Fusion Power By 2020? Researchers Say Yes and Turn To Crowdfunding.
Luminary Crush (109477) writes "To date, the bulk of fusion research has been channelled towards a plasma containment and stabilization method. This is the approach used by ITER's tokamak reactor, the cost of which could exceed US$13.7 billion before it's online in the year 2027 (barring further delays). Researchers at LPP Fusion, in a project partially financed by NASA-JPL, are working in a different direction: focus fusion, which focuses the plasma in a very small area to produce fusion and an ion beam which could then be harnessed to produce electricity. It is small enough to fit in a shipping container, can double as a rocket engine, and would cost US$50 million to produce the working 5 MW prototype. To reach the next hurdle and demonstrate feasibility, LPP Fusion has started an Indiegogo campaign to raise $200K."
..also, here's a TED talk about fusion power https://www.ted.com/talks/michel_laberge_how_synchronized_hammer_strikes_could_generate_nuclear_fusion
14 billion? That's less than it costs to supply that little adventure in the Iraqi desert with toilet paper!!!
So at what pledge tier do I get a Mr. Fusion?
Seriously, I'm happy to through some cash their way, but you'd think that for something this significant they'd be able to find $200k from actual investors or research funds to take the next step, especially since they are apparently already funded by JPL.
If construction was anything like programming, an incorrectly fitted lock would bring down the entire building...
They didn't have much credibility to start with, and turning to crowdfunding only makes it worse.
It is not a mass market product with quick deliverables, it is an industrial solution. So the natural financing source would be venture capital, rather than crowdfunding. If they have to turn to indiegogo, it can only mean they failed to convince anyone relevant and are desperately trying to ride the "fusion is cool" fans, and disappoint them in the process.
As much as I would love to see fusion plants soon, it looks like this is not the company that will deliver them.
For me to be anything but skeptical of this claim.
I want to believe... but seriously how many of us here are proficient enough in the physics and engineering to really have a clue.
All we can do is believe... and as much as I want to believe... i also don't want to be taken for a fool. I hope its real... but suspect its bullshit.
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The article states that operations are to begin at ITER in 2027. This is actually the date where ITER will be operated using a Tritium and Deuterium plasma, as opposed to a Deuterium only plasma. Nearly all tokamak experiments currently undertaken are using Deuterium-only plasmas to investigate how the devices operate. Adding Tritium to the mix means that a Tokamak can reach fusion temperatures, but it requires extremely delicate handling. A Tritium plasma is safe, but it's important to keep track of all of it (and that includes losses to the vacuum vessel of the tokamak, we really don't want any going missing!).
Plasma experiments are set to begin in ITER much earlier, with a `first plasma' date in November of 2020 using a Deuterium plasma. It should not be understated what we can gain from experiments using a Deuterium-only (which means no fusion) plasma. ITER will be used in this manner for several years, while we gain better understanding of plasma physics on these scales. When we have a good feel for the machine, then we will start to produce fusion with a `DT' (Deuterium-Tritium) plasma.
I'm very busy right now and have only had a cursory glance at the article, but I'm reading things such as `Moreover, because the end product of the reaction is moving charged particles, those can be converted into electricity directly', and thinking that at least the writers do not have a detailed knowledge of plasma physics. Tokamak power plants would use the energy of the 14MeV neutron produced by the DT fusion reaction to heat water to steam and generate it directly. `Moving charged particles' is just a plasma, just like in a flurorescent light bulb. You can make a current out of it, but not electricity.
Sometimes I wonder - I, or perhaps humanity as a whole, we have so much anxiety about the destruction and depletion of our natural resources, the extinction of species, the CO2 in the atmosphere, the conservation of our environment. Some of us try so hard to be environmentally conscious by recycling waste, reusing appliances, conserving water and energy.
Then maybe 100 years from now the killer asteroid will struck Earth and obliterate everything, or the supervolcano under Yosemite will blow up. And the universe will point the finger at us and say "ha ha!"
That would be a real bummer.
But I suppose this is like saying, why take care of myself? Why take a shower in the morning, have a balanced died, quit smoking, if maybe tomorrow I'll be dead?
As long as we have a chance at survival, we have to protect our heritage, which means the natural environment that spawned and hosts us.
Who knows, maybe in 100 years, instead of being obliterated, we will take this heritage with us to the stars.
I am sorry, that sounds like a suspiciously "pie in the sky" project to me.
First of all, nuclear fusion is insanely difficult. OK, maybe not *that* difficult, more like: "Easiest way to get fusion is to get 1.99x10^30 Kg of hydrogen in one place" difficult.
Now, coming out of nowhere, we have people saying: "Give us US$ 1,000,000 and we will give you portable, safe fusion within 6 years!". Sure, people, what makes you think you can do better than, say ITER? New approach, yadda yadda yadda, sure, I have heard that one before. Whatever the "new approach" was, it did not work the first time, it probably won't work now. Insanely difficult problem, overconfidence of the new kid on the block, and all that
Second, the old "Fusion power is clean!" saw. No, it is not. Fusion generates insane temperature and neutron radiation. What makes you think you can put everything in a small container? What happens to all that energy dissipation? To the container and its surroundings? If you RTFA, these people are saying thay can generate up to 5MW in a containment chamber "small enough to fit in a garage"! Excuse me? No dangerous radiation, perfect containment in a completely secure, small package? Hmmm... The Engineering does not seem strong in this one.
Third argument against: EROEI. Sure, you can get fusion going in a very small spot. We know this, it has been done before, using several different technologies (See Z-Machine at Sandia National Lab, for instance). BUT... (a) how much power do you have to pump into these capacitors to even *create* fusion in the first place? (b) creating fusion can be done... but what about *sustaining* a fusion reaction? In other words, if it takes you 20MW of power to sustain 5MW of power generation, where is your EROEI? Oooops... There is none.
Final nail in the coffin: "We were financed by NASA-JPL". So what? NASA funds thousands of projects per year. JPL, probably hundreds. And don't get me started on the NSF or DARPA, (or whatever local equigvalent exist in your country), OK?They certainly fund some pretty weird things, just on the off-chance that XYZ wild theory could prove interesting. Or, even better, that XYZ wild theory will be conclusively disproved. That, in itself, does not mean anything. It certainly does not mean your project is headed by cool-headed, super-smart, seasoned engineers and scientists: just that your weird project received a bit of money from whatever popular government entity you could contact.
As a matter of fact, if your project was so smart and so innovative, *and* headed by cool-headed, super-smart, seasoned engineers and scientists, you probably would not have to ask for money on IndieGogo or other: smart money would flow, by the millions, into your coffers, again just on the off-chance that super-duper weird idea could prove to be the real, "fusion in a box" thing that could change the world. Seriously. And don't give me that conspiracy crap that big oil does not want you to be independent yadda yadda yadda: there is so much money floating around right now, looking for ROI, and so many (rich) people ready to tweak the nose of Govt (See: The Intercept) that a serious project like this would get funded 10 times over. WhatsApp sold for *billions* of dollars for Pete sake! What makes you think portable fusion reactors could not get funded? Get Elon Musk or Mark Zuckerberg on the phone!
All in all, this does not sound very serious. More like the romantic fantasy of the genius guy in a garage changing the world one micro-fusion reactor at a time. Sorry.
Fund this? Sure, why not. But I'll pass this one, thank you very much.
The right to offend is far more important than the right not to be offended. (Rowan Atkinson)
precisely...
its an utter crapshoot from my perspective... if it has a chance of working I'd like to see it funded. If these guys are just scammers then I'd be happy to see them come to bad end... ideally a fatal end. The same idealism that makes me value the attempt fills me with utter hatred at anyone or anything that would stand in its way.
Fusion power could be one of the biggest things to ever happen to not only our species but life on earth in general.
We are after all the great hope of our world. The other life on planet earth is utterly incapable of higher reasoning. If any life on planet earth is to survive it must leave the planet. And only we or something like us has a chance of doing that. Fusion power would extremely useful in this regard.
Anything that causes it to be developed must be encouraged. Anything that causes it to hindered should be flayed alive.
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I've been seeing the same argument about the Lawson criterion in nuclear physics textbooks since the 1980s, and so far, it hasn't failed me (or anyone else, for that matter). If masses of people are writing there that the hurdles for aneutronic fusion are higher than for D-T fusion, the most plausible explanation is that they really have a good reason to write that.
Ezekiel 23:20
There are some pretty dubious energy projects on indiegogo.
https://www.indiegogo.com/expl...
Also:
"The Department of Energy decided forty years ago to put all its fusion money on one device, the tokamak, and is not funding anything else"
What about NIF? or is that DoD?
I'll take this seriously when somebody demonstrates feasibility of running aluminium smelters and other extremely high-energy processes off wind turbines and solar panels...
This is about as dumb as an old acquaintance who wanted to convert his car to run on electricity, run by solar panels on the roof (yes, there are really people that stupid out there).
If you believe that the smartest people on Earth are working on a 17 billion euro machine like ITER, when they could be building cheap focus fusion machines for 1000x cheaper, then I have some shares in the Tower Bridge to sell you...
I want an n/200,000 share of all patents, publications, and corporate assets produced in the next 10 years in return for my n contribution. And you can keep the ferro-fluid and the shout-out.
Is it just my observation, or are there way too many stupid people in the world?
When we need crowdfunding, kickstarting, and bake sales to advance meaningful discoveries in theoretical scientific research, but shit like the F35 fighter plane can quietly blow through 5 billion dollars without producing a single useable aircraft outside of testing. Even sadder is knowing its projected cost is over one trillion dollars along 50 total years of development, and the only comment was in 2011 from the senate armed services committee which basically amounted to a high five.
Good people go to bed earlier.
I'm feeling very noir about that.
Ezekiel 23:20
This article http://en.wikipedia.org/wiki/Aneutronic_fusion describes the pros and cons of using different fuels for radiation free fusion. By using Hydrogen-Boron you can avoid the neutron radiation problem. But in exchange you have to have a temperature 10 times what we've failed to produce for a long enough time to get energy back from the more common fuels. The article also mentions that a lot of the energy released would be photons, which are harder to convert into electricity.
Hydrogen-Boron and radiation free would be nice and so raises the profile of this work and perhaps makes it more crowd funding friendly. But without more explanation makes me even more suspicious that they are saying all the too good to be true parts and skipped mentioning all the reasons it's not likely to work. On the other hand it would be nice if boards of competent scientists could invest some real money in slightly crazy ideas that were allowed to fail without politicians going nutso that when you tried 10 things with a chance of success of 10% only one worked.
Honestly, it's tech we probably aren't going to see, even by 2027.
I'd rather we funneled energy research money into something we could implement wide-scale by then. Like LFTR.
Once we've got plentiful energy, THEN we can go chasing after fusion.
Chas - The one, the only.
THANK GOD!!!
This was tried as the Trisops Project 35 years ago but lost funding because all of the fusion energy project's focus was on the Tokamak.
Disclosure: I was an author on the paper and of the referenced Wikipedia article;
This article http://en.wikipedia.org/wiki/A... covers the pros and cons of Hydrogen-Boron reaction. You do avoid the nasty neutron radiation issues but at a cost of needing 10 times the kind of temperature we have spent decades trying to achieve. While the posting says much of the energy is easy to convert to electricity a lot of it escapes as photons. The fact that the article in the posting doesn't cite the issues suggests that it's not a balanced article and is the kind you'd expect for fundraising from naive people (aka us). I do agree with some of the comments above that it's a shame that boards of scientists who know the issues don't have funds to distribute to crazy ideas like this with potential huge payoffs, without politicians complaining that when scientists take a risk they mostly fail.
I expect to see them on Shark Tank.
I also love that they changed the name from the British Dragon's Den to Shark Tank, because - what - too satanic sounding for middle America?
Focus Fusion: The Fastest Route to Cheap, Clean Energy
The company's Chief Scientist is listed as Eric Lerner, a name I thought I recognised. Turns out he's a noted plasma cosmology crank.
No kidding!!! What do you say at this point?
I just don't see how making promises like this is good for anyone. Clearly they are just looking for funding; no scientist or researcher in their right mind would promise something they can't already do by a specific date unless they were lying (or guessing, call it what you want) in order to get funding. This is the kind of crap that makes simpler people no longer "believe in science."
After reading this story and this older story (which has 5 backers and a nice 390 Euro beer kitty) I can't help thinking I want in on this action.
Do I need to invent a ridiculous company idea or is it enough to just ask for donations for my holiday fund?
This is about as dumb as an old acquaintance who wanted to convert his car to run on electricity, run by solar panels on the roof (yes, there are really people that stupid out there).
His idea was completely possible, for certain values of "car":
https://en.wikipedia.org/wiki/...
"When information is power, privacy is freedom" - Jah-Wren Ryel
We don't need to leave the planet at all, chances of a global catastrophe caused by something other than us is very minimal. When we'll be able to, we'll be long dead anyway (you and I personally, not the species)
An exception would be a large coronal mass ejection, which will fry all our satellites and computers except for some stuff in underground bunkers or buried.
Given that wind and solar power can contribute 5-10% of the power needs of an entire country, I think it's reasonable to assume they can power smelters.
Whether they can do that and power the rest of the country is a very different question.
Similarly, powering a car using solar power is trivial. It may just take a few days between journeys to charge the battery.
Cheap and Clean energy will save nature.
You can make the price of oil as high as you want, there will still be people using it and polluting.
...vaporware.
h@hh@hh@...@.&.... "You shall not pass!"
I really get tired of the whole "we've got to leave this rock!" trope. There's nowhere to go that would be more survivable than anything that can happen to earth. Look at the most hostile environments on earth. Antarctica. The Gobi desert. Now imagine those places irradiated by nuclear fallout. That would still make for an easier place to live than anywhere else in the solar system. At least there's air pressure. Some hope of extracting oxygen and water from the environment. Something. Next, just for fun, imagine the power requirements to move any significant portion of the earth's inhabitants off planet. Fusion wouldn't even make a dent when we're birthing 200,000 a day.
There is no place else to go. That is why the call should never be "we must get off this rock," and instead should be "we must care for and protect this rock."
We don't have a state-run media we have a media-run state.
Everyone who supports it gets a free Mr Fusion when it's done! Just kidding, but that would be cool though. You know, I have a feeling that those ITER morons are just a bulky, overly expensive disaster run by an idiot and it's a gigantic money pit. They're like Solyndra. It should work in theory but it's too expensive and run by morons. I also don't believe LPP Fusion though. It sounds like they have an idea that MIGHT work and they're phrasing it like it's a done deal and they just need the cash to build it.
This would be a wonderful joke to play on ITER. All those bureaucrats would be so ticked to have to actually go back to science. What I love about FirstFusion is that not only does promise to be a small reactor, but that in all likelihood when it starts to work properly that people will figure out all kinds of improvements to make it smaller and more efficient.
People think about how this will change the world; but I suspect that it would result in all kinds of interesting and new things well beyond the usual More Energy, Cheap Energy effects. One would be the reminder that technology can change our lives. That being a scientist is cool, and funding science is smart.
If by "feasible" you mean doable, then all you need is enough real estate. I can even think of a Rube Goldberg power generation scheme that uses wind/solar energy to slowly fill up a dam that can be used forhydroelectric power.
The correct designation is 4.5*10^9 BCE (Before Common Era). The BC (Before Christ) designation throws an integer overflow exception above the value 6000 and returns NaN.
sed -e 's/Chuck Norris/Rajnikant/g' joke > fact
We won't get to the stars if the watermelons have their way. We'll all be living in mud huts in squalor until the extinction event happens. Whatever species achieves sentience next should have plenty to work with though.
Not until they had an imminent commercial product they wouldn't. VC's tend to want you to have proven technology, scalable production options, and a solid business plan. Meanwhile it sounds like these folks are at the point of being ready to build the proof of concept prototype to show that they can actually accomplish the 10,000x increase in plasma density necessary to achieve fusion. If they can do so *then * the VCs may start jumping out of the woodwork. Maybe. If they also have the production options and business plan worked out.
From the article: "Lerner says his team can obtain a crucial electrode for $200,000, demonstrate net power gain with $1 million, and solve the final engineering problems, leading to a functioning fusion reactor with just $50 million in funding."
Considering that there are several different approaches that have already achieved fusion (heck, anyone can build a Farnsworth Fusor for $500 - they make an excellent neutron source if you need such a thing), I suspect that actually demonstrating net power gain will be the keystone that gets investors seriously interested, so I'd say these folks need to manage $1.2M in crowd-funding before anyone even looks at them seriously. Then it will come down to the viability of their business plan as to whether they can attract VCs for the first $50M reactor. But frankly $1.2M seems to be eminently doable for a good crowdfunding campaign, so the question is if enough people think this is cool enough to throw some money their way to find out if they've actually got the problem licked, without expectation of any kind of direct return on investment.
--- Most topics have many sides worth arguing, allow me to take one opposite you.
You joke, but there do exist Pumped-storage hydroelectric facilities. It's been suggested that these could be used in combination with solar generating plants to provide electricity around the clock.
The financial industry is sitting on trillions of investment dollars that are looking for a home. Wonder who buys all that sovereign debt? That's because there's nothing better out there for all that money. Or at least, that's the financial industries story. We're really looking at the failure of financial institutions to manage investment dollars. They will only lift their game insofar as things like kickstarter forces them to.
Like all pain, suffering is a signal that something isn't right
Gee how to do you know that that cannot be done. You see, maybe the technology isn't around now, or maybe it is, and the electricity infrastructure needs to be updated. But it is not entirely stupid.
Like all pain, suffering is a signal that something isn't right
General Fusion and Tri-Alpha have demonstrated that you can get investment from typical business sources even without a final confirmed project. While they do have some money from the founders and government funds, they also were able to get millions in investments, far more than what is being asked for here which has gotten them some pretty respectable teams of researchers and sets of diagnostics to do research with.
... in countries that are excessively dry and not to far from the the equator.
In a few years, they will rename the device to "Mr. Fusion".
They run smelters from hydro and geothermal in Iceland, AFAIK.
In theory energy intensive processes (although ones that can start up and end with little run up) are a good way of storing excess energy from solar and wind when production is higher than demand but finding things that match this profile is tricky.
It tends to really go the other way - shedding demand when usage is high compared to production. So a firm may get a financial incentive for turning its air con off for an hour during a period of high demand. Since the air is relatively cool and if the building is well insulated then an hour of non operation of the air con should hopefully lead to negligible increase in temperature. The hope would then be that these savings could be rolled into improving insulation of the building such that it could then tolerate 2 hours of air con downtime, and so on.
If one of the perks of funding is not, at the very least, a 5MW container-sized fusion reactor to stick in my backyard, where's the incentive?
Seesh!
The charged particles thing is one of the great benefits of p-B fusion, in addition to the lack of neutron or gamma radiation along the primary reaction path . You fuse a common hydrogen-1 nucleus (aka a proton) with a common Boron-11 nucleus to get a Carbon-12 nucleus that's unstable due to too much excess impact energy. The C-12 then immediately fissions into three helium-4 nuclei with the nuclear energy converted to the kinetic energy of their (fairly consistent) speeds.
You then have charged particles moving at extremely high speed and there's a number of ways those can be converted to electricity directly - most of which, in essence, boil down to firing them backwards into a small particle accelerator, which will generate as much energy slowing them down as it would have taken to get them up to speed. Minus efficiency losses of course, but those are potentially far less than even the best-case theoretical heat engine.
--- Most topics have many sides worth arguing, allow me to take one opposite you.
D-T fusion is among the easiest reactions to create, so that tends to be what the initial "proof of concept" aim is for, but realistically in the long term we need to either design reactors that breed their own Tritium, possibly by including Lithium in the plasma or shielding, or rely completely on more common materials
That's one of the reasons p-B fusion is often considered the holy grail - it's got something like a 100x smaller reaction cross section, so is typically a much more difficult reaction to generate, but it uses the most common isotopes of hydrogen and boron and produces virtually no neutron or gamma radiation along the primary reaction path. Plus as an added bonus without neutron or gamma radiation all the nuclear energy gets converted to the kinetic energy of the three helium nuclei that the unstable (because of excess reaction energy) carbon-12 nucleus immediately fissions into. And energy can be recovered from fast-moving charged particles far more simply and efficiently than via a heat engine driven by gamma-heated reactor coolant.
--- Most topics have many sides worth arguing, allow me to take one opposite you.
What sane investor would put money into fusion research that hasn't even accomplished fusion yet, much less achieved the net energy gain that's proven to be the stumbling block of all other publicly visible research? Meanwhile if 0.4% of the US population sends them just $1 they'll have the $1.2M in funding they believe they'll need to first buy these beryllium electrodes (the current $200K) and then work out the engineering challenges to achieve net energy gain, which they presumably think will be relatively easy with their approach. At that point, assuming it works, they'll have something to make them stand out from the crowd and perhaps attract investors to build their first $50M commercial prototype.
--- Most topics have many sides worth arguing, allow me to take one opposite you.
You do know achieving fusion is actually really easy, right? Any science student can build a Farnsworth Fusor for Whatever the "new approach" was, it did not work the first time, it probably won't work now
What part of "new approach" don't you understand? There was no first time. At best there were preliminary experiments showing promising results - these folks for example need some expensive beryllium electrodes so that they can increase the plasma density enough to trigger fusion, for the first time with this approach.
As for radiation: you clearly have no idea what you're talking about - there's many different aneutronic fusion reactions that don't emit neutron radiation along the primary reaction path. p-B fusion has the added benefit of also emitting negligible gamma radiation, with virtually all energy being released as kinetic energy of the three helium-4 nuclei produced, which are also potentially extremely easy to convert into electricity without involving any inefficient heat engines. The existence of side reactions means it won't be *completely* neutron free, but you don't need much shielding if only 0.3% of your energy is being released as fast neutrons.
As for the money - there's LOTS of promising small-scale fusion research, but very, very little government funding, virtually all of which goes to ITER, and investors aren't going to put money into something with no expected payout for decades. (and realistically that's what we're probably looking at here - even if they get energy-positive by 2020 they still need to build a business around the technology)
--- Most topics have many sides worth arguing, allow me to take one opposite you.
Flexible Funding makes it very suspicious as they can just pocket all the money people donate even if they don't reach their funding goal. This is probably a scam and will never go anywhere.
"US$50 million to produce the working 5 MW prototype"
$50,000,000 / 5,000,000 W = $10/W.
Anything over about $5 will not get built. Period. Consider Levy County and Darlington B. And unlike this system, they actually worked.
Setting the birth of Christ (arguably a historical event) as the delineation has always bothered me less than referring to the birth of Christ as kicking off the common era.
Wow, sent an e-mail as suggested when clicking on "use classic" banner, and got a fast response that addressed my msg
You could certainly run a regular aluminum smelter using solar panels or a wind farm. It's just electricity.
There are better options for smelting with solar power though:
http://newsoffice.mit.edu/2012...
There are some groups who already have working cold fusion that works in the lab and is repeatable. The trick now is to turn the devices into commercial devices (at a profit) and not get smashed out of business by the current entrenched market forces in the energy industry.
I've seen videos of the devices actually working.
Yes, I could be wrong, or have been mislead, but that's the info I've been fortunate enough to be exposed to.
- Zav - Imagine a Beowulf cluster of insensitive clods...
The objection was not to using the birth of Jesus of Nazareth as a starting point. The objection was to the designation Anno Domini, (The Year of Our Lord). And it is called common era because it does not really start with the birth of Jesus. King Herod was dead by 4 BCE or 6 BCE depending on which eclipse you pick. So the census ordered by him must have been earlier. So Jesus was really born 5 BCE or 7 BCE. So the Common Era is exactly that, some arbitrary starting point. Mistakenly believed to be the year of the birth of Jesus by Christians. Because so many dynasties and Kings and commercial documents were dated based on that year count, it is quite appropriate to call it the Common Era. Christians are free to add 5 or 7 to the CE year and call it their AD. XXXX CE = (XXXX + 5 ) AD for Christians. Or 7 if they prefer the earlier eclipse dating for King Herod's death.
sed -e 's/Chuck Norris/Rajnikant/g' joke > fact
When are people going to wake up to the fact that the ITER is only funded because the idiots spent billions on it, and have no choice now but to make it actually work. The russians started experimenting with Tokomaks in the 1970s and the US having to stick it to the commies rushed in with money to compete. 40 years later with no end in sight, we're still here trying to make a broken idea work. ITER is one of the actual cases of the government spending stupid amounts of money on a project with no proven success. The same amount of funding spread across the other fusion projects would quite likely have resulted in a usable reactor by now. Hell the Polywell guys reckoned 100 million would have built a power plant using their reactor design. A smaller figure would prove net power according to Robert Bussard.
If you like... but am I wrong?
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... in countries that are excessively dry and not to far from the the equator.
You do realize northern Australia is 1379.21 KM from the equator, right? And the the entirety of the Sun Race course is farther than that? Nor does the desert have anything to do with insolation. It gets as much sun as it gets. Nobody drives race cars in the rain, solar or not. A certain amount of drama was added to both of the last two races because it was so cloudy.
Anyway, they changed the rules in 2005, because the speed limit had become a problem. Basically anybody could build a "car" that would make the trip, at the speed limit. Since then, they've gotten away from the original vehicles that were more bicycle than car.
This ignores the asteroid that killed the dinosaurs or the the fact that our sun will run out of hydrogen.
And even if we ignore natural methods of everyone killing themselves on earth, nukes, genetically engineered germ plagues, etc are just as deadly. We owe it to life on earth to survive. And that means getting off this planet.
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All you're saying is that living in space is hard and we're not very good at it.
I agree. It doesn't change the fact that we must leave or we're dead.
You want to stay here? I give you the whole world. Every inch of it. Do as you will with it.
But let me leave first. And once I leave... when your ilk finally wise up and decide to leave... you'll find everything else is ours.
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Pumped hydro is already used at least here in Scandinavian countries to storage the surplus energy produced by nuclear during night time. But there are also propositions of hydro-facilities that could be drilled into the ground and provide storage in smaller scales, for neighborhoods or small cities. Interesting talk about this: https://www.youtube.com/watch?...
I guess that makes sense, common era, as in common usage of years.
I still personally feel (and know I am in the minority) that changing the year of the lord to common era is more offensive than letting the old term stand as a ceremonial deism.
Wow, sent an e-mail as suggested when clicking on "use classic" banner, and got a fast response that addressed my msg
"Because they cost a fortune and coal is a hell of a lot more profitable. "
Only until you're forced to pay the cleanup costs.
The biggest US-environmental disaster of the last decade wasn't Deepwater Horizon. It was a pond of coal ash slurry breaking loose - and it was a small one in comparison to some of the (increasingly unstable) ones dotted across the USA.