We Almost Have the Tech to Live Forever - David Friedberg

CChris Williamson
질병/증상창업/스타트업운동/피트니스컴퓨터/소프트웨어

Transcript

00:00:00- Speaking of prospering,
00:00:01how far off are we from age reversal, do you think?
00:00:04- That's one I'm most excited about.
00:00:06So have you looked at Yamanaka factor?
00:00:09Have you talked about this on your show before?
00:00:10- David Sinclair has been on,
00:00:11and I know that he's sort of tangentially associated with it,
00:00:14but assume, no, do the 30,000 foot view
00:00:17of the Yamanaka factors.
00:00:18- So every cell in our body has the same DNA, okay?
00:00:23We know that.
00:00:24And the DNA is in every cell
00:00:27because of a process called mitosis.
00:00:28Every time we make a new cell
00:00:30from the time we're in the womb to today,
00:00:32we're making new cells,
00:00:33both our entire DNA gets copied over into every cell.
00:00:36But what makes my eye look and act differently than my skin?
00:00:40If it's got the same DNA, how's it different?
00:00:43How's it different than my brain or my tongue or my feet?
00:00:46Those are different cells.
00:00:48There's different cells in different organs in the body.
00:00:51Those cells are different
00:00:52because the genes in the DNA are on or off.
00:00:56So there's a bunch of switches,
00:00:57and the switches are either on or off.
00:00:59And that creates cellular differentiation.
00:01:01It's what makes one cell different from another cell,
00:01:04the eye cell different from the heart cell,
00:01:06different from the skin cell or the lung cell.
00:01:08And the switches that are on or off
00:01:10are these little molecular switches.
00:01:12They're molecules that sit on top of the DNA,
00:01:15and they keep that gene from working.
00:01:18It blocks it off.
00:01:20And then the other gene is open.
00:01:21And when it's open,
00:01:22that means that your cell is making RNA copies of that gene
00:01:26and turning it into a protein.
00:01:28- Zeros and ones.
00:01:29- Zeros and ones.
00:01:29And each gene makes a unique protein.
00:01:32The proteins that then come out do a bunch of stuff.
00:01:36They're machines, they're molecular machines.
00:01:39And they're constantly doing all this stuff in your cell.
00:01:41And that's what makes every cell different
00:01:43is what genes are on and what genes are off.
00:01:46And the complexity of this is astounding.
00:01:49If you were to think about a cell
00:01:51being the size of Manhattan,
00:01:53so imagine a cell is a city the size of Manhattan
00:01:57with 500-story tall buildings.
00:01:59That's how big it would be.
00:02:01And every person is a protein.
00:02:03There's 10 billion people
00:02:04living in this 500-story tall building, island of Manhattan,
00:02:08going in between the buildings, up and down, all day long,
00:02:10building stuff together, never sleeping, always working,
00:02:13running into each other, having coffee,
00:02:14making stuff together, breaking stuff together,
00:02:17working 10 billion of us.
00:02:18Those are the proteins in the cell.
00:02:19- In one cell.
00:02:20- In one cell, running around doing stuff.
00:02:22For 80 years, that's one second in one cell.
00:02:26That's how complex this is.
00:02:28So the proteins that are on or off matter a lot,
00:02:31and then they make stuff.
00:02:32So that's why the eye cell does totally different stuff
00:02:34than the brain cell or the heart cell.
00:02:35As we get older, this is the current science on this.
00:02:40It looks like what happens is we have DNA breaks.
00:02:43DNA gets damaged from radiation and sunlight
00:02:46and bad eating and alcohol and all the other shit.
00:02:49As those DNA breaks happen,
00:02:51your cell actually fixes the DNA.
00:02:53It's very good at fixing it.
00:02:54Goes in, there's a bunch of proteins.
00:02:55They're the worker proteins that are repaired proteins.
00:02:57They go in, they fix the DNA.
00:02:59Every time the DNA gets fixed,
00:03:00there's a chance that those ones and zeros,
00:03:03those ons and offs, get moved around a little bit.
00:03:06And as they get moved around, over time,
00:03:09they get moved to the wrong place.
00:03:10So what ends up happening over time
00:03:14is that the wrong genes get turned on
00:03:17and the right genes can get turned off in a cell.
00:03:20And then that cell stops working right.
00:03:22The eye cell stops doing what it's supposed to be doing.
00:03:24The heart cell stops getting the right electrical cascade
00:03:28to flow through the other cells.
00:03:30All of the cells, the skin cell becomes a little wrinkled.
00:03:32And eventually, if enough of those cells
00:03:34have those epigenetic, is what it's called,
00:03:36epigenetic errors, you start getting wrinkles.
00:03:39Your heart stops beating as well.
00:03:40You go blind.
00:03:41All these sorts of things happen with aging.
00:03:43It looks like the root of all disease may be aging.
00:03:46And aging is a disease.
00:03:48So it is a disease rooted in the fact
00:03:50that the epigenetic factors, these little molecules,
00:03:52move around in the wrong place.
00:03:54That's what we discovered is basically aging.
00:03:58In 2006, a guy named Shinya Yamanaka
00:04:01found that he could take four proteins
00:04:03and put them on a cell.
00:04:05They would go into the cell
00:04:06and they would move all of those epigenetic markers,
00:04:08those ones and zeros, to make that cell into a stem cell,
00:04:13which can then be turned into any other cell in the body.
00:04:15So that was the magic thing he won the Nobel Prize for.
00:04:18In 2016, another scientist published a series of papers
00:04:21showing that instead of putting a lot of those four proteins
00:04:24on the cell, you could put a small amount.
00:04:26And if you put a small amount,
00:04:27instead of resetting all those molecular markers
00:04:30and making that cell back into a stem cell,
00:04:33what it actually does, it just moves those markers
00:04:35back to where they're supposed to be to make it a young cell.
00:04:38And suddenly that retinal cell
00:04:40becomes like a young retinal cell.
00:04:41The skin cell becomes a young skin cell.
00:04:44The heart cell becomes a young heart cell.
00:04:46All of these cells get reset.
00:04:48And they did this in mice
00:04:49and they made the mice age to like 250 plus years old.
00:04:52They put it in monkeys, the wrinkles went away,
00:04:55and they've done it in specifically applying it
00:04:57to retinal cells in the eye and reversed blindness.
00:05:00- This is Sinclair's stuff, right?
00:05:02- Sinclair has one of these companies
00:05:03that's in clinical trials now.
00:05:05And there's dozens of others.
00:05:06Altos Labs is like one of the most funded startups in history
00:05:08that no one talks about.
00:05:10They've raised close to probably $10 billion at this point
00:05:14to pursue these technologies.
00:05:15But basically what this means is we are now discovering
00:05:18not just the four proteins,
00:05:19but a whole bunch of other little molecules
00:05:21that we can put into a cocktail.
00:05:23Either we're gonna drink it, take it as a shot,
00:05:25or take it as a pill, it will get into our cells
00:05:29and it will reset the epigenetic of that cell
00:05:32to make it young again.
00:05:33They're starting with targeting diseases,
00:05:36like a particular, like blindness or glaucoma in the eye,
00:05:39or rheumatoid arthritis or some other heart issue.
00:05:42And they're applying these factors
00:05:44to the cells in that tissue only.
00:05:46- Locally. - Locally.
00:05:47But over time, what'll end up happening
00:05:49is this becomes a systemic treatment
00:05:51and they're already doing it in animal models.
00:05:53And then you can either do it continuously
00:05:56or what I think will end up happening
00:05:57is we'll probably have a system whereby these factors
00:06:00will be continuous, when I say the word factor,
00:06:02I mean protein.
00:06:03These proteins can be continuously made and released
00:06:06inside our body as they're needed.
00:06:09So we maintain our youth and we will live theoretically
00:06:13for as long as we want.
00:06:15That's where this is headed.
00:06:16And the technology shows now that we can do this in animals,
00:06:19we can re-dose them, re-dose them and keep them young.
00:06:22- Has it been done systemically yet?
00:06:24- Yeah. - You mentioned-
00:06:24- Yeah, this is the mouse model where they made these mice,
00:06:28the equivalent of like having someone live
00:06:29like 200 plus years old.
00:06:31And this is like so early,
00:06:32they haven't even optimized the molecules.
00:06:34They haven't optimized how you deliver the molecules.
00:06:36They haven't optimized the dosing.
00:06:38They haven't optimized the method of the dose.
00:06:40Like there's all these techniques
00:06:41that are gonna be developed on top of this.
00:06:44For every one year we can extend average human lifespan,
00:06:46we're adding tens of trillions of dollars to GDP, right?
00:06:49So this is also another big economic driver,
00:06:51but it's not just how long people live,
00:06:52it's how healthy they are and how energetic they are
00:06:55and how happy they can be.
00:06:56And they can now go out and not feel all the pain
00:06:58and have the disease.
00:07:00Theoretically, this can lead to a reversal
00:07:03in rates of cancer proliferation or reversal in diabetes
00:07:06or reversal in many of these other diseases
00:07:08that are fundamentally rooted in this kind of failure
00:07:11of your epigenome,
00:07:13the markers that turn your genes on and off.
00:07:15So this is a technology category that I am like,
00:07:20I think is one of these other things
00:07:21that you can kind of think about the compounding effect,
00:07:23free energy, right?
00:07:24Like AI automation and infinite labor
00:07:29for people to do all the things they wanna do
00:07:32and potentially living forever.
00:07:34I mean, you start to think about
00:07:35how these all kind of compound.
00:07:36That's why I'm excited about the future.
00:07:38Like these very quickly become these sort of
00:07:40compounding effects that drive us into a happier tomorrow.
00:07:43And then again, it becomes a question of abundance.
00:07:45How do you wanna spend your time?
00:07:47Again, a hundred years ago,
00:07:48I don't think people would have had the job option
00:07:50of being a yoga instructor or being a podcaster
00:07:53or being a wedding photographer, go down the list.
00:07:56Like there's so many things that people have found joy
00:07:58in doing with their time
00:07:59and they can be productive doing it.
00:08:01I think more of that starts to happen tomorrow.
00:08:04And it's less of the like,
00:08:06you gotta go work the corporate shitty job
00:08:07on a trading floor in a corporate office at a cubicle
00:08:11or in a factory or all the things that maybe
00:08:14we will look back one day and say,
00:08:16"Hey, that was kind of limiting human potential."
00:08:19Like maybe humans could do a lot more and maybe they should.
00:08:22And these shifts to more abundance
00:08:25give us that opportunity to do that.
00:08:26- How far do you think we're off from getting to the stage
00:08:29where we can do age reversal?
00:08:30One decade, five decades?
00:08:34- Way less than that, way less than that.
00:08:36We are in clinical trials now on several of these cocktails.
00:08:41And there's always a risk in going from animals to humans,
00:08:46but we've done it with human cells in vitro, in a petri dish.
00:08:51And we see the effect that we are expecting to see.
00:08:54So we have a lot of reasons to believe that
00:08:57over the next 10 to 20 years,
00:09:01more of this starts to proliferate.
00:09:05- You've heard Peter Diamandis' idea of longevity,
00:09:07escape velocity, right?
00:09:09That you need to stick about every year that you live
00:09:12means that you're going to live a little bit longer.
00:09:14But that when you cross a particular threshold,
00:09:16you just need to stick about until this happens essentially,
00:09:19or whatever the equivalent is, whatever the technology is.
00:09:22It allows you to extend lifespan indefinitely.
00:09:24- I think it's fair.
00:09:25- You just hold on, hold on.
00:09:27It's probably the best long-termist view
00:09:31for looking after your health.
00:09:33That now is not the time to fuck it.
00:09:36- Right, totally.
00:09:37- Because in the past,
00:09:38there wasn't really any reason to stick about.
00:09:40Yeah, you're gonna live 80 years or 70 years or 60 years,
00:09:43but you know, you're playing around with fives and tens.
00:09:45Whereas if the difference is between 80 and a hundred,
00:09:48or 80 and 120. - Or 200, yeah.
00:09:51You're like, "Hey, keep it together."
00:09:53And by the way, a lot of,
00:09:54the number one thing you can do to fix your epigenome,
00:09:57which you can do without taking these drugs, is exercise.
00:09:59- Fasting. - Well, fasting helps.
00:10:02Fasting does have an effect, but exercise.
00:10:04Exercise releases molecules that in many cells in your body
00:10:07will go in and start to address the epigenome
00:10:10and make you more youthful.
00:10:11And then there's other things that you can start to take.
00:10:13Some of this peptide stuff that people are crazy about
00:10:15has shown that it has an effect.
00:10:17I don't want to be prescriptive on these things,
00:10:21but there's a lot of ways that you can start
00:10:24to kind of edge your way
00:10:26before all the big clinical stuff is done
00:10:28and the big products come out to market.
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Key Takeaway

Aging is a treatable disease caused by displaced epigenetic markers that can be reset to a youthful state using a cocktail of four specific proteins known as Yamanaka factors.

Highlights

Epigenetic aging results from molecular switches (ones and zeros) moving to the wrong positions on DNA due to cumulative damage from radiation, diet, and alcohol.

A single cell contains approximately 10 billion proteins acting as molecular machines, a complexity comparable to the entire population of Manhattan working 500-story buildings.

Shinya Yamanaka won the Nobel Prize for discovering four proteins that can reset any specialized cell into a pluripotent stem cell.

Low-dose application of Yamanaka factors resets specialized cells—like retinal or heart cells—to a youthful state without reverting them to stem cells.

Systemic treatment in mouse models has extended equivalent human lifespans to over 200 years, with clinical trials for human eye diseases currently underway.

Altos Labs has raised nearly $10 billion to develop age-reversal technologies, making it one of the most funded startups in history.

Exercise is the most effective non-pharmacological method to address the epigenome and release molecules that restore cellular youth.

Timeline

The cellular mechanics of differentiation

  • Every cell in the human body contains identical DNA copied through the process of mitosis.
  • Cellular identity is determined by molecular switches on top of the DNA that turn specific genes on or off.
  • Active genes produce unique proteins that function as molecular machines to perform specific organ tasks.

The difference between an eye cell and a skin cell stems from which genes are blocked by molecules and which are open to create RNA copies. A single cell operates with the complexity of 10 billion protein "workers" interacting constantly. This intricate system ensures that the heart beats or the lungs breathe based on the specific protein machines generated by the active gene set.

Aging as an epigenetic software error

  • Environmental damage from sunlight, alcohol, and poor nutrition causes frequent DNA breaks.
  • Repair proteins fix DNA damage but occasionally move epigenetic markers to the incorrect locations.
  • Aging is a disease rooted in the accumulation of these misplaced ones and zeros in the cellular code.

While the body is efficient at repairing DNA, the process is not perfect. Over time, the cumulative shifting of molecular switches causes the wrong genes to turn on and the right ones to turn off. This breakdown leads to visible signs like wrinkles and functional failures like blindness or heart disease, suggesting that aging is the fundamental cause of most modern illnesses.

Resetting the biological clock with Yamanaka factors

  • Four specific proteins can reprogram a specialized cell back into a universal stem cell.
  • Partial reprogramming using small doses of these proteins restores cellular youth without losing the cell's specialized function.
  • Current biotechnology seeks to deliver these factors via pills or shots to systemically reset the epigenome.

Shinya Yamanaka's 2006 Nobel-winning discovery proved that cell identity is reversible. By 2016, research demonstrated that a lower dose of these four proteins doesn't fully erase the cell's identity but simply moves the markers back to their original youthful positions. This technique has successfully reversed blindness in retinal cells and rejuvenated skin and heart tissues in animal models.

Economic impact and future implementation

  • Every one-year increase in average human lifespan adds tens of trillions of dollars to global GDP.
  • Human clinical trials are currently testing molecular cocktails for localized tissue diseases like glaucoma.
  • Widespread proliferation of age-reversal technology is projected to occur within the next 10 to 20 years.

The transition from animal models to humans is already occurring through in vitro testing on human cells in petri dishes. Startups like Altos Labs are fueled by the massive economic potential of a healthier, more energetic workforce. Initial treatments will likely target specific diseased tissues before evolving into systemic treatments that maintain youth indefinitely.

Longevity escape velocity and lifestyle maintenance

  • Longevity escape velocity is the threshold where technology extends life by more than one year for every year lived.
  • Physical exercise releases natural molecules that directly address and repair the epigenome.
  • Sufficient restorative sleep and temperature regulation significantly improve immediate health markers and biological recovery.

The current era represents a unique period where maintaining health can bridge the gap to indefinite lifespan extension. While waiting for clinical breakthroughs, individuals can influence their epigenetic markers through high-intensity habits. Exercise, fasting, and advanced sleep systems provide the biological foundation necessary to survive until age-reversal technology becomes a consumer reality.

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