Brian Greene joins Joe Rogan to explore quantum computing’s leap from theoretical "spooky action" to real-world qubits, now outperforming classical systems in calculations like black hole simulations. They debate AI surpassing human creativity and ethical risks, while Greene links black holes’ gravitational waves—detected by LIGO—to cosmic ubiquity, questioning the odds of parallel intelligent life. Rogan pushes for disciplined psychedelic research, comparing it to lost potential like Sagan’s cannabis insights, before critiquing pandemic science’s focus on vaccines over obesity and vitamin D. Greene counters with calls for funding basic research and immersive "visceral science" via VR, like Verizon’s 5G-driven star-formation simulations, to bridge the gap between abstract theory and public fascination. [Automatically generated summary]
I do, yeah, the paperback of Until the End of Time is out today Until the End of Time Yeah That's heavy It is heavy, but it's a big story, but it's one that we have a nice part within A small cameo, the human species has a cameo, so it's a human story, too Yeah, the human species.
When you – being a physicist, being a person that really does have a much greater grasp of the concept of infinity and of time and of the – just the length that the universe has existed in its current form, how do you just get through your day and not freak out?
Well, it's because my wife says, you know, you've got to cook dinner.
So, I mean, there are things that you have to actually get done.
But it does change your perspective in a significant way because you recognize...
That the things that we consider to be oh so vital and important are just this blink of an eye on the cosmological landscape, on the cosmological timeline.
And it does change the way you approach the world when you pay attention to it.
It's hard to always pay attention to it, though.
Look, I mean, if I'm walking down the street and I'm thinking about quantum mechanics, I'm thinking about quantum tunneling, I'm thinking about relativity, time slowing down when I'm moving, right?
So if you're in the physics mode, you are living life differently.
I'd say that's part of what my goals of life is, to do just that.
You know, I don't want people to not live their lives the way they have, but I want them to be able to broaden the experience by recognizing that everyday phenomenon is a small slice.
Of the way the world is actually put together.
And when you can see your life and your experiences, just a tiny sliver of a reality that's like bizarrely strange and utterly wondrous when you understand everything from black holes to time dilation to quantum tunneling to all that stuff that we have discovered over the last couple hundred years.
I mean, the real difficulty is not so much getting people interested.
You might think that that's the big hurdle.
People are like, ah, don't talk to me about that stuff.
It doesn't matter to my life.
But that's, no, people are very curious and interested in what physics has found.
What's hard is getting them to not just take it in, but to take it in correctly so that they don't take the ideas and twist it into something else that suits whatever weirdness they may have encountered in the world.
The number of times that I see people take the concepts of quantum mechanics And turn it into utter nonsense.
Because they're like, hey, oh yeah, probabilities.
Okay, you know, that describes this quality of my world.
Or, you know, the weirdness of time.
Yeah, that's why I had this, like, mind meld with my best friend on the other side of the...
You know, that sort of thing.
And I don't fault people for that.
These ideas are difficult.
But if you ask me what the challenge is, the challenge is breaking through that and getting people to really understand what it is that we found.
And it's weirder than many of the things that the human imagination would go to.
But it's harder because it's very specific and rigorous and mathematical, ultimately, and that's unfamiliar.
Do you think it's the complications of quantum mechanics?
It's such a bizarre field of study that it sort of lends itself being sort of occupied by people like the what-the-bleep-do-we-know type folks that kind of co-opt it and then spread nonsense?
And, yeah, I think I mentioned to you once, I actually accidentally found myself at one of their headquarters in, I think it was in Washington State, gave a talk at a gathering, and it was so sad at some level because I saw people searching for truth but being misled by a charismatic speaker who's basically coming up with this nonsense, you know?
Yeah.
And so that's one way in which these ideas are usurped.
But others, it's less by design.
It's just more you hear quantum mechanics is weird, and then you hear something else is weird, and you say, oh, that must be quantum mechanics, because there's this general sensibility that the world is weird.
But quantum mechanics is weird in a very specific way.
I mean, Schrodinger, Erwin Schrodinger wrote down an equation, a mathematical equation that actually quantifies the weirdness in a very specific way that makes mathematical predictions that we can test in the laboratory.
So that's not just like, you know, people in their minds coming up with crazy stuff and saying, wouldn't that be curious if that was part of reality?
This is stuff that has emerged from careful study.
So when you learn that the world evolves according to a game of chance, it's as if there's a throw of the dice that determines how things evolve from one moment to the next.
That's deeply unfamiliar.
We don't go around the world thinking that there's a chance that something bizarre will happen.
But there is such a chance in every moment in every experience of your life.
The chance is so small in the big everyday world that we don't experience these things.
But if you were an electron, yeah, you'd be having the weirdness of being two places at once in some sense.
You'd have the weirdness of passing through solid barriers.
You know, these kinds of curiosities would be an everyday phenomenon if you were as small as a particle like an electron.
Because when you talk about things being in superposition, or you talk about spooky action at a distance, you talk about these bizarre things that they sound like magic when you're talking about something that's both moving and not moving.
It's in two places at the same time, or there's a probability of it being in these...
Describing stuff like that, especially to the average person that doesn't have a background in this, they go, what is the world then?
And I have to say, though, we physicists come to the very same place.
We say, what is the world then?
What are we talking about?
And the difference is we can then look back at the equations and say...
If we're talking about quantum attainment, we can see how two particles far apart in space will have behaviors that are correlated.
You do something on this particle, And we'll have some instantaneous correlation with what happens at that particle regardless of how far apart they are in space.
Einstein himself called this spooky.
Spooky action at a distance.
You do something in New York and it affects in some quantum mechanical way a particle in California.
So I don't know at some level if I'm trying to answer you human to human, but if I'm answering as a mathematician, as a physicist, I can see it in the equations.
I see it in the mathematics.
I see how this particle has a quantum wave which has a piece that stretches all the way out to California and way beyond.
And when I interact with this particle, I affect that probability wave instantaneously.
Therefore, I change the wave in California even if my action is in New York.
So what level of understanding are we talking about, right?
If you're talking about intuition, like a deep intuition, the way we understand two plus two is four, right?
I don't have to explain that to anybody.
They get it.
They see two apples and two apples, four apples, they got it.
But when it comes to quantum entanglement, I don't feel it that way.
I don't have that intrinsic understanding of what it is.
And so if you push me to say, well, what is it?
I ultimately fall back on the math.
And ultimately I say the reason I believe the math is the math makes predictions that we can test in the laboratory.
And then you say, well, then what kind of understanding is that?
And some people would say that's the deepest understanding.
All we really want of a physical theory is for it to give a rigorous mathematical articulation of what happens out there in the world, and it's the human brain struggling for some kind of intuition.
So, Erwin Schrodinger, one of the founding fathers of quantum mechanics, a curious fellow, a very interesting life, but he realized, looking at the equations, that there was this quality of the math That if two particles come together and they interact for a little while and then they separate, they can no longer be thought of as independent or autonomous.
I mean, the very basic quality of autonomy, you and I are autonomous because we can separate.
We can go our separate ways and do whatever we want at our respective locations.
So you would think that if two particles separate, they will also be autonomous.
But he saw in the mathematics that they would not be autonomous.
That what you did to one would have an effect in some quantum mechanical way on the other.
Now he saw that in the mathematics.
He called it out as the central feature of quantum mechanics.
And that's a big statement coming from him because there are a lot of other weird qualities of quantum physics.
Einstein then comes along.
1935 with two colleagues and leverages this idea.
Writes a paper where he tries to prove that quantum mechanics cannot be the full story of the world because of this weird quality of what you do here affecting something over there.
It's not until the 1980s that people really start to test this idea and by today this is used all the time in the laboratory.
Quantum computing makes use of this quality so this is no longer an idea that's abstract It's something that's applied.
Applied quantum entanglement gives us things in the real world in the laboratory.
So this is beyond question real, even though Einstein thought it couldn't be, and Schrodinger considered it to be the strangest feature of the math of all.
If you're going to allow for the most exotic possibilities, some would suggest that you are probing the many worlds of quantum mechanics.
So in quantum mechanics, all you ever do is predict the probability of this happening or that happening.
Electrons, you know, 70% chance here, 30% chance here.
If you measure the electron and you do find it over here, what happened to the other possibility?
Some say it happens, but just in another world.
In one world, you find the particle here.
In another world, there's a copy of you that finds the particle over there.
Each of you's doesn't know about the other and thinks you are the unique version of you, the unique Joe Rogan, but now there are two of you, each thinking that the particle is found in one location or another.
If that's the way quantum mechanics actually works, and some people do think this, Then quantum entanglement is, in some sense, less weird.
Because what happens is that in one world, you have a certain correlation between the particles.
In another world, you'd have a different correlation between the particles, and that's just what happens.
So that's one, but you're allowing multiple universes in this explanation.
That's pretty weird in its own right.
The fundamental way that we encapsulate this, we say that quantum mechanics is non-local.
Non-local means that the influences are not limited to where they are applied.
Our experience is, look, if I do something to this bottle of water, the influence is in this local neighborhood.
What I did just now didn't affect something on the other side of Austin or on the other side of the world.
But quantum mechanics is saying that that's an intuition built up from everyday experience, and everyday experience is grossly misleading.
So the idea is that there's multiple versions of you and multiple versions of everything that you've experienced, all the things you see that you consider to be Austin, Texas, or the United States, or the world itself.
There's multiple versions of this happening simultaneously.
Because the basic idea is that any outcome that is allowed by the laws of quantum physics, any outcome will take place in its own separate world.
And so when you think about every decision you've ever made, every possibility that you've ever encountered, all of the outcomes happen, and that would happen throughout all of time.
So in some sense, there's an Unending number of realities that are in the grand landscape of the quantum description.
Now, you hear that and you say, that's nuts!
That sounds nutty, right?
We experience one world.
But if you look at the mathematics as a guy named Hugh Everett did in 1957. He was a graduate student at Princeton, unknown.
He looked at the math and he said, I want to look at the math and give it the most straightforward, intrinsic interpretation.
And the most economical, intrinsic interpretation of the math is this one.
It sounds grossly uneconomical, all these universes, but that's an output.
The input is incredibly economical.
You look at the equations, and this is the most straightforward interpretation.
Every outcome does happen.
It happens in its own world.
Now, I'm not saying that I believe this, but it's definitely a worthy contender for the way that we should think about quantum mechanics.
They would say that I should convince you That there is no deeper intuition that you're missing.
That the only way to understand what's going on is you learn the math, you do the calculations, and looking for anything else is looking for too much.
Now, I don't feel that way.
I feel that in the end of the day when we understand the world deeply, it does give us insights into what's actually happening.
The question you asked, What's happening in quantum entanglement is, in my view, the right question to ask.
Unfortunately, I can't give you a good enough answer today, even though mathematically we understand it perfectly.
I think one day we'll go beyond that.
And there is work happening today.
There are people who suspect...
That quantum entanglement is nothing but another idea of Einstein's in disguise.
Wormholes, right?
You've encountered wormholes, probably if you've ever watched any like Star Trek, Deep Space.
These are tunnels from one point in the universe to the other, kind of shortcuts through the fabric of space.
And some suggest that when two particles are entangled, there's actually a secret wormhole.
Connecting them.
And that wormhole means that they're secretly close together because of the shortcut.
So they look like they're far apart, but there's actually a shortcut through a wormhole, so secretly they're actually right next to each other.
And then when you do something on one and it affects the other, perhaps it's not so surprising because through the wormhole, they're right next to each other.
Which is going to discourage interest in the field, which is going to discourage people to become physicists because it is fascinating.
And when you're talking about this concept of spooky action at a distance, you're talking about wormholes connecting things together at far distances and things that we don't truly understand but that you can show mathematically are correct.
there was a period of time when people who thought about what's really going on got sidetracked.
In the early days of quantum mechanics, what really needed to happen was develop the math, develop the equations, make predictions, go into the laboratory, have this hand-in-glove approach between theory and experiment so that you have a theory that you have confirmed.
And the fear at that time was that if too many people start pondering, what does it all mean, then the progress toward that goal would have been diminished.
But we're beyond that.
We have quantum mechanics, at least as a working theory that we can use to do wondrous things.
And so more and more people are thinking now about these kinds of questions.
So I think it's kind of a pendulum has swung toward the more philosophical, toward the more what does it all mean?
How can we describe what's really going on here?
Whereas if we were having this conversation 10, 15 years ago, I would say virtually no one is really thinking about things in the language that we're talking about.
That's really strange, because if you think about how long people have been trying to understand the reality of the universe itself and how recent some of these discoveries are, it really makes you think, like, what are we going to be able to show and prove is true 50 years from now, 60 years from now?
Because if you go back 100 years ago, you go to 1921, the understanding of the world itself is so grossly different than what we understand today.
And the other side of that observation, which is exciting and daunting, is think about what science has done more or less to date.
It's tried to understand things in the world that naturally form.
Stars, planets, black holes, living systems.
But from more or less now going forward, we're entering a realm where we are going to start to create the new things that we're going to try to understand as we modify the genome, as we perhaps create artificial life, as we use physics to create new kinds of materials and structures as we use physics to create new kinds of materials and structures that would never form on But because our understanding is so refined, we can begin to manipulate objects at the molecular, atomic, and subatomic level.
We can, going forward, be the driver of the new things in the universe around us as opposed to simply being the passive consumer of those things that the universe has given us that we then try to understand.
So going forward, it won't only be trying to understand the stuff that has arisen naturally.
It's going to be understanding the stuff that we create.
And that's an interesting, exciting, but also frightening prospect.
It'll certainly be something that we approach in an incremental way.
I'm not suggesting that tomorrow we're going to be developing terraforming new worlds or creating parallel universes, but there's a pattern that we certainly see playing out throughout the history of science, which is this.
You're presented with some quality of the world.
You don't understand it.
You then experiment.
You observe it.
And then little by little you begin to understand that you develop theories, mathematical ideas being the most precise ones to describe whatever it is that you're talking about.
And once you have those ideas nailed down, you can then use them to manipulate the world.
That's what we do with quantum mechanics.
At first we just wanted to understand atoms, right?
Particles and things of that sort.
Now we can manipulate the quantum world to create, you know, all sorts of technological wonders, the integrated circuit, which is at the core of every technological gadget that has transformed life on planet Earth.
This is quantum mechanics in the hands of human beings.
And so that pattern of going from lack of understanding to understanding to manipulation Is the pattern that will continue to play out going forward?
So that manipulation, what will it be?
Well, I think we're going to come to a time when we understand the structure of space far better than we do now.
The structure of time far better than we do now.
Does that suggest that we'll manipulate space and time?
If the pattern persists, yeah.
Now what does that mean?
Will we build our own wormholes?
I don't know.
I don't know.
That's starting to go into crazy land, the woo that we were talking about before.
If we stick around long enough, if the pattern persists, that understanding ultimately gives you the lever to manipulate, Right now, if you ask me what's happening at the cutting edge of string theory, quantum mechanics, it's understanding black holes.
It's understanding how quantum mechanics and black holes talk to each other.
And what is black hole?
A black hole is a weird region of space-time.
So we're trying to understand space-time itself at the deepest possible level.
And so the next step would suggest that we will manipulate it at some point in fairly significant ways.
So an integrated circuit, in essence, is a little device where you want an electron to follow a very specific trajectory.
To carry out this or that computation or process.
Now if you want to control electrons with that level of fidelity, you've got to use the mathematical laws that describe electrons with that level of fidelity.
Newton's equations from the late 1600s, they won't work.
If you think of the electron as a little baseball or a little billiard ball, totally inaccurate.
It will not allow you to manipulate their motion.
But with quantum mechanics, you can manipulate the motion of the electrons because you understand their mathematical underpinnings.
And so it was only by applying quantum mechanics to materials, to structures that could give rise to this kind of control over little particles, that we could build these microscopic circuits.
And they work!
I mean, that's the proof in the pudding, right?
And so that's a key example of quantum mechanics transforming the world as we know it.
And right now, there is work in string theory that is suggesting That this notion of quantum entanglement that we were talking about before, that may be the key to understanding the fabric of space-time itself.
I mean, we use this metaphor, fabric of space-time, right?
But any piece of fabric, it's stitched together by threads, right?
So what are the threads of the spatial fabric if we push this metaphor and try to really understand it more fully?
And one of the suggestions is the threads of quantum entanglement That tie distant objects together, those may be the threads that hold together the fabric of space-time itself.
So that would mean that everything is somehow connected, even if it's 13.7 billion light-years away, these things are somehow or another directly connected.
Now, to avoid that turning into the Wu, you have to realize that When you have a lot of material and when you have a lot of time and a lot of space, these quantum entangled connections become so spread out that they become diluted.
So it's not as though someone can say, you know, I thought about my best friend in California and then the phone rang.
We must be quantum entangled.
That's the sort of stuff that this kind of talk can lead to.
But fundamentally what you're saying is correct.
It may be the structures in space.
Maybe fundamentally connected through these quantum entanglements.
And it may be that the substrate, space itself, we don't usually think of space as something because it's kind of invisible.
But we're within the fabric of space-time itself.
And that arena may be stitched together by these threads of quantum entanglement as well.
It's more diluted by the number of particles that are involved.
So if you just have two particles in a pristine environment, like a total vacuum, and they're entangled, you can move them arbitrarily far apart, and the entanglement will not dilute.
That's the craziness.
You could have two particles on opposite ends of the universe, and you measure one and the other.
Well, as with everything, you have to interrogate precisely what one means by revolutionize everything.
Maybe in some rough sense that's true.
But let me just first say what it is and then say what the possibilities are.
So, imagine...
That you have a computer that can access the many worlds of quantum mechanics.
Now when you're carrying out a calculation, you don't Have the calculation solely take place in one universe.
You have it take place in a whole collection of parallel universes.
Allowing in some sense to divide up the calculation and in parallel have it take place across this spectrum of universes.
Clearly that will rapidly speed up the calculation because now it's no longer happening in one universe.
You split it across many universes.
So in some sense Quantum computing is trying to leverage that quality of quantum mechanics.
Now, that's one language, using the language of many worlds.
You don't have to use the language.
You can also use just the language of probabilities.
So, if you have a particle, like an electron, normally in a classical world, you'd say it's either here or there.
In a quantum world, our world, it can be in a mixture of here and there.
If it's in a mixture of here and there, you can do calculations here and there.
Whereas in a classical world, you could either do the calculation here or there.
So it's basically substantially increasing the places where calculations take place, thereby substantially decreasing the amount of time that it takes these calculations to be accomplished.
So in regular computing, you have quantum qualities, because like I said, the integrated circuit, you need it to understand quantum mechanics to guide the motion of the particle through the integrated circuit.
But in the end of the day, A traditional computer, a classical computer if we will, stores information as bits, zeros and ones.
So you have one bit that's either a zero, another bit that's either a one, and through that you can store information and manipulate information, and that's what computation is all about.
The quantum computer changes the bit to the so-called qubit, What is a qubit?
A qubit is a specially defined and constructed digit that can be in a mixture of zero and one.
And specifically, the way we usually do this is we have what are known as spin systems.
So an electron has a spin, like a little top.
And it can either spin counterclockwise that we call spin up or clockwise that we call spin down.
In a classical world, the electron is either this or this.
In the quantum world, it can be a mixture.
And so, literally, these quantum computers have these spin systems that are in these mixtures of up and down simultaneously.
And that allows them to do multiple computations simultaneously.
That allows them to decrease the time it takes to carry out the computation.
You know, if you see some of these things, they look – I've heard them described.
It's not a bad description.
It's sort of like chandeliers.
You've got spin systems in arms of the chandeliers and you have cooling systems that are vital to these computers because – If there's heat that comes into the system, it can destroy this delicate mixture of up and down simultaneously.
So they're far more delicate, and it is much more difficult to, at this stage, have the number of bits.
So an ordinary computer can have as many bits as you want.
As you say, just, you know, put more boards, expand, you know, the random access memory.
You know, it's all up to you, the user.
For quantum computers, you've got to make sure that all these qubits are working together in order that they can perform these calculations.
And it's very hard to have a whole lot of qubits maintain the so-called quantum coherence that allows them to work together.
So the maximum number of qubits in quantum computers that have been built is only at 50. I think?
And in that way, in principle, being able to do calculations exponentially more quickly.
There are those in the field who are careful to say that they don't think that we'll ever have quantum computing in everyday life.
And the reason for that is largely the cooling issue.
And it has to do with the...
Difficulty in maintaining the stability of these devices.
They're so delicate.
Whereas, you know, you drop your laptop, you may crack it or something.
But, you know, for the most part, you drop your phone and it's fine.
And so there are those who say that we will never have these things in daily life.
They'll always be highly specialized, you know, in laboratories that we somehow make use of as opposed to carry around in our pocket.
But the same was said about ordinary computers, you know, 60, 70, 80 years ago when a computer in those days filled an entire room with all these vacuum tubes.
Whoever thought that we'd be walking around in our pocket with something more powerful than that kind of device?
Yeah, so I'm skeptical whenever I hear people say, never, never, never.
But in this case, I'm almost open to the idea because these systems are...
So incredibly delicate.
And in fact, one of the hurdles right now in quantum computing is they're not reliable.
These qubits, they can flip from one state to another, ruining your calculation very easily.
So what some of the quantum computer specialists are developing are what is known as quantum error-correcting codes, redundancies in the information in the quantum system so that when this kind of Spin flip should happen.
You can correct it down the line and not have to start the calculation from scratch.
Power surge, heat, you know, any kind of environmental influence.
And so it's just a technological hurdle.
It's not really a theoretical hurdle.
We understand what's going on.
It's quantum mechanics, after all.
But it's a technological hurdle to realize this possibility.
But getting to the other question you said, like, what will it give us if we have these quantum computers?
And there are certain calculations...
That on a quantum computer you can do in the blink of an eye that might take years or centuries on a classical computer, such as there are certain encryption ideas that have been applied to securing information in banks and things of that sort.
In the old days it was basically you'd build these huge prime numbers and you'd multiply them together And it would be the challenge of the person trying to hack your system to have to factor this big number and virtually impossible to do in any reasonable period of time.
There's an algorithm that people have come up with that works on a quantum computer that can factor these numbers instantaneously.
So that doesn't sound so good, right?
It means that information that was secure might not be secure but of course then quantum computer scientists come along and they come up with a new encryption mechanism that's quantum mechanically based And that one would be unbreakable even with a quantum computer.
So that's the kind of development which is actually already starting to happen.
You know, a student of mine actually works for a company that generates quantum random numbers.
You need random numbers in order to be able to have the security that nobody's gonna know what number you actually have.
And there are quantum mechanical devices that have already been built to generate those kinds of quantum numbers.
But the overarching from 30,000 feet view is that we'll be able to take on calculations that we could never even imagine doing before, and that could revolutionize artificial intelligence.
I mean, what is general artificial intelligence about?
Looking out at the world and seeing patterns, right?
AlphaGo, this wonderful system that learned The game of Go and could beat masters in the world.
How did it do it?
It looked at a huge number of games and saw the patterns in that huge number of games and with that gained an expertise that allowed it to become the champion Go player in the world.
So it's all about pattern recognition.
It's all about finding patterns.
And that's what a quantum computer in principle could be incredibly powerful at.
So artificial intelligence in principle could take an incredible leap forward, simulating various quantum systems that we want to understand better.
Now, when we simulate them on a computer, we're simulating them on a classical computer trying to mimic quantum mechanical behavior.
Now, if you had a quantum computer, you could actually simulate it with the very physical ideas that are happening in the real world.
So now you have a confluence between the methodology of the quantum simulator and the real world allowing you to do things that you couldn't do before.
So it's just to say that in principle there's a whole lot of understanding of the external world that these devices could give us and that's why people have become so excited about it.
And there's a way in which that makes a lot of sense because what is a game?
A game is an artificial universe with very simple rules.
And therefore it's a simplified version of reality.
And it's also a well-posed game.
I mean, tic-tac-toe versus chess, right?
The difference is in tic-tac-toe, it's so simple that there's no creativity involved.
You know, if you play it correctly, you'll always have a draw, right?
But in chess, because of the great number of possibilities, there's a lot of creativity that comes into play.
It's a universe with a fixed set of rules, it's simplified, and it has the opportunity for human beings to be creative.
And so it's a wonderful testing ground for computers because if a computer can beat a human in that domain, now we can say, aha!
That computer, in some sense, is creative.
And the thing that we usually look to to define ourselves as human beings, how do we differ from other things in the world, the inanimate world?
We're creative, right?
We can come up with ideas.
We can come up with novel ideas.
Innovative ideas.
That's kind of how we define ourselves.
And so when a computer starts to do that, it starts to challenge our humanity.
And I think that's a good thing, right?
I don't think that we are as different from the external world as we perhaps like to think.
We are collections of particles governed by the laws of physics.
And I think it's spectacular that a collection of particles under the ironclad rules of physics can be creative, can come up with ideas, can figure out quantum mechanics and general relativity.
Like, how spectacular is that?
But all we are are big collections of particles governed by those laws.
And all a computer is big collection of particles governed by those rules.
So I... Full well anticipate the possibility for a computer to get to our level of cognitive power and beyond.
And I full well anticipate that there will be the artificial systems that say to us, I have an inner world.
I have conscious awareness.
Now, how will we test that computer to see whether it was programmed to say that or whether it actually is having that inner world?
I don't know.
That's a tough one.
But it's a question we face all the time.
Like, I assume you have an inner world inside your head.
I don't know that for a fact.
You, I assume, are making the same assumption about me.
How do we come to that?
We come to it based on the fact that we're having a conversation and we observe each other's behaviors and all of that comes together to suggest that we are each roughly the same and therefore I assume that what's happening inside your head is roughly the same kind of processes that happen inside of mine.
We have to infer it.
And we're going to have to infer it for artificial systems too.
And, you know, if you walk down the street and there's an artificial system sitting on a park bench, you know, hand on its head saying, I'm so worried.
What's it all about?
You know, what's life?
And if it's real, you're going to say, wow, that computer's having an existential crisis.
And there's a real inner world happening in there.
Yeah, I think we have an internal bias about our own uniqueness in terms of our – because we're so unique in comparison to all the other animals and our ability to manipulate the world and our environment and our use of creativity.
And if you took into a computer, specifically a super powerful computer like what we're assuming a quantum computer could become – Could take into account all the things that have ever been said by any human being ever, the motivations for those things,
whether it's love or emotions or jealousy or narcissism or whatever these weird human quirks are, and they could figure out a way to create works of art.
They could figure out a way to do things that are uniquely moving to us.
And that's what's going to be really weird.
If a computer can write a book that blows you away, a computer can write a better version of The Great Gatsby.
Because look, what is it that distinguishes us as a species?
Many people will point to different things, but one certainly is that we are deeply social as a species, and because of that we've been able to learn from each other And therefore not had to start each generation from scratch, right?
Many other animals in the animal kingdom, they basically each generation kind of start from scratch.
They don't have books that they can read about discoveries of an early rage.
They don't have teachers.
I mean some do, but they don't have teachers that can give them the corpus of knowledge going back hundreds of years.
They probably don't have universities where they can learn about what happened over the last 500 years and therefore not have to start from scratch.
And so When you talk about the capacities of artificial systems, they will be far more social than we.
Why?
For exactly the reason you're saying.
We typically learn from a handful of masters that had, you know, Albert Einstein's work, all physicists learn about it.
You know, artists maybe learn about the work of Rembrandt or Picasso, you know, the masters.
But an artificial system can learn from every single other artificial system.
There's no limit to the connectivity between those systems.
So whatever pattern a given artificial system figures out, they'll all know about that pattern simply by communicating among themselves.
In our environment, we only communicate with a small number of other human beings over the course of our lives.
And again, some of that knowledge is stored and therefore it becomes widely accessible.
All knowledge gleaned by any artificial being within the network will be immediately shared by every other artificial being within the network.
And therefore, the very thing that makes us special, the collective culture that allows us, each generation, to build on the insights of the previous and not have to go back to the beginning, that will be amplified enormously for artificial systems.
So why wouldn't they be able to create the greatest work and the greatest novels?
There's this whole area of evolutionary psychology which applies the ideas of evolution by natural selection Not just to the physical system.
That's where we normally learn about it in school.
You know, we see how a given species changes over time because there's a random mutation and that mutation allows that individual to better adapt to the environment and therefore that particular morphology, that change, spreads widely through subsequent generations.
That's normally how we talk about evolution by natural selection.
But as you're saying, it also applies to behaviors.
There are certain behaviors that allows an individual to better navigate in the ancestral world, and that behavior If it had some genetic basis, can be passed on to the next generation and passed on to generations still.
So yeah, lifting up the leg to pee is one example of that, but there are many other behaviors.
I mean, a canonical example is we have a predilection.
We like sweet things.
We like fats, right?
Why?
Well, the evolutionary psychologists have noted that in the ancestral world, those of our forebears who had a tendency to eat ripened fruits or to eat nuts, they stored up on calories so that when times turned lean, they were the ones that survived.
And therefore, they passed on that propensity to enjoy sweets and fats, and we are the recipients of that long chain of behavioral predilection.
So that's certainly the case.
But the thing is, we then go beyond that.
We are able to store culturally information and breakthroughs from an earlier generation that may not have any relevance to our DNA, and yet we can pass that knowledge on.
So Newton's ideas and Einstein's ideas, we will continue to pass these ideas on, and I presume they're not going to be imprinted in anybody's DNA. Maybe one day they will be, but certainly at the moment they're not.
Your golden retriever, that kind of dog, you're saying it was a golden?
The mother of your golden retriever and the mother of that mother and going all the way back, they pretty much all lifted up their leg and peed.
And there wasn't a whole lot else that got passed through.
From sort of cultural heritage of things that one dog discovered that could then pass on to subsequent generations.
So what makes us special is we certainly have behaviors that are passed through the lineage in this manner of evolutionary psychology, but we also have culture.
And culture allows us to store the insights, the breakthroughs of an earlier age, allowing us to get to where we have gotten.
I mean, I've often wondered if I got stuck on a desert island, How much of the world would I be able to recreate?
Even how much of the world of physics?
Not much, right?
Because I have assumed so much from earlier generations.
I don't know that I couldn't build an integrated circuit.
I couldn't recreate a computer.
I could write down the laws of general relativity and quantum mechanics, and I could work out for them the mathematics of black holes and entanglement, that sort of stuff I could do.
But there's so much of the culture that I... I have no capacity to reproduce.
And that's our collective socialization that we're able to benefit from the fact that we all talk to each other and we all know about things that happened in an earlier age.
And that is what makes us special.
And that is what we will also pass on to artificial systems because they're going to be able to do that too.
It seems like almost a race in time to see if we can get to this quantum computing level in a personal way that you can use before we destroy ourselves.
Because if you go back to think about culture and the way we interact with information, how much it's changed since the 1700s, the 1500s, Things had to be written down, then the invention of the printing press, and then all these different steps that have allowed us to access information more readily and easily to the point where we're at now, where you have a phone in your pocket you literally ask a question to, and it'll Google it and come up with the answer for you, and it's amazing, right?
I mean, when we were kids, that would have been just a mind-blower, a device in your pocket that you could ask a question to, and it literally has Like, knowledge beyond your wildest dreams, access to scientific papers, thousands of years of people pondering the universe, and you can have the answers to almost any subject right there in your hand, but that's the tip of the iceberg.
If I'm being cynical, and I often am, that is what's going to lead us to become some sort of a symbiotic creature, some sort of an integrated computer-slash-biological entity.
Well, all I'm saying is we've been on a particular evolutionary trajectory and for a long time it's been thoroughly biological and thoroughly by random mutations.
If that now moves to a new phase in which we've got new kinds of materials and new kinds of ways of modifying the system that's not just random mutation and natural selection, So be it.
It seems like if we can manipulate matter and, you know, with CRISPR we're manipulating genetics, it just seems inevitable that we're going to one day be something unrecognizable.
Because even evolution of natural selection takes you to an unrecognizable place.
We just have to wait a very long time.
Now we're simply speeding up the process by taking the reins of change as opposed to allowing it to be this or that cosmic ray particle banging into that particular genome and causing a mutation.
And I often wonder about social trends and there's almost a frantic desire to escape from a lot of the biological constraints that human beings are saddled with.
The other one being aggression, what we call toxic masculinity.
We've never heard of toxic masculinity 20 years ago.
It was a desirable trait.
And now it's considered toxic.
When we think about aggression and war, it's more abhorrent now than ever before in human history.
And as we move further and further, not just that, but even cruelty, bullying, there's all these things that are in the forefront of the conversation that we have about what's desirable and not desirable, what we tolerate and what we won't tolerate, and that these things...
Bigotry, racism, homophobia, misogyny, but if you break down what they are, they're singling out individual groups for what some people who are ignorant deem as undesirable characteristics.
And a lot of it's biologically based.
And we're moving away from that.
We're less tolerant of that than ever before, even within recent memory, right?
And this is moving towards...
And also, people are really concerned with mindfulness, being in the moment, being not externally motivated by negative thoughts and feelings.
And we're moving towards some weird understanding of what we would deem to be our own ability to achieve some semblance of enlightenment.
And that will be encouraged along by new technology that maybe can eliminate some of the problems that we have.
And then I think, and this is where it gets really weird, I think some of the problems that we have are biological sex-based problems, meaning our desire and ability to procreate and to attract mates.
What if they come up with some new method of replicating?
Some new method that doesn't involve biological sex?
Well, once the thing that it's deciding to kill are the other, like the old representation of a human being that is damaging the ocean, polluting the atmosphere, all these different things that come along with being a person who has access to these incredible technologies that we don't have the discipline to utilize these things fully.
And one of the reasons for that, I think, is that we haven't invented them personally.
Like, you can just get a gun, right?
And you just go randomly running around shooting people.
Maybe if you developed the concept of gunpowder and figured out how to put it inside a shell casing and figured out a bullet's trajectory and figured out rifling on a gun and all these different...
Maybe you would have a greater understanding of what you've created and you'd feel more responsibility to be more cautious with it.
But tofu, peanut butter, And, you know, I think the amount of protein that people think that you need, and if you don't have it, you're somehow going to fall apart.
I don't know.
I don't think that much about it, and I've survived to this point.
And what brooding is, a chicken gets this idea that this egg that they're laying, even though there's no rooster, because chickens lay eggs with no rooster and those eggs never become an actual chick.
But the chickens get this idea in their head that this egg they're sitting on is going to become a live chick.
Because that's what they're supposed to be doing.
They're supposed to breed with the rooster and the rooster gives them a chick and it comes out of the egg.
So the chicken will just decide this.
They'll pull their feathers off and they'll sit on this egg and they'll do it.
They want to do it for like a long time.
And if you come anywhere near that, they'll peck at you.
So you have to take them out of their little cage where they're sitting on this egg.
They were in a large chicken coop that was bigger than this room.
And they also free range.
Like I would open the chicken coop in the morning and they would run around the yard.
But I'd have to take them out and put them in a separate smaller cage where they have to stand on a rail.
And you'd have to do it for a couple of days so they get it out of their head that they're raising a chick.
It's just some weird process.
And if you don't go through that process then it takes them like a full cycle of like 20 something days before they get out of it.
But they injure themselves.
They pluck all their feathers off.
They get real weird.
It's like some system happens in their head.
So I had to put them in a smaller cage.
And the coyote tricked the dog into smashing this cage.
So me and the kids and my wife were playing some board game.
I forget what it is.
We're sitting in the living room.
And I see this fucking coyote run through the backyard with a chicken in its mouth.
Really?
I'm telling you, dude, I had a fence that was like six feet tall, and this coyote jumped over that thing like it didn't exist.
It was so elegant, so graceful.
I never saw a coyote do that before, so I thought, well, fucking six foot fence, we're not getting through this.
Their feet landed on the top of like a cast iron fence or a wrought iron fence rather.
Landed on the top and bounced right over it like it didn't exist.
And then I go, how the fuck did he get the chicken?
And I open up the door and I go in the backyard and there's Johnny Cash, the Mastiff, standing in front of this smashed box.
And I'm like, you dumb motherfucker!
You smashed that so the chicken could get...
The coyote could steal the chicken!
So then, unfortunately, he had it in his head that it's fun to kill chickens.
Because the coyote did that.
And then he looked at the chicken coop, not that day, but like a couple months later, he's like, I think I can just run right through that fucking thing.
Because he was big.
And so he just used his paws and smashed a hole through the chicken wire.
Because chicken wire is not going to stop a 140 pound mastiff.
And he just tore a hole through and just went on a rampage.
But that fire that you referred to right there, going back to our evolutionary story, that's a critical moment.
I mean, fire, you say, what made us human?
Fire made us human, right?
With fire, all of a sudden, we could outsource digestion, cook the food externally so that we could have the amount of calories and nutrition that otherwise...
Moments in our history that are pivotal that you don't focus attention on is necessarily that thing that made us ultimately who we are.
So what things are we doing today that generations of the future or millennia in the future will look back and aha, that's when we went through the transformation.
It's very hard to know.
But these things can have a ripple effect that is of profound consequences.
But work over the last 20 years has established that When you have a black hole, actually even more general systems, but talk about a black hole, there's an alternate description of a black hole in terms of what's known as the holographic description.
It's as if there's a two-dimensional world that surrounds any given three-dimensional world that has exactly the same physics as the three-dimensional world that we're familiar with and yet it describes it in a completely different language.
So a black hole gravity is obviously essential.
That's how a black hole forms.
But in this dictionary that physicists have developed, there's a description of a black hole that doesn't involve gravity, only involves quantum mechanics.
And the beautiful thing is the quantum processes in that quantum world Mimic the kinds of processes that people have been developing for quantum computing, quantum error correction code.
And there's a dictionary that people have proposed for that quantum language on the holographic boundary with physics in the interior.
And the dictionary shows that the quantum error correcting code may be the reason why space-time itself holds together.
So there's this bizarre way in which everything that we know about in the world around us has a translated dictionary version in a different world that lacks gravity but has quantum mechanics.
And so people are using some of the insights from quantum computing to understand questions about black holes in space-time.
So as quantum computing expands, much like as computing expands, if you go back to the early NASA computers that filled up a whole room, we can extrapolate that as we get better at this and you look 50 years down the line from now, quantum computing will be the standard, it will be the norm.
And it will probably radically alter our understanding of everything.
So there's a real possibility that the language that we use for space-time and black holes may bear a profound imprint of the language that we are developing to understand quantum computing, quantum computers.
I mean, oftentimes people think about black holes as these gargantuan structures that form from collapsed stars.
There's a big one in the center of our Milky Way galaxy, weighs four million times out of the sun.
The photograph of a black hole in the galaxy M87 that got the world excited a couple of years back, 55 million light years away, billions of times the mass of the Sun, but the reality is Anything, if you compress it enough, becomes a black hole.
If you take an orange and you squash an orange down sufficiently small, according to Einstein, it becomes a black hole.
So these things don't have to be gargantuan.
The flip side of it is we also typically have an intuition that black holes are really dense, right?
That's usually the way we think about them.
But if you make something sufficiently large, regardless of how low its density is, it will also become a black hole.
So you can make a black hole out of air.
By just having enough air.
If you have enough air, sufficiently large sphere of air, it would become a black hole too with the density of air.
So all the intuitions that we typically have about black holes, that they have to be dense and they have to be gargantuan, not right.
Yeah, when you look at Einstein's equations, right in his mathematics, there's a little formula that you can see where it says if you have any mass m, whatever mass you want, And you squeeze it into a radius, r, that's less than 2 times Newton's constant, 2g, times m, divided by c squared.
Speed of light squared.
A formula.
Details don't matter.
But you take any mass, if the radius within which that mass sits is less than 2gm over c squared, it is a black hole.
Period.
End of story, according to Einstein.
Now, Einstein left out quantum mechanics.
Weirdly, right?
Because his Nobel Prize was for quantum mechanics.
It was for a paper he wrote in 1905 about the photoelectric effect.
But he never really believed that quantum mechanics was the true description of the world.
And when he was developing the general theory of relativity, he was just thinking about gravity and not quantum mechanics.
Stephen Hawking came along in 1974 and started to inject quantum mechanics into our understanding of things like black holes.
And that's where Hawking proved that black holes are not completely black.
He showed that black holes allow a certain amount of radiation to leak out of their surface, leak out of the event horizon, or leak out from just beyond the edge of the event horizon.
And so, yes, when you think about black holes, as far as we can tell, they are a fundamental quality of the world, but you have to include quantum physics to truly understand them, and that's the cutting edge of what's happening right now.
The Sloan Digital Sky Survey did a wonderful study of a vast number of galaxies and I've seen these wonderful images where they put like a little red circle around all those galaxies that have a black hole in their center and there are red circles all over that imagery.
So it seems to be a ubiquitous quality.
That black holes are at the center of galaxies, and those are typically gargantuan black holes, millions or billions of times the mass of the Sun.
You know, there's still a lot of uncertainty about galactic formation.
You know, some have suggested that Early stars, which were quite large compared to more modern stars, when they exhausted their nuclear fuel and they collapsed in on each other, they created black holes that were large, and then they continued to suck in more material from the environment, and they grew larger and larger still.
So that's sort of one rough way that people think about how these massive, enormous black holes may have formed, but it's uncertain.
LIGO, this laser interferometer gravitational wave observatory, gravitational waves, it took headlines a few years ago when it detected the first ripples in the fabric of space.
It detected them from two black holes that were 1.4 billion light years away, like 1.4 billion years ago, rotating around each other, going near the speed of light, slamming into each other, creating a tidal wave in the fabric of space, That rippled outward at the speed of light.
Part of it raced toward planet Earth.
There wasn't anybody on planet Earth to see it at that moment, but it had a 1.4 billion year journey to traverse.
It raced toward planet Earth.
When it's about 100,000 light years away, it grazes the Milky Way galaxy.
It continues to race toward Earth.
When it's 100 light years away, a guy named Albert Einstein writes down equations that suggest there could be these gravitational waves, unknown that one is already racing toward the planet, right?
It's two light days away when they turn on the newly refined version of the LIGO detector.
And two days later, that wave rolls by.
Planet Earth shakes the two detectors, one in Louisiana and the Washington State, giving us the first direct detection of ripples in the fabric of space and establishing that the story that I told you is true.
And before the direct radio-telescopic imagery from the Event Horizon Telescope of the black hole in M87, that ripple in the fabric of space was the most direct evidence that black holes are real.
Because when you took the way that the machine in Louisiana and Washington, it twitched for just a tiny fraction of a second...
When you figured out, using supercomputers, what the cause of the wave must have been, you are led to two black holes that are 28 and 31 times the mass of the Sun, or 36 times the mass of the Sun, numbers of that sort.
And that was the only explanation for the data.
And so there's this beautiful indirect proof that these stellar-sized black holes are actually out there.
And then, of course, we take a photograph of one in a nearby galaxy.
Okay, so we have this misconception that black holes are always these supermassive objects that have incredible amounts of gravity, and they're sucking in planets and stars and churning them up.
Because we're thinking of massive black holes, like the supermassive black holes are at the center of the galaxy, which is like, what, one half of one percent of the mass of the galaxy?
So if our galaxy has, say, 100 billion suns, you know, and that guy is about 4 million times the mass of the sun, yeah, you're talking about, you know, a thousandth or something of that sort.
I mean, do you know if you take your thumb and you put your thumb on a nice clear night and you block out a thumbnail worth of the sky, you're blocking out about 10 million galaxies.
You can't because they're so non-human scale, right?
We've just never experienced anything like that at all.
And it could be that it's infinite.
Space could go on infinitely far.
It could be that the galaxies continue onward infinitely far.
And therefore the numbers we're talking about could be minuscule on the scale of the fullness of reality.
And of course that leads people to the conclusion, well, there must be other life out there.
There are all these planets around all of these stars, all of these suns that are out there.
Yeah.
I'm sympathetic to that perspective, but on the other hand, there are some pretty iconic qualities of our environment that allowed life to form, and intelligent life to form is yet another special event on top of the unlikeness of life itself forming.
So who knows?
You know, if a meteor hadn't slammed into the earth 65 million years ago, it'd still be the dinosaurs walking around.
And who knows, maybe they'd develop to a point where they'd start to contemplate these things.
But I doubt it, right?
You know?
And so there could be life out there.
But if it's not intelligent life, it would be interesting.
We'll learn a lot.
But it's unclear that it's going to really change our sense of cosmic loneliness, which is really where we're at at the moment.
Yeah, it's one of those things that are – it's probably one of the biggest questions that the human race has ever contemplated.
Are we alone?
And if we are alone, is that good?
Is it bad?
Like, is it sad?
Is it lonely?
Like, if life really is so difficult to cultivate to the point where it gets to be able to alter its environment the way we do, if this really is a one in a hundred trillion opportunities— Well, to my mind, that gives us a certain profound responsibility.
Well, some people are making quantum computers that may revolutionize what it means to be a person.
But if that's happening all throughout the galaxy, that's when things get really strange.
If there's multiple examples of this, but not where we are, maybe 500 years ago, and maybe 500 years from, and maybe a million years from, dependent upon the vulnerability of their solar system, right?
Yeah, and some people find that frightening, right?
Some people worry that—I mean, you know, the James Webb Space Telescope is supposed to launch in October, I think it is.
And it's going to have this refined capacity to look at planetary atmospheres.
As planets go by their host star, they're going to observe the spectra of light that's absorbed by that planet's atmosphere— And so there's a chance that you might find biomarkers.
Like, when we're saying that, we're talking about crude territorial apes encountering other crude territorial apes throughout history, right?
When human beings have encountered other human beings, they've gone, what do you have?
You have gold?
I'll take that.
Give me your women, give me this, give me that, and, you know, I'm gonna light everything else on fire.
But that's just humans.
If we can get past this, like what we were discussing before, that the human race itself, culturally, is moving pretty far away from where we were when we had to worry about pirate ships pulling up through our docks.
And that if we continue to go on this path, and we get to the point where we all look like those gray aliens with the little feeble bodies and the giant heads, I think that iconic image, I think that's almost like we understand where this is going.
So the benign alien that we will one day become, if that's who we'd be contacting at some distant planet, then maybe it would be fine.
And look, how spectacular would it be to encounter another life form?
First, to see whether the biochemistry is the same.
Is life this one-off chance it happened only once?
On these two planets because there's some coincidence, or is it that there are many ways to get living systems and many ways to get intelligent living systems?
That is the first data that we'd ever have of that sort, for sure.
But, yeah, I mean, the question is, will we get to a place where they're not afraid of us, you know, if perhaps they're that much further ahead of us at the moment?
Yeah, I don't know that I would do it in sort of a mystery manner if I was designing that level of sort of aversion therapy, you know, to try to get them used to this idea that there's other life in the universe.
Nor would I take the approach, say, of, you know, the Twilight Zone episode, you know, the famous one, you know, to serve man.
But the other thing to bear in mind that I think puts us in a slightly funky context and brings us full circle, if space goes on infinitely far, which is certainly a real possibility, then you can mathematically argue that not only is there other life definitely out there, there are copies of us.
An infinite number of copies.
An infinite number of copies, because in any finite region of space with a finite amount of energy, there are only finitely many ways that the particles can be arranged.
And therefore, if you go on infinitely far, the particle arrangement has got to repeat, right?
I mean, it's like you have a deck of cards.
As you shuffle the cards, you get this order, that order, the next order.
But you and I know you shuffle it enough times, it has to repeat because there are only a finite number of different orders of the cards.
So if you shuffle it enough times, you're going to have to come back full circle.
Similarly, you're going to have to come back full circle with a particle configuration if you go sufficiently far away.
And so that would say that, yeah, of course there's other intelligent life out there.
We are out there.
I mean, literally, we have.
In the sense of our configuration would be among those particle arrangements out there in this infinitely large universe.
Well, I would say that the world isn't constructed...
By our definition of absurdity, right?
The world just doesn't care.
It is what it is.
But it's a mind-bending possibility, which doesn't really reflect on the question of whether there's life out there in the usual sense, because we mean in the observable universe that we have direct access to, and these regions would be too far away.
But in that sense, we would be guaranteed.
That there would be life out there in this wider landscape.
But we're talking about in terms of distance, right?
We're talking about infinite distance, and through this infinite distance, there's infinite possibilities, and through those infinite possibilities, there would be what we're experiencing here in infinite forms and infinite variabilities all throughout the universe.
But when you're talking about the many worlds theory, you're talking about it Occurring not in a distance, but you're talking about it almost like in a...
It's sort of a separate realm, that's how we normally talk about it, and those parallel worlds are somehow in existence but they're not touching us, they're not like directly connected to us.
Now the weird thing that happened some years ago, and it's an idea that's still in development, Some physicists have suggested that the infinite worlds of the many worlds interpretation and the infinite worlds of infinite space, you know, that we're talking about from just having reality extend infinitely far, they may be connected.
But that's when people get real woo-woo, they open up this possibility that every decision you make changes reality itself because you're now in a different timeline, you're now in a different version of what the universe is doing.
But there's also this faith that we have to have that the reality that we experience when we wake up every morning is the reality that we've been experiencing our whole life.
shut off and we turn back on again with memories and ideas, we just have to assume that this is all linear.
And that's one of the saddest things about people that have memory disorders, when you start to see them slipping away and not recognize their own children and not understanding what's going on or where they are.
And if you think about it, again, it's a whole distinguishing quality of being a human, right?
Lives in the moment.
Sure, I mean, all life has some degree of memory, and I'm not saying anything other than that, but most life lives in the moment in terms of the goal-oriented behaviors are fixated on solving an issue of the moment.
Get the food, get the shelter, escape that predator, right?
We are among the few species, and certainly we have the most refined version, where we can lift ourselves out of the cosmic timeline.
We can imagine the distant past, we can make predictions about the far future, and we can see our lives within a temporal narrative that most other animals just have no awareness of.
And to my mind, that comes with power.
We can understand things so much more deeply, but it's also tragic because we're also the sole species who really understands death, right?
I mean, some people say to me, what about elephants?
And I say, yeah, elephants, they do have morning rituals.
I'm not saying that they don't respond to death of a member of their group, but that is, again, responding to something of the moment.
And sure, they, for a few days, will carry out a ritual behavior.
We live our lives constantly aware of the fact that our time is limited.
Our time is finite.
That drives this search for meaning that many of us are on.
That drives this search for purpose.
That singular capacity of our brains to stand outside of the timeline is what, to my mind, defines what it is that makes life worth living.
You know, a caterpillar doesn't know what it's doing.
It's making a cocoon.
We're buying iPhones and new televisions and this constant need for the newest, best stuff.
And even materialism in general.
Materialism in general fuels innovation because materialism makes you want the newest, greatest things.
And the newest, greatest things are pushed by the fact that people are purchasing them.
It becomes the big industry.
If you looked at...
Human beings from afar.
Like if you were objective and you looked at us like if we were something completely different than a human being observing us.
Well, what do these things do?
Oh, they make stuff.
They make newer, better stuff.
So they're things that they desire and that they create are better and more efficient every year.
That's what they do.
So they're just constantly...
Whether they're innovating personally or whether they're using their labor to fuel the monetary success that they have from their labor and using that to fuel this innovation, but overall the species.
Well, it's all a question of what energy we're able to conquer and bring within our capacity to control, right?
I mean, when we controlled fire, we had a new energy source, and a new energy source allowed us to cook food, as we were talking about.
That cooked food allowed the brain to grow, and as the brain grew, it allowed us to work together in groups to get bigger animals, and in that way, there's this wonderful cyclical There's a loop whereby there's this relationship between energy control and evolutionary development, right?
So right now, where are we?
Well, we're able to use some of the sun's energy.
We haven't been able to use all of the sun's energy.
Most of it goes off into space.
We'll fully be able to use the sun's energy.
Maybe we'll surround it with, I don't know, a Dyson sphere, this sphere that would capture all the energy and then beam it to wherever we needed it.
So that will be a solar system level energetic control.
And then at some point, we may go beyond that and be able to control the energy of many suns, maybe all suns in a galaxy.
Yeah, he imagined either you build a sphere or he also imagined a version where you'd have all these satellites in a spherical configuration around the Sun.
So maybe it wouldn't be a solid sphere, but it would be a spherical configuration.
And so the Sun's energy, which is mostly just radiating radially outward from the Sun, could be captured.
And if you could capture all of the Sun's energy, then The things that you'd be able to do with that energy are radically different from the things that we're able to do with the energy sources that we now have.
In fact, there have been, at times, it was always hype, I thought, but there have been times when people suspected that certain anomalous Yeah, I've seen those.
But at least in principle, you can imagine that if you demarcate the moments in the species by the energy that it can control – So fire, then we can control the energy of an atom, right?
We can certainly control that through fission.
We'll at some point maybe get to a place where we can truly control through fusion.
Now we've built stars in the laboratory, if you will.
Then we'll control fusion on stellar scales, say through a Dyson sphere, and then we can keep on going.
Now where does that stop?
I don't know.
But if it doesn't stop, the ways in which we will evolve—I mean, just think about what fire did for us, right?
The ways in which we're going to evolve, I think, are going to be utterly stunning.
And, of course, we'll be controlling that evolution by that point through the control over genomic systems or through our merging with artificial systems.
You know, I— Not in any particularly creative way.
I mean, I follow what people have done, and it's jaw-dropping, the interfaces that people have developed between brains and artificial computational systems.
And I'm not by any means saying that we shouldn't.
I think we need to be mindful of that in order that we perhaps can have the most fruitful partnership as we go forward.
But yeah, I do think at some point we'll have to give up an An archaic sense of who we are, in light of the capacities that these partnerships, these collaborations, to put in the most positive light, will yield.
In a way, that's what the Unabomber was terrified of, right?
Is that true?
Yeah, he wanted to stop technology.
He thought that human beings were being foolish in their advancement of technology, and that technology, I'm pretty sure, that was part of his manifesto, that technology was going to replace us.
And they did that to quite a few people, and a lot of them went mad.
And he was one of them.
He became a professor, but just for a short period of time, so he could gather up the money to buy this cabin and then start his attack on people that created technology.
All the people he blew up, all the people that he sent these bombs to, they were all related, I think most at least, were related to the propagation of technology.
Because it was at his developmental stage when he was very young and a baby and just, you know, you need your mother.
You need to be touched.
And they had him in some hospital for a long period of time.
And his brother, who was the one who recognized that he was the author of the manifesto because he knows how crazy his brother is and he knows how he writes.
He recognized the manifesto and recognized the language of it.
And he relayed the things that his son had done.
Yeah, and he relayed the thing that his brother had gone through with his parents.
He had very cold parents, and the whole deal was really...
There was a lot of elements that were in play to create a Ted Kaczynski, but one of them was that he was a part of the Harvard LSD studies.
I mean, it's sad and tragic, but I don't know how you feel about it, but the fact that we...
You've got this incredible paranoia about psychedelics, and maybe it was stories I didn't hear, I didn't know about the Ted Kaczynski connection, but certainly there was this irrational paranoia that emerged, you know, I guess in the 60s and 70s and shut down what was incredibly promising research.
I'm not saying the Timothy Leary approach, but I'm saying there were people who were taking a very considered approach to psychedelics to deal with very specific issues.
And now it's starting to come back, which I think is enormously powerful.
Because look, I mean, you know, everything that we've spoken about here today, everything that we know about the world is filtered through the human brain, right?
So when we talk about quantum mechanics and general relativity, we're talking about we look out at the world, we process it through this particular...
Conscious state and using that we're able to come up with ideas that explain things that we observe.
But there are other states of consciousness.
I mean ultimately I think that we create, I mean I believe there's a real external reality, but we create our own narratives about that reality.
And if with some additional substances we can Modify or enhance or enlarge the kinds of narratives that we're able to tell, the kinds of coherent stories that we're able to overlay on our experience.
You know, that's where we've really been robbed, is that if they didn't pass the Sweeping Psychedelics Act...
Of 1970, where everything turned into a Schedule 1, even things that weren't psychoactive.
If they didn't pass that, we would have most likely entered into a stage of our history where we were running legitimate studies, and we got an understanding of the benefits of them like they're doing now with PTSD studies with MDMA, where they're realizing like, well, you know, this ecstasy stuff is not just a party drug.
It actually can really help soldiers recover from some of the psychological wounds they have from combat.
And then you've got what Johns Hopkins has done with psilocybin.
There's psilocybin studies and they're about to enter into some of them with UFC fighters now.
Guys who have had traumatic brain injuries and been knocked out and had head injuries.
Because neurogenesis that occurs through psilocybin, it's very unique.
Like psilocybin allows the brain to regenerate neurons.
It's one of the rare things that does that.
And they think there could be some therapeutic uses of that for people that have been in car accidents, soldiers, again, who've experienced head injuries, football players, the like.
Anybody that's had problems with cognitive function, maybe even neurodegenerative diseases.
Yeah, and all these things are just, we know that there are some mushrooms like lion's mane that have some cognitive benefits and neurogenesis properties, and they're hoping that there's some real therapy to these things, and they were denied the use of them for decades and decades, and based on ignorance.
It's interesting, you know, when people hear me espouse my view that all we are are particles governed by physical law, A number of people who have had psychedelic experiences contact me and say, I've got proof that that's not right.
And of course they'll communicate some kind of experience they've had.
Under the influence of some kind of psychoactive substance.
And it's interesting because, you know, I usually don't respond, but on occasion I felt the need to respond.
And it all comes down to, do you view what happens during a psychoactive experience as tapping into some other deeper reality?
or do you view it, again, as just some product of this amazing thing inside of our head when it is influenced in an unusual way by some kind of psychoactive substance?
And to me, it just seems dead obvious that there's nothing beyond the particles and the laws.
And if you change the particles, keep the laws the same, the experience is going to be a little bit different.
And you're going to enter into a space that's unfamiliar, maybe terrifying if it's a bad trip, maybe thrilling if it opens up some unification of reality and you feel one with the cosmos.
Fantastic.
But to me, that's the miracle of the brain as opposed to tapping into some other kind of reality.
I guess that's the sticking point for people who think that there's got to be something more than this physicalist perspective of stuff and loss.
However, it's indistinguishable from the experience of entering into another realm.
Like the problem is trying to put it on a scale and say, nope, this is what it is.
Because you're having this experience that's, whether you want to call it a hallucinogen, a hallucinogenic experience, are you hallucinating?
Like whatever word you want to use, whatever that thing is when you take these substances, it's like if you are really being transported into another dimension and communicating with other entities, and then coming back to Earth, or whether or not you're imagining it, and then coming back to Earth, or whether or not you're imagining it, the experience That's where it gets really weird.
In principle, you could imagine the world being constructed that way.
But I do firmly believe that there is real stuff that's governed by real laws.
We may not have those laws.
We may not fundamentally know what the stuff is.
But I think there's a real external stuff.
And when that stuff is configured in the right pattern, such as a human brain...
It can begin to have an inner world and inner experiences which is itself wondrous and mysterious, don't get me wrong, but that inner world is not tapping into Anything beyond its own inner experience.
It's infinite in its possibilities or nearly infinite in its possibilities.
I mean – and so where do you draw the line I think is the real question between reality as experienced in the human brain and experiences in the human brain that you want to call reality?
And it's a tough question.
It's a very tough question.
You have to at some point have a means of saying – There is real stuff in the world that our brain is experiencing and filtering in some way versus stuff that's generated from the inner world itself.
And that distinction is hard to make precise, but I think it's utterly profound.
And I think as I get older and I become more aware of my own finite nature as the curtain begins to start to roll down from the rafters, I do hunger for a distinct kind of experience.
There's a book that I think everybody should read.
Maybe you've read it.
William James' book, Varieties of Religious Experience.
It's old, written back in 1902. William James, great psychologist.
He gave some lectures in Scotland, I think it was, at the turn of the century.
And he interviewed a whole host of people in order to get a feel for the kinds of religious experiences, but really the kind of spiritual experiences that people would have.
And some of them were generated through Some kind of psychoactive substance that people were using at the time.
And his descriptions are so vivid that I feel like I've been there on some of these excursions, these mental excursions.
But I do have a hankering.
I do have an urge to enlarge my own sense of what reality is through that experience.
And look, the thing that we once discussed was You know, something that happened in Amsterdam and it was probably very mild compared to other things because I don't really drink.
You know, I don't eat meat.
I'm pretty clean in that way.
So I'm pretty susceptible to these kinds of influences.
And I did not enjoy the experience that I had.
It was pretty awful.
However, back when I was in college, I had some other experiences on other substances, again, all relatively mild, and those were far more enjoyable and mind-expanding.
And I can see both sides, and I'm definitely, I feel compelled to explore more, and I think the world's getting to a place where it will become more amenable to people doing that.
Yeah, they're starting to legalize psilocybin in a lot of states.
That's the real gateway to these experiences.
Once they make that legal, and then you develop...
What we really need to do is develop places where you can, in a professional setting, where people actually understand the dosage based on your weight, based on how much psilocybin is in whatever substance you're taking, or whether it's synthetic, or whether it's in mushroom form...
Because there's very strong psilocybin-based mushrooms and other ones that are more mild.
And once there's real legalization, like you can go into a marijuana store, for instance, in Los Angeles, and you could buy marijuana based on the THC content.
So you could say, what do you have that's mild?
And they go, oh, we got some of this.
What do you have that's like crazy?
And they have space weed that really fuck you up.
And then they have edibles, which are a totally different animal because your body processes through the liver and it produces a completely different psychoactive substance.
So we know all that now because marijuana has been essentially legal since the 90s and legal legal since 2016 when it was voted in in California.
So we have much more of an understanding of the real psychoactive effects and you can actually control it much more.
I've read in some of these studies, the people who are newcomers to this, they actually have an individual who's experienced that sits with the individual and guides them on their journey.
Yeah, you see, my view is, so what do we do as physicists?
We tell one particular story of the world at the level of particles and laws.
The chemist comes along and takes our understanding and builds molecules and atoms from it.
The biologist comes and takes those structures and builds cells and living systems and that kind of domain.
Ultimately, you get up to the neuroscientist who studies the brain and the philosopher who's trying to see meaning that the brain is striving for and so forth.
What it all amounts to is a variety of stories that discuss distinct qualities of the world.
And the richest experience you get is from layering all those stories on top of one another so you can see the biggest possible narrative of all.
Now, if these kind of psychoactive substances can give you new stories...
That you wouldn't have access to through the traditional means, the academic means of, say, of science or through the philosophical means or artistic forays.
If these psychoactive substances can bring in a new narrative, how wonderful could that be for all of us to be able to Layer an additional story or multiple stories upon our understanding of the world.
Yeah, see if you can find Carl Sagan on marijuana, because he had a direct quote that was very similar to what you were just saying, that he believes there's certain...
Thoughts that you achieve and states that you achieve on marijuana that are impossible to get to without it.
You know, this idea of the wonder and the majesty of the cosmos as opposed to just sort of, you know, the test that you had to take in third grade on, you know, something that you're meant to memorize.
Also his elegant use of the language to describe it in a way that was so inspiring and so it was so moving the way he would describe the cosmos.
Here it is.
The cannabis experience has greatly improved my appreciation for art, a subject which I had never much appreciated before.
The understanding of the intent of the artist which I can achieve when high sometimes carries over to when I'm down high.
I guess that's what they would call back then when I'm down.
This is one of the many human frontiers which cannabis has helped me traverse.
A very similar improvement in my appreciation of music has occurred with cannabis.
For the first time I've been able to hear the separate parts of a three-part harmony and the richness of the counterpoint.
I have since discovered that professional musicians can quite easily keep many separate parts going simultaneously in their heads.
But this was the first time for me.
He also thought it dramatically helped improve his sex life, as he analytically explains here.
Cannabis also enhances the enjoyment of sex.
On the one hand, it gives an exquisite sensitivity.
The actual duration of orgasm seems to lengthen greatly.
but this may be the usual experience of time expansion, which comes from cannabis smoking.
And lastly, he argues for outright legalization in light of these benefits.
The illegality of cannabis is outrageous, an impediment to full utilization of a drug which helps produce the serenity and insight, sensitivity and fellowship so desperately needed in this increasingly mad and dangerous world.
This is only one of many quotes that he's had on cannabis because this is not...
There's a lot of people that are in jail for the rest of their lives for trafficking marijuana, which is incredible.
Look, it's just a plant, folks, and it's not toxic, and it doesn't kill anybody, and it's not even addictive.
In very rare cases, there seems to be some people that purport some physical addiction to cannabis, but there's no real mechanism for it that's widely understood, like the mechanism for benzodiazepines being addictive or alcohol, whereas you get off of them, there's actually a real possibility you could die from withdrawal.
There's nothing like that with marijuana.
The addiction seems to be mostly psychological, but again, the biological variability of people, like some people have weird reactions to stuff, and some people may become actually physically addicted to marijuana, but it's super rare.
And way more rare than a lot of things that we can buy readily everywhere all the time, whether it's cigarettes or prescription drugs.
Yeah, but you gotta fucking have a vaccine passport to go anywhere now.
They're doing weird shit in New York.
That Mario Cuomo guy, or Andrew Cuomo, his son.
That guy.
Jesus Christ.
It's amazing how people are exposed in their ability to navigate or not navigate the pandemic and what it's done in terms of different cities and how different places in the country have embraced freedom or embraced regulation and what it's done in terms of the impact that it's had on the businesses.
The fact that you have a year to spend in an unusual circumstance where you rely on each other in a different way, when do you ever have that possibility?
For instance, we never would eat dinner as a family.
It would always be this chaotic thing in Manhattan.
Everybody would just eat at their own moment.
We ate every meal together.
And I cooked every meal for 350 some odd or 70 days or something.
Other than Uncut Gems, which I think is fantastic, but in a completely different way, Uncut Gems is just this wild, chaotic movie that gives you anxiety.
Well in the beginning they were not because we're in California and they were going to zoom classes and then once we moved to Texas this year has all been in school and they both got COVID eventually.
Yeah, because when people come over the house to do work and stuff, I was like, let's just test everybody.
Because, you know, if you have someone coming over the house or someone doing things, and this way also...
I knew, like, if my parents were going to come over, I wanted to make sure that everybody, my wife's parents, make sure that, you know, everybody's okay.
So we tested her, and like, bingo, she had COVID. And then eventually my other daughter and my wife got it, but I never got it.
Yeah, we quarantined them and made sure that we tested them up until the point where they were negative.
And then when they were negative, we gave them three days of testing in a row to make sure that they're, you know, you want to make sure they're actually negative before you re-entry.
But it was quick.
I mean, my one daughter, the first daughter, she had a headache for a day.
Yeah, but it's obviously, you know, it's dependent upon your health, depending upon how much you exercise, what you eat, how well you take care of yourself, and then also what pre-existing conditions are.
Yeah, I would like them to really concentrate on...
I mean, it would be really nice.
I know this is a time where no one wants to fat shame because everybody's worried about body positivity and letting people think they're okay no matter what you are, but you're not.
Your body, when it's obese, is much more likely to be susceptible to all sorts of ailments, and 78% of the people hospitalized for COVID were obese.
It's a terrible number if you think about it that way.
Presumably, you could have avoided 78% of the hospitalizations.
I mean, because it is a thing that a person can avoid.
It is physically possible that you could not be obese.
It's not something like you're born blind or you're born with leukemia.
This is something that you, by virtue of your actions or your diet or your genetics, you're more predisposed to being heavy.
It's unfortunate there's no emphasis on that, that all the emphasis was about stay inside, wear three masks, keep away from each other.
That's all well and good, but there should have been more emphasis on taking care of your body, taking care of your health, and it's just, there was almost none.
Almost none.
The CDC didn't even have anything on their website about vitamin D until fairly recently.
It's really crazy, the former CDC director coming out and saying that it's more likely than not that this was an accidental release of something that they were working on, the Wuhan lab.
And, you know, this is because of Trump, because that guy's such a...
Polarizing figure.
Anything that he said, everybody was like, well, fuck whatever he said.
If that wasn't the narrative, if he didn't have this constant desire to call it the China virus and that people didn't hate him so much, people would have probably looked into that much more readily.
You're talking about a level four lab that is in the same area where the breakout occurred.
And in that level four lab, they work on, wait for it, Coronaviruses, you know, and then Newsweek now entertaining the idea and the CDC director, former CDC director, he comes out and says it's much more likely than not.
I don't know anything about it, but all I can say is that as a scientist, the move from an era when nobody paid attention to facts or denigrated facts or denigrated expertise, at least moving in the direction of Where hopefully these facts and expertise actually matters.
And, you know, compared to the amount of funds that we spend, you know, I hate to frame it as a zero-sum game, but, you know, you divert some military funds to this kind of research, they would never know the difference, and it would make an enormous difference To the ability of our kind of science to train the next upcoming generation.
So the answer is absolutely no, there's not enough funding.
And it's a tragic situation because there are these brilliant young minds who want to pursue these kinds of ideas.
And look, some will say, some in government will say, well, look, that's all esoteric stuff, right?
But those very same congresspeople or senators, if they were...
In their position in the 1920s, I have little doubt they would have said the same thing about quantum physics.
It's just esoteric.
It's just these guys and women who want to understand strange things about particles.
But then 80 years later, quantum mechanics is driving a significant fraction of the economy, right?
Quantum mechanics, as we're talking about, integrated circuits and all manner of electronic gadgetry.
So it's incredibly short-sighted to not recognize that fundamental basic science is the engine Of economic growth.
That's not why I do it.
I'm not that interested in economic growth.
I'm interested in the ideas and the insight.
But put that all to the side.
From a pure dollar and cents standpoint, it's a cheap investment for an incredible potential payoff.
And we're being short-sighted by not funding it at the level that it should be funded.
What do you think could enhance the public's perception of these things other than what you're doing, which is a great thing, by these speeches and going on podcasts like this one or by writing your books?
What can we do to sort of allow people to understand the significance of this work and how it's really impaired by these decisions that you have to make to choose one student over another student or to be limited in the amount of students you could accept?
I mean, certainly, as you're saying, you know, books and lectures, you know, television documentaries, I mean, all these things are really good for getting these ideas out into the public, into the culture, into the zeitgeist.
But ultimately you've got to catch kids at an early age because it's the kids at an early age who are open to these ideas without having to be convinced that they might be of interest.
And it's only when they get to fourth or fifth or sixth grade that their attention starts to turn away from science, which feels abstract and difficult usually because of the way it's taught in the classroom.
So one of the things that we do, you know, I have this non-profit World Science Festival, it's all about creating experiences for kids and adults that allow them to immerse themselves in all of these ideas, from quantum mechanics to cosmology to nanoscience to personalized medicine, the whole gambit, without it feeling like school.
And without it feeling like it's all about assessment.
So much of our educational system, I know this is an overgeneralization and all you teachers out there who are doing a great job, you know, fantastic, but it's so much of our educational system is focused on assessment.
I mean, my kids, so much of their learning of science and other subjects too, it's all about get to the next quiz, get to the next exam, and once they're through it, the material is gone.
It's not there for the joy, it's not there for the wonder of it, and so if we can create experiences that For kids and adults, so it's a full family experience where it's just so thrilling to learn about black holes and the Big Bang and quantum mechanics and entanglement and all the stuff that we're talking about, then I think you've got a chance that the next generation looks at science in a different way.
You know, where you can sort of see the quantum entanglement and feel the quantum entanglement.
Or imagine doing one for relativity where you can experience time slowing down at high speeds or time slowing down to the edge of a black hole.
Then I think if that was an intrinsic part of the experience, Science would be taken in like a visceral way.
And that's why we call this visceral science for that reason because it's a way in which science can kind of come into you not just through like studying but through experience.
And that would be part of the development process, you know, to try to find a way.
Because you can't literally represent it because, as you say, like the quantum probability wave is not something that we literally see.
But there might be a way of representing it visually that would not be misleading and yet would give kids a sense of, aha!
That thing that I used to consider to be a particle as a dot It actually has a spread out character from this probability wave.
Now, those words would be hard to take in.
They're abstract.
But if you just saw the wave and it was represented in a vibrant manner, a kid might be able to take in the gist of the idea, not be able to do like calculations, but to take in the gist of the idea.
And moreover, imagine you have kids that...
Go into this system, and it's a real well-developed system 20 years from now, say, and they do it from a really young age.
They might develop a quantum intuition that you and I don't have.
Like, you were earlier asking me, so what's the intuition?
Like, how does entanglement work, you know, in a way that allows me to wrap my brain around it?
Maybe you can't do it because your brain is too old.
But maybe if you catch a young brain...
And they experience these weird ideas from the get-go and may become part of their way of thinking of the world.
And it may be much easier for them to visualize and get these ideas than without this kind of virtual reality experience.
And the thing that I thought was good about those two is, especially for the younger kid, it put it in a bit more of a narrative.
It wasn't just pedagogical.
It was like this weird superhero character, I think is what it was.
Dr. Quantum.
Dr. Quantum or something.
So I'm a great fan of putting scientific ideas in a narrative form.
Again, going back to evolutionary psychology, there are many reasons why we learn things better when they're framed in a story.
Because experience is story.
And so we've gotten very good at extracting information from story-like experiences.
So rather than...
Abstractly teaching, you know, i h bar d psi dt equals minus d2 over dx squared psi plus v of x psi of x, rather than writing out the Schrodinger equation in this abstract piece of language, mathematics, if you can frame it in a narrative, if you can frame it in terms of how it was discovered, you can frame it in terms of maybe you follow the life cycle of an electron governed by this equation, whatever, if you can put it into a story-like environment, Kids and adults are going to get it more fully.
What if you can take it and put it inside of a video game that's exciting to play?
So the lessons of quantum mechanics and quantum entanglement and quantum physics inside some crazy video game where you kind of have to understand what's going on in order to advance.
Yeah, so you're speaking my language and you're taking away all my punchlines, which is really good.
So right now we're working on a little video game where the player goes in and they manipulate the speed of light and they manipulate it by performing certain tasks.
And to carry out the tasks, you have to get an intuition for special relativity.
How the world behaves at high speeds, or in our case, as the speed of light gets lower, the relativistic effects become more manifest in the everyday world.
So a game-like setting, where you have to gain an intuition for the weirdness of physics, I think is a powerful combination.
Yeah, that would be amazing if there was some sort of a way where you could kind of Give them these little hurdles that they have to solve in order to advance.
And for instance, when you go near the speed of light, the world around you looks very different.
It curves in on you.
Buildings in a cityscape become compressed in one direction and angled in a different direction.
It's very weird.
But if you then have a challenge that requires you to have an intuition about that weirdness, like maybe firing a laser down a street, but the street is now angled and curved because of the high speed, you can imagine that you get a feel for it.
You get an intuition for it.
Yeah.
And so, again, with the World Science Festival of Verizon, we're in the midst of building an experience of that sort.
And we'll see how well it does at giving folks a sense of these ideas in a game-like setting.
Yeah, so this is from the perspective of a player.
And that player goes...
And again, of course, this is on a flat screen.
Imagine you're in this 3D environment, you know, and using these controllers, you can grab hold of those little dust particles and rocks.
You can use it to create a planet, as is happening right here.
And so a protoplanet is forming, and ultimately the user will have that planet, and they then try to send the planet into orbit.
You know, there we go.
This is wild!
Yeah, yeah, exactly.
And as the planet goes into orbit, it then sweeps up more debris as it grows larger and larger, gravitationally pulling in the other rocks and dust in its environment.
So this is really our phase one version of this project.
It was somehow that there was a mismatch between your movements in the real world and your movements in the virtual world.
Because there was all sorts of stuff flying at her.
This is an experience around like the rings of Saturn or something.
And it was the disparity between her sense of movement in the real world and her sense of movement in the virtual world, and she had to immediately get out of the headset and go sit down and get out of it.
But the difference here is, If you're not actually moving in the real world, but you are experiencing motion in the virtual world, that disparity, for my wife sent her into a seizure space, but for other people, it does make them feel sick.
So the challenge is to find a way.
Because what you really want is you want to go into the virtual world and zip around.
You want to go near the speed of light.
You don't want to go to a black hole.
But most of these systems, they have to be constructed so that the environment...
It appears around you as opposed to you zip into it and zip through it because of the feeling of nausea.
There is a version of that one, and my wife did that one in a virtual reality setup that they had in California, and that worked okay.
For her.
I didn't want to get on it because, again, if I get sick on Staten Island Ferry, if I get in a chair and I'm on like a roller coaster, forget about it.
You know, I'm dead.
But yes, that may ultimately help.
And so, yeah, if you could somehow create a consonance between your sense of movement in both the real world and the virtual world, then yeah, I presume you'd be okay.
But look, I mean, there's a museum in New Jersey, Liberty Science Center, and they have one of these devices, these spaceships that you go into, hydraulic motion and 3D visuals around you to give you a sense of...
And as they're closing it up, they say, oh, by the way, if anyone feels sick or panicked...
You know, there's the escape button at the top, and it was all kids, and I was just in there with my kids.
It closed up.
It started to go immediately.
I had hit the goddamn escape button, man, because I started to panic.
I started to feel sick.
And so I walk out of the thing, and there's a line of 100 kids waiting for the next ride.
And I'm the sole person who walks out of the thing because I couldn't handle it.
There's an older one called Star Tours that's been around for a few years.
And then the new one is in, you know, they have a whole section of Disneyland that's all Star Wars experience that they spent fucking billions of dollars on.