what you can fulfill yourself, why wouldn't you produce as much as possible?