stalfie
"What's important" can be generic stuff like "fusion", and current gen LLMs are already more than able to go from there and iteratively explore what they might contribute with. It's not exactly a stretch to take the extra step of asking an LLM about what the top 10 unsolved scientific problems are.
I say this because I see this mantra repeated often, but largely it makes very little sense. Do you have any concrete examples of unsolved important problems that an LLM is inherently unable to locate?
Now it is a lot better, and it has actually demonstrated that it can escaped containment in a way you didn't want or plan for. So now is the time to worry. The reward for giving it access is still high, but now the risk is high as well.
Perhaps in the future this will change, but even if that is the case, that's still a win for the defenders. Having a time advantage, even for a few months, is still a win.
Edit: Actually, the CIA/FBI/NSA/Etc.. does probably have access and are probably trying to hack Iran and so forth, so my comment above is probably technically wrong in that respect.
That is, unless the nerf is easier to correct as compared to "upgrading" the models offensive capabilities. So a scenario where it is easy to "restore" offensive capabilities, but hard to "enhance" them beyond the labs best attempt. So is that the world we're living in?
Replying here also as I'm curious about the counterargument.
Let us say that un-nerfed Kimi was released, and it turns out to be at the absolute frontier of cyber capabilities, Mythos 5.5 level, a step ahead of anything else. What now? Well now your situation is exactly the same as before, just that auditing and hacking got more expensive. You run a Kimi security audit, they do the same to try to pwn you. However, now the cabal of Linux kernel defenders with secret access to Mythos 5.5 all of a sudden have no advantage, where before they used to have one. And even worse now they are in a literal race to be the first ones to find every bug that Kimi is capable of finding, and patching it yesterday.
So for you, this makes no difference in practice, your capabilities are not elevated, and neither are those of the attackers. The only result of the other scenario is an overall defender disadvantage.
In the scenario where only "verified" defenders get access to the best cyber capabilities, unverified plebian defenders and blackhats are on the same level exactly as described above, there's just also a few defenders that get to run things on godmode.
So to me, it seems that the only result of frontier cyber capabilities is removing a defender advantage. Although that advantage is not for everyone, it can only exists as long as capabilities are unequally distributed. Am I missing something?
Seeing as no one besides blackhats want frontier cybercrime capability to be open source, this seems like a very sensible thing to do.
So they have published a reasonable means, and they have a motive. I'd put my money on "probably true".
And about what happens in a society where constituents have nothing to contribute... I have no idea. But we might find out within a decade or so. The fact that what happens might not all be great is unlikely to stop any of the AI labs.
And if AI can also make use of the math, then the AI is all you need in order to grasp a better tomorrow. If AI poops out a warp drive, you don't need to understand it to use it. The argument about humans needing to understand anything only holds true as long as humans have something unique to contribute, which might not be the case even a year or two from now.
The main issue is delivering the genetic patch to the tissue you want to fix. Some genes (eg. BRCA) are just really big and can't fit on some vectors, some tissues (eg. brain) are hard to reach, and you want to try to target tissues selectively, since we're not sure yet about side effects like insertional mutagenesis (although it doesn't seem to be a huge problem atm...probably depends on on the vector). A good vector makes a huge difference. Lipid nanoparticles for instance accumulate in the liver and can deliver all kinds of stuff, hence why there are so many studies targeting genetic errors of liver metabolism.
Exotic vectors for normal drugs are usually useless, as it would be too expensive for stuff needing daily or even monthly dosing (as long as it doesn't have a property of selectively targeting cancer). But for single dosage therapies, which gene therapies are, they are a potentially essential tool in the toolbox.
For instance, should we not talk about MMR vaccine skeptics or climate change denial in societies where they are prevalent? When the majority of a society believes something that is wrong, that is the time we should talk about it the most.
Nothing that AI will ever be valuable, everything AI does is steal, nothing it creates is new, everything that the big labs publishes is a scam or hype. Oh and "it's just doing X", where you can substitute "X" with some kind of surface level description of how the output layer in an LLM works.
These tenets are already pretty much formed, all it needs is to be formalized by some kind of name or manifesto similar to Q-anon, and we've arrived at a durable state of permanent denial.
I personally am trying to float using local LLMs to create anonymized case files and auto-suggest publishing cases in my hospital, which knowing how things work will probably never amount to anything.
Or if you want to float truly insane ideas I guess you can shop around with blackhat groups and see if anyone has stolen some juicy records/data during all the ransomware attacks and databreaches over the years, and do some rogue scientific publishing. Obviously that's crazy, but I have to admit that the notion of pirate scientists plundering and publishing data is hilarious to me.
Of course, that's given the sequence of events as written is correct, and that Astra presumably did not cheat by brute forcing all historical events around the date of the transmission in advance, found an event that could fit with the message, invent a plausible cipher to make the message fit that event, and then lie about retrospectively validating the information.
I would assume that such a process would be obvious from the reasoning chain, and so then the only remaining plausible scenario is that the writer of the article is lying.
The most likely explanation by far is that the cipher was just solved, and OP does point this out to be fair.
> Astra felt compelled to check its work and found that, in fact, the English cruiser HMS Canterbury arrived in Sevastopol on November 24, 1918, based on its original logs
Then follows a picture of the original log papers.
All of these tens of thousands of man-hours could be replaced by a few GitHub repos, if only RCTs would just publish their damn data. Then you could just run and rerun the statistics on whatever subgroup you're looking for, instead of combing through decades of review articles answering slightly different questions, looking for the answer between the lines. With LLMs making mining of large scale datasets almost trivial (with the process most likely becoming trustworthy within a few years), the current status quo is looking more and more antiquated.
If you want to be even more radical, hospitals could just publish their data continuously. Of course, it is easy to point to the risks of doing so, but what's often ignored is the benefits. It is hard to overstate just how many medical mysteries a hospital encounters on a daily basis, how much unknown we are navigating in practice. The current norm is that 99.99% of these cases are never published, and are only ever thought about only by a small group of people who happened to be at work. Particularly, when someone dies of something no one figured out, it is never published anywhere, because even if you tried it is not interesting reading material for a journal to publish. And no one ever tries because they're scared of being called out for a mistake. A hospital is essentially a continuously running and extremely interesting experiment, where 99.99999% of all results are thrown in the garbage, and the only published data is subject to extreme selection bias.
All of this could be different, and the risks involved are actually quite small in practice. It is easy to automatically anonymize data quite well, but extremely difficult to absolutely guarantee that it is anonymous. And since current ethical norms are extremely averse to any degree of risk, and usually entirely ignore potential benefits, we all suffer for it. It is not entirely unlikely that someone reading this post will one day die because of something that could have been prevented, had things been different.
I was referring more to everything else. Corals, certain insects, polar bears, salamanders and so on. With some quick googling it appears that the "Bramble Cay Melomys" is the first species so far to be declared extinct because of climate change, but the number that seems to be thrown around is that an average of 18% of terrestrial life will be critically endangered by 2100 in a scenario with 2 degrees warming. I can't be bothered with figuring out what degree of academic consensus there is around that number, but I think it's reasonable to assume that there's at least some kind of consensus about "more than 1%".