As much as I’d like to laugh as any Russian military stupidity, the aircraft in the picture doesn’t appear to have propellers attached, so it’s likely in some form of maintenance. Without the weight of engines and props, any strong wind over the wings is likely to move the plane around quite a lot. Putting tires on the wings disrupts the lift and helps keep the plane from moving around in storms.
That feels like a better explanation then the other theory that they are used for some form of anti-drone tech.
Would the tires do anything to protect them other than blunt the damage? Ignoring the fact that each tire conveniently has a bomb sized hole in each section?
I would imagine shrapnel would have an easier time going through a tire then through the exterior of the plane. And those bombs already do that.
Tires are very tough. Aircraft skin is very thin. I think tires would help reduce damage from shrapnel, but agree that weight and airfoil disruption is also a very plausible expansion.
My guess: You can remove the tires for flight, paint adds weight and I don’t see the Russian army scraping off the current paint without fucking up the primer/anti corrosion layer.
Light paint keeps the heat away, so it’s the default. Plus, this entire kerfuffle has been a matter class in lack of planning. They never thought they would need it, so why bother painting 50+ year old planes another color.
In the case of strategic bombers, anti-flash white is a key feature to reflect as much of the thermal pulse of a nuclear detonation as possible; theoretically you want these planes to survive the apocalypse that they’re unleashing to return to base and do it again.
most likely explanation: somebody's uncle owns a tire factory and is a good salesman.. or even more likely, somebody stole a bunch of military tires from the Army, and then sold them to the Air Force as an effective "drone deterrent"..
You can bank on energy consumption rising year over year for the next lifetime or so. We have completely run out of low hanging fruit in terms of cutting back like moving from incandescent to LED lighting, installing heat pumps to replace resistive heaters…ect. Solar, wind and other green sources ARE very much the future (assuming we want to have a future at all), but their variable output doesn’t mesh super well with how electrical grids are handled today. Batteries and other storage options are no where near ready and may never be for grid scale. This is where nuclear shines, that steady trickle over many, many decades as a bridge to a future with a redesigned distribution network and other technologies we can’t even conceive of yet. The thing is it’s a long term play, there’s a massive upfront cost and the people involved the project today may not even be alive or seeking any sort of political office in 20 years when it’s completely validated. Even if these plants can’t get online fast enough to meet the peak demands in the near-term, there’s nothing stopping them from scaling out solar and/or wind farms to pick up the slack.
You’re thinking too small with LED lights and heat pumps.
Overall energy consumption still has a long way to drop if we continue to electrify transport. Oil is consumed very inefficiently in internal combustion engines and electric motors are far more efficient. That’s even before you account for the energy consumption of refining and transporting oil, all of which would vanish. Even if you just took oil out of the ground and pumped it into a furnace to generate electricity, then use that electricy to move everyone around, we’d drop our consumption significantly.
The setup with have now is desperately inefficient.
I guess I could have stated the form of energy I was talking about a little more clearly. That’s actually mostly in agreement to what I was referring to though, as we move from fossil fuel powered transport to EVs, we’ll see that demand shift and drive electrical consumption up dramatically (even if the total joules of energy required decreases from a physics perspective). Yes, internal combustion is inherently very, very inefficient but it just takes HEAPS of energy to move 3,000+ pounds (1,350+ kg) of anything and all of that will be coming from the mains rather than an oil rig. That’s why we (not just Sweden, all of us humans) need to increase our electrical generation capacity and modernize our distribution networks.
For all of the base-load talk, this is the real reason people are pushing nuclear.
The projects always go over budget. They always go way over time, too. Both of these things are good for the banks who loan out the billions to build new plants. And they know that if the company goes bankrupt the government will subsidize it.
Nuclear is just not economical enough to be part of a sustainable energy system.
During the time when Sweden built the current nuclear reactors, some where built in just a few years. Sweden had experienced people back then that knew how to build them. We don’t have that anymore. Pretty much no one has.
We also had less examples of issues we need to be prepared for.
One thing people always get wrong is that they assume Fukushima wasn’t build to withstand tsunamis and how stupid that supposedly was. But it was built to withstand tsunamis. Up to 9 meters of height, which was 50% more than the largest one they had on record. And it’s not like they had other projects to look for to figure out that a 50% margin of safety was too little for this. Turns out, it was. So now, you want to build at least 100% margin of error in tsunami areas, something you couldn’t have known before.
And that’s just one example from one rather specific type of engineering during a construction process that isn’t even specific to nuclear power. And as accidents happen (see for example Admiral Cloudberg’s excellent air crash investigation series!) we figure out more and more things we need to engineer against to prevent this in the future. As a result, what we build nowadays is orders of magnitude safer than what we did in the past. But it also means that building it has become a huge obstacle, if for no other reason than the sheer number of things you need to be aware of, abide by and track during construction and planning.
Fukushima was not a failure of engineering or proper safety measures with construction. It failed because they were old plants that hadn’t been maintained properly and were in disrepair.
So no, the margin of safety was not too little. The “lesson” learned from the Fukushima Daichi reactor flooding was about proper maintenance and funding.
Yeah well… Nuclear is too expensive and now I heard another rethoric on how renewables are not making enough profit to be worth it for the big companies. We’re going in circles before these people admit that coal and gas won’t be replaced by anything.
I mean let’s be honest here, there’s no way they did this because of an underlying police change.
I suspect they rather looked at other western countries trying to build large-scale projects and noticed how absurd the idea of building one nuclear reactor without a 15y++ delay was, nevermind 10 of them. Quietly drop it before someone checks whether it’s even doable. 😅
Source: Am German, we are experts on letting our complicated building projects run completely overbudget and take multiple times as long as projected.
Being against coal and gas, I want the fastest solution that displaces coal and gas. That’s wind and solar in most locations. It’s not nuclear. Nuclear takes a long time to build, and while you build it you’re still burning coal and gas. Recent experience is that you take the original schedule / budget and multiply by 2 to 3, so that’s even more time you’re still burning coal.
Granted, if you already have nuclear, don’t decommission it, but don’t build more either.
The nuclear lobby is alive and well on social media. They say it’s carbon neutral, when it isn’t whatsoever. They dismiss claims of leaking nuclear waste barrels. They dismiss claims of irradiated waterways and towns. They dismiss claims of danger from meltdown, because obviously no nuclear meltdowns have ever occurred.
The right choice. Nuclear would be a great solution if we went all in 40 years ago. But we didnt and now we need a solution as soon as possible, not in 15 years to build a plant or in 25 years when it breaks even, now.
<span style="color:#323232;">That's 32500000000 kWh/y
</span><span style="color:#323232;">= 32500000000 * k * W * h / y
</span><span style="color:#323232;">= 32500000000 * k * W * h / (365 * 24 * h)
</span><span style="color:#323232;">= 32500000000 * k * W * h / 8760 / h
</span><span style="color:#323232;">= 32500000000 / 8760 * k * W * h / h
</span><span style="color:#323232;">= 3710046 * k * W * 1
</span><span style="color:#323232;">= 3710046 kW
</span>
(You actually corrected yourself later when converting to mW.)
130TWh is the final electricity consumption, not the generation. Since Sweden is a big net exporter of electricity, there is a big difference
I’m not sure what macrotrends refers to by “Fossil fuel consumption”, but it’s pobably referring to raw energy rather than electricity (which doesnt consider conversion efficiency)
In reality, sweden uses almost no fossil fuels in its electricity mix, and that is in large part due to nuclear
KWh and KW, not KW and KW/h
In your calculations you failed to account for capacity factors. Wind plants have average capacity factors of about 42% in sweden, so the capacity would need to be over double the consumption, even ignoring the variability of consumption and production
Nevertheless, I do agree that Sweden doesn’t need more nuclear. It already generates some of the cleanest electricity in the world and I’d imagine fossil fuels are really only used for peak load.
Sweden uses essentially no fossil fuels in the grid - it’s basically hydro, nuclear and wind for all of it. The small amount of fossil fuels used is stuff like burning plastics, and one oil plant that is turned on once in a blue moon when there’s an energy crisis. It’s national news when they turn that one on, and it’s considered a huge failure every time it happens.
The real figure for fossil versus non-fossil energy in Sweden is 2% fossil versus 98% non-fossil, with hydro being the primary energy source (35-45%), followed by nuclear (30%) and then wind (20%). Source, in Swedish: www.energiforetagen.se/energifakta/…/produktion/
The electrical network connecting all your federated renewable infrastructures is managed by one entity already, isn’t it? That’s the same kind of risk you describe.
I get why people don’t like nuclear power and there are many valid arguments against it but yours is not
The overall grid is managed by governments cross countries in Europe. The production is not. While the producers do have an obligation to provide enough electricity at all times, the consumer is free to purchase the electricity from any distributor they want. This creates a free market for pricing while keeping the production regulated. For a small country like Sweden, producing everything in nuclear would destroy the market mechanism on pricing, leaving then with a monopoly.
The risks towards energy production are stuff like war, natural disasters and terror. All of which have been relevant within the last ten years somewhere in the world and increasingly so. The only way to maintain a functional distribution of electricity in these situations is to have the production de-centralised.
I don’t have anything particular against nuclear as a source of energy. I just don’t think it can done fast enough and in an economically feasible way. Even if they do make more nuclear plants, they are going to need something else in the meantime before the new plants can be ready if the forecasted increase is to be trusted.
I cannot comprehend how someone would think a dezentralized power network can be anything but a disaster waiting to happen. I would reckon even the crypto fanbois would figure out how bad an idea that would be.
And mind you, the type of power doesn’t matter in that case. If your network isn’t centralized (enough), you’re fucked.
Most renewables can’t produce energy at a large scale on demand. Nuclear is the king of that domain. I don’t see the issue with plugging nuclear to that federated network in order to meet demand when the renewables can’t
I agree. Sweden already has 6 nuclear plants providing 30% of the energy. Hydro power is 50% Together this is more than enough to meet baseload demand.
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