China talking with European Space Agency about moon outpost
bigstory.ap.org
bigstory.ap.org
I'm impressed by that fact alone. Speaks well about ESA.
The Three body problem and its sequels (it's a trilogy) I find absolutely fascinating. Be warned, this is very dry writing with very flat characters, mostly digestible because of the exotic Chinese background which is noticeable, but this book is all about ideas, so in many ways completely the opposite of the space opera Culture series.
Despite its length, much of which I consider filler, these are one of a handful of books which really made me question our position in the universe.
The second book, The Dark Forest, is my favorite. The Three body problem is actually my least favorite, written more like a mystery thriller rather than sci-fi.
And yes, you absolutely need to read all three parts.
For the calibration comparison, I did enjoy The Player of Games; I felt the setup was a little clunky (the bit about provability of recordings by Minds should have been set up beforehand to give the reader a fair understanding of the world) and I struggled a little because I had little sympathy for the protagonist (and there's only really one) for a long time. But on the whole I did enjoy it; the part about wanting to know that victory is possible is a good crystalization of a genuine insight into human nature, and the vision of devoting one's life to something that completely catches the imagination. And the conclusions works very well as a "continuation of politics by other means" thing.
Almost killed us putting us to sleep
Then again one of my favorites hard SF authors is Greg Egan, and I've heard many times that people find his work dull (which blows my mind - Egan writes some of the most thought provoking, interesting SF by FAR).
I don't know what ideas or expansiveness you're talking about?
> Then again one of my favorites hard SF authors is Greg Egan, and I've heard many times that people find his work dull (which blows my mind - Egan writes some of the most thought provoking, interesting SF by FAR).
I found the metaphysical stuff in e.g. Permutation City slow and boring - it felt like he'd had a clever idea but wasn't pushing it as hard or as fast as it could go. Had the same experience with a couple of others of his (Distress and Schild's Ladder are the ones I read). To the point where I stopped reading him for a while.
I found the Orthogonal trilogy a lot better; the physics of that is a lot more interesting than metaphysics. Though as a confounding factor I do think the characters in that were much better - still broad-strokes archetypes, but not total nonentities like in his earlier work.
Permutation City is one of my favorites. When you say "slow and boring", I say "subtle build" to the final realization of what Paul has done and how his realization has proved the "dust" theory.
Really like Schild's Ladder too, and Distress is pretty good but not my favorite.
I agree with you on Orthogonal for the most part. Although I was very disappointed in the ending - it seemed too abrupt and predictable given the rest of the story.
I'm talking solely about the first one, I only read that (and probably wouldn't have bothered finishing it if it hadn't been for the Hugo). There's no large time range that I remember, very little happening anywhere other than Earth, and nothing of philosophical interest that I saw.
> When you say "slow and boring", I say "subtle build" to the final realization of what Paul has done and how his realization has proved the "dust" theory.
I found it just took too long to get around to a "reveal" that was already obvious. And the conclusion of part 2 doesn't really engage properly with the dust theory; if anything the humans' inability to modify the machines the ants' universe is running on undermines it, because under their physics that action would make perfect sense. The ants' reality "wins" by pure authorial fiat; you could - and should, it would be interesting - make an argument for why it should based on kolgomorov complexity or some such, but Egan neglects to.
If you want a denser read (less setup, etc.) that also has a lot of really thought-provoking concepts, I highly recommend also "Blindsight" by Peter Watts. Blindsight is probably my all time favorite scifi novel, actually.
"Imagine you are Siri Keeton..."
Can't wait for the 3rd book (Omniscience I think?) to come out.
I also really enjoyed the commentary on solipsism in the context of transhumanism via the 'Peer' character.
Although part 2 doesn't explicitly explain why the universe of PC has the "complexity momentum" property, it does suggest the universe with the lowest Kolmogorov complexity is preferred (via some undescribed physical law). That is why the "ant's" universe wins; it's relative complexity is simpler than the world which Paul had created. I agree that it could have been fleshed out more fully.
I also enjoyed The Player of Games but found it suffered from Ian M Banks syndrome - unlikable characters being forced into unenviable situations. But the plot was great.
I have longer reviews of: https://sheep.horse/2017/3/book_review_-_the_three-body_prob...
https://sheep.horse/2017/4/book_review_-_the_dark_forest_by_... (the sequel)
https://sheep.horse/2010/10/book_review_-_the_player_of_game...
on my blog, but this comment contains the gist of my feelings.
The two magic protons used to conduct surveillance anywhere on Earth from a far off planet, and even change happenings on Earth to a degree, is an idea many Chinese people would instantly recognize through first-hand experience. There's the connection for the original intended readers of the book. Only a few Western readers of the translated book would be able to identify closely with the concept of always being watched, and perhaps that idea wouldn't come across as speaking personally to them.
I think to bootstrap a useful permanent base on the moon or Mars (that can grow, provides safe and efficient transport) we need to accept significantly higher risk to life, say 20%, at the initial setup / prototyping period to allow rapid development and testing of new technologies for all stages of the process (flight, space stations, energy, mining, etc.). I think enough qualified individuals will gladly accept this for a chance to fly, but regulators will likely kill this if they consider it not safe enough.
Private companies are more likely to achieve this, especially if they are not hamstrung by regulations. My 2c.
Private companies are only interested if there is short-term profit in these missions.
Technically a private company by an eccentric billionaire (musk? bezos?) could be perfectly happy to burn billions to build a moon base
Quite a few many pioneers like Hinton, Bingo ,maybe LeCun(was working with Hinton before moved to NY) are happened to be from Canada. I realized the answer for the mysterious coincidence until I watched the video that Hinton explained why he moved to Toronto: There was not enough funding from US other than Military at the time while there were some funding in Canada that didn't demand much instant result from his research.
The healthcare system in Canada is also better than the states although it has a lot lot lot of problems. I believe socialist Canadians care more about people than efficiency of the system initially but it ended up with only 6 or 7 payers for the cost and less overhead instead of more than 2 thousands of payers along with less regulated but very complicated system.
The hi speed train system in China funded by government totally changed the concepts of distance , time, space , contribute so much to economy beyond calculation. I guess if California government can do the same thing, Silicon Valley would spread to be a bigger area and a lot of developer can afford housing by living 100 miles away from where they work.
BTW, I myself was quite pro small government/free market but became more moderate not because I'm influenced by my follow Canadians but by looking it at "High Order" level of efficiency.
> On a smaller scale, SpaceX, Musk's rocket company, cut a deal for about $20 million in economic development subsidies from Texas to construct a launch facility there. (Separate from incentives, SpaceX has won more than $5.5 billion in government contracts from NASA and the U.S. Air Force.)
$20m is pocket change as subsidies go. And if you consider the contracts that NASA has with SpaceX as subsidies then you'd have to think that about Boeing and BAE and all the other defense contractors.
Cost-plus procurement being corporate welfare is a valid position, but it's a much bigger issue than SpaceX.
On what do you base this? If it's too expensive and dangerous for governments, with the ability to leverage overwhelming resources if they chose to and not care a bit whether any revenue were generated, how is it more likely that a severely resource constrained company likely limited by a profit (or at least constrained loss) motive will succeed?
At a recent government placement I could buy post-it notes with the department budget, but not tissue paper. I could buy an iPad to test my software, but not a new monitor (that's IT!). I could buy an Adobe CC licence, but I couldn't install it or upgrade it without an IT admin. Process can eliminate judgement & autonomy.
In fairness, that also describes many large private entities.
And safety is expensive -- getting the system from .99 to .999 P(success) leads to a large increase in complexity and makes developed technologies more difficult to reuse -- the systems designed for high P(success) are usually monolithic, tightly integrated, built for a single purpose things, not modular systems of reusable components.
This has nothing to do with resource constraints; this is pre-conditioning / expectations that are not going to change for a large government organization. Unless there is a highly visible, universally accepted national need.
From an engineering and process perspective, early models are more failure prone.
Well, let me put it this way: absent clinical immortality, I can't imagine being male, childless, and unwilling to take that chance.
I don't think this is true. Some examples:
- If I were a flight engineer (which I'm not), I would be happy to design a plane that I was confident a pilot could fly within safety levels that were acceptable to me, regardless of whether I felt I could personally fly it as safely.
- I've seen a modern blacksmith write about certain female customers' desire for chest armor molded into the shape of breasts. This is fairly dangerous -- such armor effectively aims a large metal spike at the center of your chest -- and completely unnecessary. He showed a photo, with a comment along the lines of "I made this woman a boob plate [his term] because she asked for it to be made that way. I live in fear that one day she will trip and crack her sternum. But wearing the armor makes her feel sexy, and that matters too."
- If I design something with a 10% failure rate, and someone else is happy to operate it knowing it has a 10% failure rate, and it really does have a 10% failure rate, why is it my place to tell them "I wouldn't operate that myself, and therefore you can't either?"
Both countries are currently in desperate need of sizeable public works programs to keep people usefully occupied. Cost is proxy for human activity, but not necessarily a useful one. If we really are looking at massive near term automation, this is exactly the kind of proposal we can expect to see get off the ground...
Crew? No, you want middle-aged types, preferably past reproductive age, for that. Obvious reasons familiar from decades of discussions about astronaut selection include radiation exposure, elevated risk of casualties and psychology.
Design? No, nobody sane would let inexperienced hands design hardware for human space flight and settlement.
Hardware production? Maybe some of that. A few hundred people, maybe even a few thousand, mostly watching over the CNC machines doing the actual work?
Not really. The ECB will offset any inflation extra government spending might create. That's what inflation targeting does.
And on the lower side, the ECB will cut rates and do QE if total spending and thus inflation fall short of their target.
Along similar lines, even if you ignore the fear and grief factor, a 20% fatality rate means you'll never create experienced astronauts.
I also really doubt that putting the risk that high would be particularly useful. Even the worst non-man-rated rockets out there have a failure rate of something like 10%, and those failures generally wouldn't kill the astronauts if their spacecraft had a launch escape system. The Space Shuttle's fatality rate was about 2%, and that was only because it was a vastly over-complex, fragile machine with no realistic abort modes in many phases of flight. No other spacecraft made or planned could fail in the ways the Shuttle did.
A government effort probably will be expensive, but only because they're slow to adapt. It will probably be quite some time before we see a(nother) reusable government rocket.
However, a private effort won't go anywhere, because there's no business case for a moon base, nor even a "dream big" case for an Elon Musk type figure. (Mars is a better target by nearly every measure for the second one.)
The best bet IMO would be a public-private partnership, with governments providing the basic goals and funding, and private companies providing the technology and services.
Soviet space program, Apollo program are better examples and both had ~10-20% fatality rates, at least during the initial phases (for example, Apollo 11 (successful moon landing) was 6th Apollo mission; one out of those 6 (Apollo 1) was fatal).
Ancient seafarers, voyagers, explorers faced more dangers and had higher fatalities than today's office clerks. If we are to keep making new voyages we should accept that there is danger involved. If we are spending $X and could make one step with success probability .9999 or 1000 steps with success probability .8 we should seriously consider both options, not let bureaucrats reject the riskier one out of hand. My 2c.
The Soviets lost a few people in flight during the early days, but the last one was in 1971. There's no reason to think we should have a similar fatality rate in 2017, with modern materials, processes, and control systems.
I agree in theory that if a 20% fatality rate were somehow required, it would be acceptable for things like this. My argument is not that it's unacceptable, but that it's so high as to be a hindrance rather than a help, and that it's far beyond what's necessary even in a "damn the torpedoes, full speed ahead" type of program.
We don't need airliner-level "one in a billion" safety, but something around 1% seems highly reasonable.
Anyway, even your figures are crazy.
Part of the reason SpaceX can be cheaper is not because they are smarter---but because they don't have to source parts from each and every congressional district.
Historically, a 20% mortality rate is not a huge barrier. Power and Plenty discusses an episode in the early European spice trade in which somebody sent several ships to India for pepper. All but one of them were lost, giving mortality much higher than 20%, but the voyage made a hefty overall profit from the single surviving ship.
How did you make this comparison?
Do you think the ship was more or less expensive than the lives of the men crewing it?
It's hard to compare costs across such a great gulf of time, but consider for example that the Spanish Armada consisted of 130 ships, and was fielded by a country of about 8 million people at the time. If a 16th-century ship cost as much as a moon rocket today, then that would be roughly like the USA building 5,000 moon rockets. Moon rockets probably cost about $1 billion or so (Saturn V was a bit under in current dollars, SLS will be quite a bit over) so that would be about $5 trillion. Less than a decade later, Spain was able to throw another 140 ships at the English, so it wasn't a one-off thing either. And that's ignoring naval or merchant ships that didn't participate in the Armada.
I'd wager the ships were much more expensive than the crew at the time. Human life was quite cheap until recently (and still is in many/most parts of the world). A couple hundred man-years of of skilled laborers versus a couple hundred random nobodies?
It seems like all of the work to support the idea "20% mortality is too high" is being done by the observation "there is no pepper on the moon". It may be too high on a cost-benefit basis, but that's because the benefits are very low.
But if you think that the benefits are high, perhaps because an initial high-cost high-mortality phase is the prerequisite to a long-term and profitable low-mortality phase, or even a long-term and profitable high-mortality phase, it seems pretty easy to accept 20% mortality.
Also nobody will be forced to go, I'm pretty sure astronauts are very clever people who know the big risks they are taking
Your last sentence confuses me. I went out of my way not to moralize the risk, and only discuss how it would pose problems in terms of cost and creating experienced people.
No doubt savings can be made, but the overall reliability of such a complex system isnt directly and smoothly related to cost.
Pal Hvistendahl wasn't talking to Bloomberg. The original article is from the AP (which is noted in the byline on Bloomberg too).
http://bigstory.ap.org/article/c7d78ca284eb4347821fe2825e347...
You can send: digging, sintering, dusting, pushing, lifting robots, and you can build any structure.
Just keep sending new robots till we can send humans, and the humans can repair what's there.
and when there are too many littering the place send astronauts to move them out of the way.
We're very, very far from industrious robots on Earth, let alone on the moon or mars. We aren't even building mega-structures with robots here outside of trivial edge cases, why do you think we can do it on the moon?
Also from a cost per lbs perspective, swarms of giant building robots will cost more than the GDP of most nation states. A handful of astronauts with powertools working with ultra-light materials won't. For example, a small team can raise up Bigelow's mostly inflatable moon base concept in days:
http://spaceindustrynews.com/nasa-and-bigelow-aerospace-make...
No 50,000 lbs space mechs required.
Meanwhile human built lightweight structures are pretty much doable right now with a heavy human rated rocket like the upcoming SLS or SpaceX's upcoming heavy configuration.
Figure out how to make robots that can make robots, and just send those.
This means you can send up big robots that have little to no intelligence or automation, and are not much more than giant R/C cars with webcams. Seriously, we could just launch regular heavy construction equipment (earthmovers, bulldozers, etc.) rigged with cameras and remote controls; the real problem is the power source, since all those things run on fossil-fuel-burning engines here. So the challenge is making versions of these things which are battery-powered and can somehow be recharged with solar power.
Oh yeah, I guess the other big difficulty is dealing with the Moon dust (regolith), which is notorious for getting in everything and fouling things up. But that shouldn't be that hard to deal with; our heavy equipment (and even things like cars) are already designed to handle harsh environments and dust. We'd probably need different elastomeric seals though since there's no atmosphere on the Moon.
Edit: fixed Earth-to-moon and Earth-to-Mars delay times
Moon's apogee (point of furthest distance from Earth) is 405,400km [1]. Speed of light is roughly 300,000km/s [2]. Robots on the Moon are 1.35 seconds away (2.7s round-trip). Even with equipment delays I can't see how you could arrive at 6 seconds round-trip.
> Mars [...] is a minimum of 15 minutes away.
Mars' aphelion (point of furthest distance from the Sun) is 1.67 AU [3][4]. Earth is about 1 AU from the Sun (by definition). Also, Sun is ~500 light-seconds away from Earth. Thus, at conjunction the distance from Earth to Mars is not more than 0.7 AU or 350 seconds (5.8 minutes).
[1] https://en.wikipedia.org/wiki/Moon
[2] https://en.wikipedia.org/wiki/Speed_of_light
[3] https://en.wikipedia.org/wiki/Mars
[4] You could also arrive it using Titus-Bode law [4]: for Mars n=4 so distance is 0.4 + 0.3 * 2^(4-2) = 0.4 * 0.3 * 4 = 1.6 AU.
[5] https://en.wikipedia.org/wiki/Titius%E2%80%93Bode_law
EDIT: formatting
Self replicating robots don't necessarily need to be super high tech. A well stocked machine shop plus a simple robot operator could manufacture 99% of it's own equipment. I once saw an interesting paper proposing a series of small robots on tracks that could produce more tracks and more robots.
Even if this process is very slow, it's exponential. Soon you have 10x as many robots as you started with. Then 100x, and then 1000x...
Last week's episode of Doctor Who had an interesting take on that scenario:
The idea is to send an initial 'seed' factory that creates masses of simple robots that mine resources and, once critical mass has been achieved, build new factories.
The ideas in the report seemed like science fiction four decades ago, but maybe they are more attainable today? I don't know enough about modern robots to know. This seems like an interesting area for a private company to tackle, since tech like this most certainly has applications here on Earth.
Sure, the Moon offers different challenges in spots, but it'll still let us validate things like growing crops, water reclamation, robotic construction, etc. with the ability to pop home if it all goes disastrously.
I think a long term colony on either of these worlds would be much safer below the surface where it would be shielded from cosmic rays etc.
If we can learn to build 'ant colony' style habitats on the Moon, we ought to be able to do the same on Mars once the cost of travel becomes lower.
If you're concerned about civilization-ending climate/nuclear disasters, consider that even in that event, parts of the Earth will still be more hospitable for human life then the Moon or Mars.
Personally I would love to see both outcomes. But given a limited budget, going to Mars has the advantage of providing a (admittedly risky and uncertain) possibility of extending the survival of the human race, where as going back to the moon seems to provide more indirect benefits.
A Chinese / European moon base would probably breed a whole new generation of space nerds.
We could always go straight to Mars and do the research there, but that is the riskier strategy. We'd definitely learn what we need to, but it opens up more failure modes for any colonization mission, and managing the risk on Mars would be expensive. Mars colonization would already be straining our ability to engineer and fund, let alone doing it semi-blind.
https://spaceflight.nasa.gov/gallery/images/exploration/luna...
Outer Space Treaty, Article II: http://www.unoosa.org/oosa/en/ourwork/spacelaw/treaties/intr...
Please. Four or five seconds of thought will disprove your theory.
The Moon will be the ultimate homesteading experiment: Whoever is able to put their Moon property to productive use will be the owner. It doesn't matter what the laws or treaties on Earth say; if you're there and making claim to the land, it's yours.
I never claimed I didn't want laws. Only that property does not issue forth from the state.
Is some Earthbound rule then in effect?
Capacity: having enough resources to use capability (manpower, food, ammo, money, energy)
Brazil for example is great at the second, having plenty of resources, but sucks at first, having no national tank manufacturer, poor naval tech and so on...
North Korea is sort the opposite: have tons od artillery, missiles, nuclear tech, but most likely nowhere near the resources needed for extended war, they can only hope people fear the damage they can output in their initial strike is deterrent enough.
Unless a superpower bought one of this estates, the answer is most likely no.
I think those citing the "outer space treaty" and such are misled. The reason there's no private property on the moon right now is because there's absolutely no incentive to do so.
If we start colonizing the moon, and in particular if we start mining it you can be sure that the story will be much more different. Look at the many territorial disputes around the arctic (and its valuable resources).
China will absolutely lead on this now that we've put in an anti-science government. Expect them to lead on other things that were traditionally our domain too.
We should be looking to China to lead the world in many things in the coming years. The US has shot itself in the foot, and continues to shoot itself in the foot.
There is plenty of peculiar-looking down-voting on HN. I am seriously beginning to wonder if that down arrow serves any useful purpose.
Why wouldn't you? You're all the way there and pointing a sensor at the Earth isn't a big deal. You know you can do more than one thing at a time, right?
Climate science is probably one of our bigger planetary issues and perhaps the biggest issue facing humanity right now. You know Earth is a planet right? That's part of planetary science, that's why you explore space in the first place. It doesn't get an exception for purely political reasons. Studying the Earth is no different than studying Mars or Jupiter.
Its incredible the hoops people will jump through to justify Trump's absurd climate conspiracy theories and asinine policies in regards to science.
> You know Earth is a planet right?
Not really necessary...
For the same reason that these aren't on the Moon:
https://en.wikipedia.org/wiki/List_of_Earth_observation_sate...
https://www.bloomberg.com/news/articles/2017-04-26/china-tal...
> THE ASSOCIATED PRESS (MATTHEW BROWN)
http://bigstory.ap.org/article/c7d78ca284eb4347821fe2825e347...
https://www.apnews.com/c7d78ca284eb4347821fe2825e347ff7/Chin...
Even when countries like China and India are making attempts to mine the moon for Helium - why don't we hear such stories from the US? If it makes sense for China and India, it probably does make sense for US too. Or do the US elites know something much more fundamental and powerful that we might never hear of until the next world-war?
I don't like the controversy theories, especially about aliens, but I don't like the arguments against the controversy theories either. I don't know if aliens exist and even if they existed and visited us few decades back, I believe they would disregard us as a sub-Type 0 civilization (like Michio Kaku categorizes). They would have found us similar to primitives - studied us and left.
The US sent half a dozen crewed missions to the moon, and made numerous unmanned missions.
There's no dark secret - space travel is complex and expensive, travel to the moon vastly more so than simply to orbit, and money is governed by politics. When the US had the prestige of possibly beating the Soviets to the moon , there was the political and popular will to do so. But eventually, the trick simply got old, and no longer seemed worth the expense.
Now take that, and add the exponential long term cost of a habitat and mining operation on the moon with 1970's / 1980's dollars and tech. I remember there being numerous plans for a moonbase at the time, it was discussed by NASA often, but the thing is, no one could figure out how to actually make it work reasonably cheaply without seeming like a lavish and pointless boondoggle to Congress.
I'd sooner they spent the money on a lavish boondoggle that would inspire a generation (moonbase) than a lavish boondoggle designed to blow stuff up (F35).
Note: I'm not a disliker of the F35, I think when they work the bugs out it'll be a pretty fantastic plane - though whether it'll be value for money is arguable (and there isn't enough evidence one way or the other).
Mars makes a more sense for a lot of reasons. A self-sustaining outpost on Mars is a _lot_ more plausible than the Moon. Due to the availability of carbon, there are a lot of substances that are a lot easier to make on Mars (notably, rocket fuel). The Martian atmosphere is 100x less dense than Earth's, but it is 100000000x more dense than the Moon's. While ~0.01 atm isn't a lot of pressure, it's certainly enough to be useful.
The Moon is closer, but really they're both firmly in "if something goes wrong, you'd better be able to fix it on your own" territory. It takes a bit more energy to get to Mars, but since you can use the atmosphere of Mars to slow down, the difference in energy requirements to get to the surface of each aren't vastly different.
If ESA and CNSA want to head to the Moon, great, I think any progress in that direction is great, but I think Mars is a much better goal (and the Moon isn't really "on the way" to Mars).
> you can use the atmosphere of Mars to slow down
Is that true? Because my understanding is that Mars have just enough atmosphere to cause troubles but not enough to help.
Hence the tumbler design of smaller spacecraft landing on it and insanely complicated landing of Curiosity which is larger.https://mars.nasa.gov/mro/mission/timeline/mtaerobraking/
https://mars.jpl.nasa.gov/mgs/sci/aerobrake/SFMech.html
https://mars.nasa.gov/odyssey/mission/timeline/mtaerobraking...
etc.
Curiosity's complex landing system had little to do with the atmosphere, and a lot more to do with a) not wanting to land the thing on a hillside or in a crater it couldn't get out of (which nearly happened to Opportunity - http://www.space.com/36587-mars-rover-opportunity-landing-si...) and b) the much larger size than previous rovers, making airbag bouncing less suitable.
Mars is orders of magnitude harder and more likely to end in failure - which apart from the immediate fate of the victims, would also be a PR disaster that could set colonisation programs back by decades.
There's a lot to be said for developing launch tech to explore/colonise/mine the rest of the solar system from the bottom of a shallow gravity well instead of a deep one.
The Moon, on the other hand, lacks an atmosphere, has very little gravity, and is extremely resource poor, and has bigger temperature extremes. It presents a lot of challenges that don't exist on Mars (or are substantially reduced).
If you want to build a base as a staging area for expeditions, there's no point in putting it on the surface of anything. Just stick it in the Earth-Moon L2 (rather than wasting a couple km/s getting down to the surface of the Moon and back).