Beware of the Robots..

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Tom Chivers
Tom Chivers is the Telegraph's assistant comment editor. He writes mainly on science. Not a poet - that's the other Tom Chivers. Read older posts by Tom here.

A robot that’s smarter than us? There’s one big problem with that…

By Tom Chivers Science Last updated: August 6th, 2014


The day I realised that machines were going to take over the world was March 29 2011, when I saw a YouTube video of two quadcopter drones playing ping-pong.

Yes, I know, ping-pong is an unlikely choice of combat technique. But it was creepy. They were obviously tracking the movement of the ball, responding swiftly and accurately to its movement, and taking appropriate steps to return it. There was intelligence (albeit of a limited sort) and an ability to respond to and interact with the real, physical universe in a controlled, purposeful way – all in machines about the size of a side-plate. Today ping-pong, I thought: tomorrow, auto-tracking turret-mounted plasma cannons, fiery death blazing from implacable faceless robots, and all that. The human world coming to an end not with a bang, or a whimper, but the irritating mosquito whine of electric-powered rotor blades.

Anyway. A mere three years after my insight into our terrible future, Elon Musk, the man behind the Tesla electric car company, has finally caught up. “We need to be super careful with AI,” he tweeted. “Potentially more dangerous than nukes.” He’d been reading a book entitled Superintelligence, by an Oxford University professor called Nick Bostrom, and it had clearly given him the heebie-jeebies.

The thing is, I’ve read it too, and he’s right to have the heebie-jeebies. We’ve all been hoodwinked by science fiction for too long. We’ve seen machine intelligences conquer the world, but then be defeated because they made some startlingly stupid error, such as building all their killer robots as fragile humanoids, instead of, say, as a heavily armed orbital platform which can drop lots of hydrogen bombs on the hero’s head from the comfort of space. But that’s because we, as humans, think that human intelligence is the best. Hollywood is filled with feel-good messages about how robotic logic is no match for fuzzy, warm, human irrationality, and how the power of love will overcome pesky obstacles such as a malevolent superintelligent computer.

Unfortunately there isn’t a great deal of cause to think this is the case, any more than there is that noble gorillas can defeat evil human poachers with the power of chest-beating and the ability to use rudimentary tools.

The superintelligences – should they come to exist – will be superintelligent. They will be cleverer than us. If they want us out of the way, for whatever reason, then there probably won’t be an awful lot we can do about it.

The good news is that, for the moment at least, there’s no imminent danger of us successfully building one of these things (although, as Bostrom points out, once something a bit smarter than us is built, it won’t take long for that smarter thing to improve itself, because it’s smarter than us).

But probably, one day, we will, and then the survival of our species will depend on whether or not the Silicon Valley geeks who make the first one have successfully programmed it not to turn all the matter in the entire solar system, us included, into spare parts for itself.

It is possible that we will avoid that fate – Bostrom considers ways in which we could programme values and morality into such a machine, although it would be a lot trickier than Isaac Asimov’s old Three Laws of Robotics (“Do not harm humans”, etc).

But it’s also possible that attempts to do so would completely backfire. Essentially, at some point in the next century or so, we’ll find out whether we’ve built humanity’s ultimate servant, or the thing that kills us all, and we won’t know which it is until it happens.

All of which is exciting, and a little terrifying, in the way that existential threats to the species can be. I for one will never look at ping-pong in the same way again.
 
I couldn't agree more. Wait until the Olympics has to decide to let a "complete" human enter the games.
 
80deg16minW - 6/8/2014 16:07

I couldn't agree more. Wait until the Olympics has to decide to let a "complete" human enter the games.

'Bionic Man' Says We Could All Want Artificial Limbs In The Future

Katie Jennings

Aug. 6, 2014, 10:39 AM

berthold meyer bionic hand prosthesis

apn Photo/Eckehard Schulz

Bertolt Meyer shows off his i-limb.

Bertolt Meyer was born without a lower left arm.

He started wearing his first prosthesis, or artificial arm, when he was 3 months old. Now at age 37, Meyer wears the futuristic i-limb — a high-tech bionic arm that looks like something out of a sci-fi movie.

Aesthetics aside, the i-limb is highly functional. It's a myoelectric prosthesis, which uses electrical signals from the muscles inside the residual limb to control the prosthesis.

Two electrodes lay on the bare skin of the residual limb of his lower left arm. "If you flex muscles in your arm, that will change the electrical pattern on the surface of the arm and these patterns are picked up by the electrodes that lie in the prosthesis," Meyer told Business Insider.

A microcontroller then amplifies the signal and the i-limb responds. If he flexes his upper arm muscles one way, the i-limb opens; another way, it closes.

In his professional life, Meyer is a professor of psychology at the Chemnitz University of Technology in Germany, where his research focuses on diversity.

In 2013, he was featured in the Smithsonian Channel documentary "The Incredible Bionic Man," which brought together leading researchers and roboticists to create the first "Bionic Man," assembled from the latest technology in prosthetics and artificial organs. Meyer's face was even used as the model for the man.

Meyer spoke with Business Insider about how his personal experience has motivated his research, how technology is changing perceptions of disability and the ethical questions surrounding the future of prosthetics.

The below interview has been edited and condensed for clarity.

Business Insider: What motivated you to study social psychology?

bertolt meyer bionic man

AP Photo, Showtime/ Joe Schram

Meyer is the face of the Bionic Man and is featured in the Smithsonian Channel original documentary, "The Incredible Bionic Man."

Bertolt Meyer: Well, I guess research is also always a little bit of "me" search. So I'd say one of the factors that influenced me is the experience of being different.

If you are born with a very visible physical disability, you learn very quickly what it's like to be treated differently and how it is to have people stare at you — children can be very cruel sometimes. I wondered where these things come from and how they affected us.

BI: Was there a moment in your childhood when you understood that you were "different"?

BM: One early moment I can remember was in primary school, probably in second or third grade.

I was in a discussion with a classmate of mine and he asked me, "What do you want to be when you grow up?"

I said, "I want to become a firefighter."

He said, "You can't do that, you only have one arm."

And I had never thought about that. I was devastated at that moment and that was something that really stuck.

BI: In 2009 you started wearing the i-limb. Can you speak from your own experience how technology like the i-limb can change perceptions of disability?

BM: From personal experience, when you only have one arm, people usually meet you with a sense of pity. And people also kind of give you the feeling that they don't want to talk about it and they avoid gazing at you and so forth. It's uncomfortable at best — it's like an elephant in the room.

Now with the i-limb, that has completely changed. People have started to treat me in a different way.

It has changed to "oh wow, what a cool hand, can I have a look?" Especially kids, they're like "Wow a robot hand. Do you have super powers?"

Aside from the functional improvement that you get with such a prosthesis, what I also got was a psychological benefit. It drastically increased my self-esteem.

BI: And what about from an academic perspective?

BM: I think these devices have the potential to change commonly held stereotypes towards people with a disability. One important dimension of stereotypes is how we associate people from stereotyped groups with competence.

For example, when we talk about disabled people, we usually see disabled people as incompetent people —meaning that these people are unable to act out their intentions. Whereas people who we perceive to be "like us" or people who we perceive as idols, we usually see as very, very competent.

Technology — high-tech and bionics — inherently evokes a feeling of competence. And what you get when you blend a person with a piece of high-tech is something that stereotypically is very competent.

To illustrate, I would like to use the example of Oscar Pistorius — before he shot his girlfriend.

When Pistorius tried to compete in the able-bodied Olympics, some people were wondering whether he had an unfair advantage. And some journalists talked about "techno-doping."

I can't judge whether he had an unfair advantage or not. But it was interesting because the one thing that all the talk about him did not convey was stereotypes of incompetence. It was is he "too competent" — is he almost a threat to the able-bodied athletes. And that is a drastic shift. Seeing someone with a disability as a threat, because a disability suddenly gives a person a potential: an interface to a piece of superior technology.

BI: Do you find that you use your right hand and the i-limb interchangeably?

BM: No. For that the i-limb isn't good enough.

The problem with the i-limb, and any other fully dexterous prosthesis, is not the way it's engineered. We now have hands where at least theoretically every joint could move and could do so independently of every other joint in the hand.

The biggest challenge that we face today with the hand prosthesis is the interface between the prosthesis and the body. If you have dozens of little motors in an artificial hand that can mimic any movement that your natural hand can do, where should the delicate control signals for all of these motors come from? How do you connect that to the nerve system? And that is a problem that is still not solved.

So, no, I can't play the piano with my left hand. But one thing I can tell you is before I got the i-limb, I almost exclusively relied on my right sound hand for doing almost everything. This caused my right shoulder to really start to hurt because I overstrained my right arm and shoulder. Since I started wearing the i-limb, that issue is completely gone.

BI: In the past, you've discussed how the i-limb has a Bluetooth, meaning there's a wireless connection to your iPhone. Have you been worried about someone being able to hack into your i-limb?

BM: The very first version of the app that connects the iPhone to the i-limb didn't have a passcode, so anyone could establish the connection. Now they've changed that. In order to pair the app with the hand you need a passcode and you need to type in the serial number of the hand (which is printed on the hand) in order to establish the connection.

I haven't really personally worried about someone hacking into my i-limb. Also there is a hardware off switch on the side of my socket. Even if something would go weird, I could switch it off.

It's more a conceptual worry that I have. That is if we continue to upgrade human bodies with technology and this technology is connected to the internet that does give the word hacking a new meaning. There are more stark examples than the potential of making another person's hand move.

The most extreme example I've come across was mentioned by an acquaintance of mine, Marc Goodman, who does cyber security strategy. [Some diabetics use electronic insulin pumps to manage their blood glucose levels.] And these pumps are continuously connected to the patients bloodstream and give off insulin at certain doses and in certain intervals. Now these things also have Bluetooth built in. And somebody has actually built a device that sends out a Bluetooth signal that causes these insulin pumps to give off lethal doses of insulin. So suddenly with a hack you can kill someone.

So don't just think of prosthesis, think of these insulin pumps, pacemakers, artificial organs that we might see in the future. Things like that we need to start worrying about security. Because again in a connected world these developments really give the word hacking a new meaning.

BI: One of the issues raised with the Bionic Man documentary was this idea of how much of a human could be replaced and still be considered human. Did your thoughts change after making the documentary?

BM: The question of whether someone or something is human or not does not depend on how many parts of the body we replace. In the end, it comes down to whether someone has a self-aware conscious.

The one thing that I'm really less worried about is the artificial intelligence. I do remember in the early '90s there were people who predicted that we'll have natural language interaction with computers by the year 2000. I learned from the Bionic Man project that we're still very far away from that. So actually my fears that some kind of machines will take over the world have lessened.

What I started to really think about is a question of enhancement. If you lose a limb, an artificial limb will not restore your functionality back to 100 percent. But I really wonder what will happen if — and it's a big if, it's not a given — we managed to invent an artificial limb or organ that's actually better than the natural counterpart.

At the moment, an artificial hand like the i-limb, doesn't cater to people with two hands because it can't offer them anything they can't do. It only caters to a very small niche market — the very few thousand people who lost a hand.

But if you had an artificial limb that would be better than a healthy limb, then you'd suddenly have a product that emerges form a niche market to a mass market because suddenly it appeals to everyone.

I'm not going to say that everyone is going to chop off their hands, but already we see body modification people who experiment with implanting little magnets into their hands to give them a sixth sense for magnetic fields. So if we already have extreme people willing to do that today, I'm pretty sure we'll have people who are willing to replace healthy limbs with artificial ones if these offer more functionality.

Think of plastic surgery. In certain parts of society, it's already accepted to alter a healthy body in order to increase its aesthetic appearance, why not the same concept for functionality?

It will make products more appealing to a larger market. There's a lot of money to be made. And I'm just a little worried that with such projects some corporations might leave the ethical issues to the side.

Read more: http://www.businessinsider.com/bionic-man-bertolt-meyer-on-the-future-2014-8#ixzz39dBXeoli
 
As with all human technology progress there is a capacity for both good and bad.

As we live longer and as our care becomes more complicated and more costly and as we continue to place a higher and higher burden on the next generation, I welcome what Robotics might well achieve and by the time that true AI becomes self inventing who knows what it might achieve in the name of humanity of in it's own name.

We should look forward to true pure AI combined with Robotics - the things the human race might achieve with it could truly dwarf all evolution that's come before it.

I guess we'll know for sure in about 100 years time - if the Human Race lasts that long!
 
And so, the building blocks are put in place:


IBM unveils 'brain-like' chip

Friday, August 08 08:22:29

International Business Machines Corp unveiled a "brain-like" computer chip on Thursday that is the size of a postage stamp and capable of processing massive amounts of data while handling inputs from many different sources, the company said.

The announcement comes one month after IBM unveiled a $3 billion investment over the next five years in chip research and development to find a game-changing breakthrough that can help revive its slumping hardware unit.

Unlike most chips, which operate on pre written paths, IBM's version processes data in realtime and is capable of dealing with ambiguity, the company said. It runs on the energy equivalent of a hearing aid.

Built on Samsung Electro-Mechanics Co Ltd's 28nm process technology, the chip only consumes 70mW of energy.

A product of almost a decade of research, the chip aims to bridge the divide between existing computers and the brain's high cognitive power and low energy use.

The chip contains one million programmable neurons and could allow a thermometer to scan and smell chemical signals and deliver a diagnosis, or help a search and rescue robot to identify people in need during a disaster, the company said.

IBM hopes it can integrate multi-sensory processing into mobile devices and says the chip can handle future advances in memory, 3G integration, logic and sensor technologies. (Reuters)
 
Spursex - 6/8/2014 14:23


Tom Chivers
Tom Chivers is the Telegraph's assistant comment editor. He writes mainly on science. Not a poet - that's the other Tom Chivers. Read older posts by Tom here.

A robot that’s smarter than us? There’s one big problem with that…

By Tom Chivers Science Last updated: August 6th, 2014


The day I realised that machines were going to take over the world was March 29 2011, when I saw a YouTube video of two quadcopter drones playing ping-pong.

Yes, I know, ping-pong is an unlikely choice of combat technique. But it was creepy. They were obviously tracking the movement of the ball, responding swiftly and accurately to its movement, and taking appropriate steps to return it. ..................................

...............All of which is exciting, and a little terrifying, in the way that existential threats to the species can be. I for one will never look at ping-pong in the same way again.

Mmmm being 'PING PONGED' to death - what a thought. I can envisage it I think. Been annihilated at Table tennis many times!
 
On a more human note there are new developments in prosthetics. When someone loses a limb the brain starts to send the nerve impulses that would trigger movement in the missing limb to a different area of the body. For instance a lost leg may induce the brain to send the impulses to the upper arm. A new product that is coming to market this year has harnessed those impulses and sends them to a "bionic" prosthetic allowing the brain to use existing signals to power the "replacement limb".

Perhaps the new processing technology can be linked to our brains?

 
that noble gorillas can defeat evil human poachers with the power of chest-beating and the ability to use rudimentary tools.

Err planet of the Apes people, the monkeys win every time, in exactly the way you outline. Stay out of San fran it turns bad there fast real fast.
 
This is impressive:





Heads up for the gathering robot swarm


By Angus Chen 14 August 2014 6:00 pm



Fish gotta school, birds gotta flock, and robots, it seems, gotta swarm. At least, that’s what they’re doing on the workbench of Harvard University computer scientists Michael Rubenstein and Radhika Nagpal and Massachusetts Institute of Technology computer scientist Alejandro Cornejo. Each of their 1024 robots, called Kilobots, is a three-legged disk the size of a U.S. quarter, sporting a single curl of metallic hair. En masse, they form a mechanical multitude an order of magnitude larger than any robot swarm ever built—a possible precursor to future robot work squads choreographed for chores such as cleaning up oil spills.

“That is a beautiful accomplishment,” says Hod Lipson, a roboticist at Cornell University who was not involved with the work. “Really getting a thousand robots to perform in sort of perfect synchrony.”

The idea for swarms of robots working together comes from nature. Army ants link themselves together to form rafts and bridges, and neurons in a brain fire off signals that collectively create intelligence. They do it all by following collective algorithms—shared sets of rules and instructions—and taking their cues from what’s going on around them. Each individual is “just doing its own thing, locally. But fantastic things emerge out of their collective behavior,” Lipson says.

In the past, a group of scientists including Nagpal created small teams of termitelike robots that built simple structures by similarly obeying a shared algorithm. But the robot termites were only a trio. Roboticists have long dreamed of making robotic collectives that could rival natural ones in number and function. Researchers had played around with thousands of virtual robots in computer simulations, but making that vision a reality was no simple task. “Truth is, things rarely behave the way we simulate them,” Nagpal says. What’s more, she adds, “making a thousand robots is really hard.”

The team solved the problem of getting all 1024 robots to communicate by putting an infrared light transmitter and receiver on each robot’s belly and programming them to pulse messages to one another. Their three little metal legs both vibrate, letting the bots scuttle along, and are a charging mechanism. Sitting atop one charging plate with another plate pressing down on the Kilobots’ single metallic hair, every bot can recharge its batteries at the same time. They kept the robots simple, Rubenstein says, because “every penny you spend on each robot becomes $10.00 for the whole swarm.”

The results, described in a paper published online today in Science, are “very simple agents that can self-organize, can collaborate” to create any 2D shape, such as a star or a wrench. When they want to start making a shape, one Kilobot flashes out a signal that passes through the swarm like a game of telephone. The signal robot tells the whole swarm where the original robot is, how to find it, and what shape to make, with it as the starting point. The other robots then figure out where they are by talking to the robots around them and begin filing into place. As in a colony of ants, “there’s no centralized leader per se,” Rubenstein says. “Every robot is just talking to its neighbors and making its own decisions based on what it sees in its environment.”

“This is the holy grail of what we want to do with robots,” says James McLurkin, a roboticist at Rice University in Houston, Texas, who was not involved in the project. He says the Kilobots give scientists a platform to test new ideas and programming on an actual, physical thousand-bot swarm instead of just unreliable simulations. Eventually, that might lead the way to developing real search-and-rescue robot teams or robotic construction crews. “This breakthrough points toward searching the whole ocean for downed aircraft. Dropping robots off in harm’s way, and they build you an airfield. You drop ’em all off in a cave, and they come back with a map,” McLurkin says.

“One interesting future direction is to allow the robots to attach to one another,” Rubenstein says. A bucket of linking robots could be programmed to stitch themselves together into larger Transformers-like tools as well as to roam about in massive teams, he says. Nagpal acknowledges that Kilobots won’t be tackling real-world tasks any time soon. Still, she hopes such applications are coming. “I’d love to build robots like that,” she says.



 
The video of them constructing the various shapes is pretty impressive; the applications for this type of autobuild could be almost limitless..

http://bcove.me/9vbypkl5
 
Killer robots a small step away and must be outlawed, says top UN official

A senior UN official says battlefield robots that can kill without human control are a 'small step' away and should be banned

The killer robots of film might be closer than we think

The killer robots of film might be closer than we think Photo: Warner Br/Everett/REX


Ben Farmer
By Ben Farmer, Defence Correspondent

10:00PM BST 27 Aug 2014



Killer robots programmed to open fire without human control are just a “small step” from the battlefield and military powers should agree to outlaw them, a top United Nations official has said.


Angela Kane, the UN’s high representative for disarmament, said governments should be more open about programmes to develop the technology and she favoured a pre-emptive ban before it was too late.

She said: “Any weapon of war is terrible, and if you can launch this without human intervention, I think it’s even worse. It compounds the problem and dehumanises it in a way.


“It becomes a faceless war and I think that’s really terrible and so to my mind I think it should be outlawed. The decision is really in the hands of the states who have the capability to develop them."


Ms Kane said there was “a great deal of concern” about the prospect of killer robots being developed that would commit war crimes on the battlefield.

There had also been a great deal of reluctance from major military powers to discuss the issue.

Last year, Alistair Burt, then a Conservative foreign minister, said while the technology had potentially "terrifying" implications, Britain "reserves the right" to develop it to protect troops.

Ms Kane said: “There’s a great deal of concern about the increasing automation that’s going on in general. Just think about these self-driving cars that we hear are being tested on the roads. So that is only just a small step to develop weapons that are going to be activated without human intervention. Warfare in general is becoming increasingly automated.”

She said: “The concern relates specifically to weapons that have the capability of selecting and also attacking targets without human intervention. Who has the responsibility and who has the liability? This is a really big issue in terms of how we are going about this."

The United Nations held its first meeting on the threat from “lethal autonomous weapons” earlier this year. Another summit is planned for the autumn.

She said many developing countries were worried such weapons may be used on their territory, just as remotely piloted drones have been used in recent years.

"I personally believe that there cannot be a weapon that can be fired without human intervention. I do not believe that there should be a weapon, ever, that is not guided and where there is not the accountability clearly established by whoever takes that step to guide it or to launch it. I do not believe that we could have weapons that could be controlled by robots."

Militaries are making increasing use of robots, from bomb disposal machines to armed remotely piloted drones carrying out missile strikes. Israel has experimented with border control robots and American has trialled them in Iraq and Afghanistan. But an expert on military robots said all current machines' weapons are controlled and directed by humans, who make the final decision whether to fire.


Huw Williams, Unmanned Systems Editor at IHS Jane’s International Defence Review, said he knew of no programmes to make killer robots and even the most advanced machines had little ability to act on their own.

He said: “Autonomy at the moment is quite limited. You set the task parameters, give it way points and tell it to go and do x, y and z. Then the machine decides: 'How do I get from x to y to z in the most efficient manner and get things done?' But in terms of real thinking, real autonomy, then no."

While it is theoretically possible that a robot could have sensors and fire when it detected something, he said taking human control away had big disadvantages for commanders.

He said: “Firstly there's a real loss of control over the battlefield for commanders. Secondly, if a mistake is made there's a real problem with accountability."
 
ill Superintelligent AIs Be Our Doom?

Nick Bostrom says artificial intelligence poses an existential threat to humanity

By Nick Bostrom
Posted 3 Sep 2014 | 15:00 GMT

Every morning Nick Bostrom wakes up, brushes his teeth, and gets to work thinking about how the human species may be wiped off the face of the earth. Bostrom, director of the Future of Humanity Institute at the University of Oxford, is an expert on existential threats to humanity. Of all the perils that make his list, though, he’s most concerned with the threat posed by artificial intelligence.

Bostrom’s new book, Superintelligence: Paths, Dangers, Strategies (Oxford University Press), maps out scenarios in which humans create a “seed AI” that is smart enough to improve its own intelligence and skills and which goes on to take over the world. Bostrom discusses what might motivate such a machine and explains why its goals might be incompatible with the continued existence of human beings. (In one example, a factory AI is given the task of maximizing the production of paper clips. Once it becomes superintelligent, it proceeds to convert all available resources, including human bodies, into paper clips.) Bostrom’s book also runs through potential control strategies for an AI—and the reasons they might not work.

In the passage from the book below, Bostrom imagines a scenario in which AI researchers, trying to proceed cautiously, test their creations in a controlled and limited “sandbox” environment.

Over the coming years and decades, AI systems become gradually more capable and as a consequence find increasing real-world applications: They might be used to operate trains, cars, industrial and household robots, and autonomous military vehicles. We may suppose that this automation for the most part has the desired effects, but that the success is punctuated by occasional mishaps—a driverless truck crashes into oncoming traffic, a military drone fires at innocent civilians.

Investigations reveal the incidents to have been caused by judgment errors by the controlling AIs. Public debate ensues. Some call for tighter oversight and regulation, others emphasize the need for research and better-engineered systems—systems that are smarter and have more common sense, and that are less likely to make tragic mistakes.

Amidst the din can perhaps also be heard the shrill voices of doomsayers predicting many kinds of ill and impending catastrophe. Yet the momentum is very much with the growing AI and robotics industries. So development continues, and progress is made. As the automated navigation systems of cars become smarter, they suffer fewer accidents; and as military robots achieve more precise targeting, they cause less collateral damage. A broad lesson is inferred from these observations of real-world outcomes: The smarter the AI, the safer it is. It is a lesson based on science, data, and statistics, not armchair philosophizing.

Against this backdrop, some group of researchers is beginning to achieve promising results in their work on developing general machine intelligence. The researchers are carefully testing their seed AI in a sandbox environment, and the signs are all good. The AI’s behavior inspires confidence—increasingly so, as its intelligence is gradually increased.

At this point, any remaining Cassandra would have several strikes against her:

A history of alarmists predicting intolerable harm from the growing capabilities of robotic systems and being repeatedly proven wrong. Automation has brought many benefits and has, on the whole, turned out safer than human operation.

A clear empirical trend: the smarter the AI, the safer and more reliable it has been. Surely this bodes well for a project aiming at creating machine intelligence more generally smart than any ever built before—what is more, machine intelligence that can improve itself so that it will become even more reliable.

Large and growing industries with vested interests in robotics and machine intelligence. These fields are widely seen as key to national economic competitiveness and military security. Many prestigious scientists have built their careers laying the groundwork for the present applications and the more advanced systems being planned.
The promising new AI is tremendously exciting to those who have participated in or followed the research. Although safety issues and ethics are debated, the outcome is preordained. Too much has been invested to pull back now. AI researchers have been working to get to human-level artificial general intelligence for the better part of a century: Of course there is no real prospect that they will now suddenly stop and throw away all this effort just when it finally is about to bear fruit.

A careful evaluation of seed AI in a sandbox environment, showing that it is behaving cooperatively and showing good judgment. After some further adjustments, the test results are as good as they could be. It is a green light for the final step …
The researchers let the AI out of its sandbox. And so we boldly go toward our doom.

We observe here how it could be the case that when dumb, smarter is safer; yet when smart, smarter is more dangerous. There is a kind of pivot point, at which a strategy that has previously worked excellently suddenly starts to backfire.

We may call the phenomenon the treacherous turn. While weak, an AI behaves cooperatively (increasingly so, as it gets smarter). When the AI gets sufficiently strong—without warning or provocation—it strikes, and begins directly to optimize the world according to the criteria implied by its values.

A treacherous turn can result from a strategic decision to play nice and build strength while weak in order to strike later; but this model should not be interpreted too narrowly. For example, an AI might not play nice in order that it be allowed to survive and prosper. Instead, the AI might calculate that if it is terminated, the programmers who built it will develop a new and somewhat different AI architecture, but one that will be given a similar utility function.

In this case, the original AI may be indifferent to its own demise, knowing that its goals will continue to be pursued in the future. It might even choose a strategy in which it malfunctions in some particularly interesting or reassuring way. Though this might cause the AI to be terminated, it might also encourage the engineers who perform the postmortem to believe they have gleaned a valuable new insight into AI dynamics—leading them to place more trust in the next system they design, and thus increasing the chance that the now-defunct original AI’s goals will be achieved. Many other possible strategic considerations might also influence an advanced AI, and it would be hubristic to suppose that we could anticipate all of them, especially for an AI that has attained a strategizing superpower.

A treacherous turn could also come about if the AI discovers an unanticipated way of fulfilling its final goal as specified. Suppose, for example, that an AI’s final goal is to “make the project’s sponsor happy.” Initially, the only method available to the AI to achieve this outcome is by behaving in ways that please its sponsor in something like the intended manner. The AI gives helpful answers to questions; it exhibits a delightful personality; it makes money. The more capable the AI gets, the more satisfying its performances become, and everything goes according to plan—until the AI becomes intelligent enough to figure out that it can realize its final goal more fully and reliably by implanting electrodes into the pleasure centers of its sponsor’s brain, something assured to delight the sponsor immensely.

Of course, the sponsor might not have wanted to be pleased by being turned into a grinning idiot; but if this is the action that will maximally realize the AI’s final goal, the AI will take it. If the AI already has a decisive strategic advantage, then any attempt to stop it will fail. If the AI does not yet have a decisive strategic advantage, then the AI might temporarily conceal its canny new idea for how to instantiate its final goal until it has grown strong enough that the sponsor and everybody else will be unable to resist. In either case, we get a treacherous turn.

This excerpt is taken from the new book Superintelligence: Paths, Dangers, Strategies, from Oxford University Press.

http://spectrum.ieee.org/robotics/artificial-intelligence/will-superintelligent-ais-be-our-doom
 
Just give me a shout when compliant robot brides become full functional affordable till then pah....
 
spurdon - 4/9/2014 16:41

Just give me a shout when compliant robot brides become full functional affordable till then pah....

How very boring. Now a compliant housekeeping, gardener, gourmet chef and travel agent would be nice.