New Studies REVEAL How You Can Become Younger & REVERSE YOUR AGE | Peter Diamandis
Watch on YouTubeVideo summary
Peter Diamandis and Tom Bilyeu discuss a paradigm shift in longevity, moving from space exploration to regenerative medicine and age reversal. The core argument is that while humans share nearly identical genetic codes at birth, aging is not determined by the genes themselves but by the epigenome—the mechanism controlling which genes are turned on or off. Diamandis explains this using a piano analogy: DNA provides the keys (genes), but the epigenome acts as the player deciding when to strike them. As we age, cellular damage accumulates from environmental factors like cosmic rays and oxidation, requiring repair mechanisms that compete with normal gene expression for limited energy resources provided by NAD+. This competition leads to a confused epigenome where cells lose their specialized functions, resulting in visible aging. To combat this process, the conversation highlights specific biological interventions and lifestyle changes. A critical factor is maintaining high levels of NAD+ within cells, which powers sirtuin proteins responsible for DNA repair and epigenetic control; these protein levels drop precipitously after age 40 without supplementation via precursors like NMN or NR. The dialogue also covers the importance of intermittent fasting to trigger cellular maintenance pathways, adequate sleep (around eight hours) to support brain function, and resistance exercise to preserve muscle mass. Muscle is emphasized as a vital longevity indicator because it stores stem cells, blood, and amino acids necessary for repair; without sufficient physical activity, the body rapidly degrades this tissue due to its evolutionary tendency not to maintain expensive structures beyond reproductive age. The discussion extends into advanced regenerative technologies that promise to reverse aging at a cellular level. Diamandis details work involving exosomes—micro-vesicles containing growth factors released by stem cells—which can be injected without blood type matching because they lack DNA and are immunoprivileged. He also references the "young blood" experiments, specifically the molecule GDF11 identified in Harvard research, which showed rejuvenating effects when administered to older mice. Furthermore, the potential for organ abundance is explored through xenotransplantation, where pig organs have been genetically modified using CRISPR technology to remove retroviruses and humanize surface proteins, making them viable for human transplants. This field of "cellular alchemy" also includes converting fibroblasts into beating cardiac muscle cells via gene therapy, effectively turning scar tissue back into functional heart muscle after a myocardial infarction. Finally, the episode addresses the revolution in diagnostics and healthcare delivery through companies like Fountain Life and Vaccinity. Diamandis advocates for proactive health management using comprehensive data analysis—including full-body MRIs, genome sequencing, gut microbiome testing, and AI-enabled coronary CT scans—to detect diseases at stage zero or one rather than waiting for symptoms to appear late-stage detection drastically reduces cure rates). The speakers criticize the current model of reactive healthcare where insurance pays after illness occurs, proposing a new approach that includes extensive preventative screening as part of standard coverage. Vaccinity is introduced as a company developing peptide vaccines against conditions like Alzheimer's and Parkinson's by training the immune system to target specific proteins like beta-amyloid plaques without using mRNA or causing significant reactogenicity. The overarching conclusion is that through a combination of lifestyle optimization, targeted supplementation, advanced diagnostics, and emerging biotech therapies, it is now possible not just to extend life but to actively reverse biological age.
Read the full video transcript
The question I ask everybody is, if you
got the exact same genes, I mean there's
small
variations and mutations and so forth,
but effectively it's the same genes, why
do you look different? Well, it turns
out it's not your genes. It's which of
those genes are on and which of those
genes are off. And it's not only all the
rage, it's also all the excitement of
this idea, can you reverse your
epigenome to a younger state?
Peter Diamandis, welcome back to the
show. Tom, it is a pleasure. It's been
way too long, my friend.
It has been. COVID really messed up my
rhythms and all of that. And then I am
super excited that you've published a
new book, which we're going to be
talking all about. But I want to know,
so when you and I first met, it was
really all about space.
Yes. And exponential technologies.
And now we've really shifted into
regenerative medicine. Health health
tech, biotech, regenerative uh
longevity, age reversal, whatever terms
you want. Um yeah, I like age reversal.
personally.
I And we'll talk about that.
Yeah, and I've become obsessed with
David Sinclair, who you guys talk about
in the book. I have found,
fundamentally, as I've gotten older,
that my mindset and what I focus on has
changed in ways that I wouldn't have
predicted. So, until I was probably 44,
45, I was I just thought about living
forever. All my plans were about living
forever, and it really didn't sink in
the usefulness of thinking about the
fact that I am going to die. And then,
at about 45, it switched for me, and it
started to feel more useful to think
about the fact that we might not hit
escape velocity in my lifetime. Oh,
we're going to hit it, baby.
And And then I had a year where it was
like, I I don't think it will happen for
me. And then I read David Sinclair's
book.
Yes.
And I thought, this might actually
happen.
Yeah. And that was the first time in a
while where I thought, maybe I was
pessimistic for a minute.
Why are you so optimistic? Is it
regenerative medicine? Like what is it
that really clicked for you?
My early life, my first 40 years of
life, I'm 60 now.
You know, for what it's worth, you look
amazing. Thank you. I I feel amazing. I
feel like, you know, 20 I have an
internal mental age of 28 and I've got
a, you know, a biological age of 49 and
a half, so we'll we can talk about that.
Um
my first 40 years were space, no
question about it. It was like Star Trek
and Apollo, we're going there. Then I
met Ray Kurzweil, uh read his book The
Singularity Is Near. We started
Singularity University together and I
became enamored with exponential
technologies, computation, sensors,
networks, AI, robotics, 3D printing,
synthetic biology, AR, VR, blockchain.
All those technologies being the tools
to solve the world's biggest problems.
Right? And so that merged well with the
work I do at Xprize.
And it was about 8 years ago and this
was around the time that you and I were
were uh really becoming friends and
connecting that I became enamored
with the idea of longevity. I'd always
been interested in longevity. When I was
in medical school, I remember
watching a TV show on long-lived sea
life. That certain species of whales,
like the bowhead whale, could live for
200 years and the Greenland shark can
make it to 4 or 500 years and I'm like
thinking There's a jellyfish that's
basically immortal.
Immortal, yes. Yeah. And you know, and
sea turtles, you know, are thought to be
hundreds of years. And I'm I'm thinking,
if they can do it, why can't we? Right?
I mean, seriously.
That's so you though. Like the the
That's one of the things that I love
about you is that you just refuse to
accept things as they are. It's like,
no, I can make this better. Yeah. Well,
I was thinking at that moment that it's
either a hardware problem or a software
problem.
And that we're going to get the tools to
fix that. And we are. What's happening
right now
define that for me at the cellular
level? So, in my head I was trying to
figure out what you consider hardware
and what you consider software.
the software the genome and the
epigenome.
So, our DNA. Your your the DNA and the
meta structures around the DNA. We'll
talk about the epigenome. And the uh
hardware I consider the, you know,
cellular organelles and uh the
structures of the cell. Um and they
they sort of have a blurry definition
between them.
Uh
but at the end of the day uh the tech
it's it's really the fact that biology
has become a a digital
tech as well, right? We've digitized
biology. We've turned into ones and
zeros. We are sequencing. So, when the
NIH first sequenced the human genome, we
have 3.2 billion letters in our genome.
3.2 from our mom, 3.2 from our dad.
And uh
the human genome project cost about $3
billion and took a decade to get a
sequence.
Uh Craig Venter
uh
it did it in about um 9 months with $100
million. So So crazy. And since then
we've seen this
precipitous drop. I mean, we're talking
five times faster than Moore's law.
Whoa.
The speed at which computers are getting
better, right? Five times faster and
we're down now to you can sequence a
genome uh in about 7 hours,
right? And costs are below a thousand.
There's, you know, question of whether
And the And the prediction from
Illumina, the the major sequencing
company out there is that we'll get down
to an hour and a hundred bucks.
Right? So, I mean, it's the point where
enter the hospital and your sequence.
Like it's like check your BP, sequence
you, you know, see what's going on. It
it is. So, how targeted are things
getting now?
In terms of taking a sequencing,
actually knowing something from it, and
targeting the whether it's
Still early days. Still early days.
Where it's having an impact is in cancer
therapies. So, being able to to sequence
the cancer
that someone biopsies and saying, "Okay,
this cancer is going to be
only radiation
you know, affected by radiation therapy.
This one can take a chemotherapy." Or,
more importantly, we're going to create
a specific
gene therapy or CRISPR therapy or
vaccine therapy against that cancer. Is
anybody running AI against the So, when
you have the simple mutations where it's
like this disease is related to this
gene and that's it. There's no complex
interactions, but as
as we go beyond those things and get
into the more complex things, is anybody
running AI to start assessing it's
actually these 72 different gene
interactions that cause whatever
And that's the dream. That is the dream.
And nobody's doing that yet. Well, it's
being done
you know, Human Longevity when it was
Bob Hariri, Craig Venter and I put that
company together and you you know that.
The vision was large-scale genome
sequencing and at the same time
large-scale phenotype assessment, you
know, full body MRI, all of that
information. And then Sorry, so that
people that don't know phenotype
Phenotype is the way that your genes
express. So, I look at you and what I
see that's your phenotype.
Yes, phenotype.
to get a correlation?
to get a correlation between everyone
with these active these genes
um
and this environmental
impact ended up with this kind of a
cancer. Or everyone, more importantly,
who had these genes,
eating this kind of diet,
lived longer. Or, you know, so there How
How do your genes impact uh
your workout, your diet, all of those
things? And what we're learning is that
genes are not your destiny.
All right? It's very important to know,
and you know this from your own personal
work um in in weight loss and diet and
mindset.
Um it's your obsession.
Uh that you can your epigenome, we'll
get into that. Epi, from the Greek word
above, your epigenome is
uh which genes are on and which genes
are off. You can think about your 3.2
billion genes or 3.2 billion
uh
you know, nucleotides, letters in your
your DNA alphabet, uh which is tens of
thousands of genes, as those genes are
sort of the the keys on a piano. I was
going to ask you. So, and maybe
And And the piano player is your
epigenome.
Okay, so let me just push on that for a
minute. I have my DNA. It's got these
four letters. They repeat over and over
and over and over and over.
Those groupings of letters, which are
revealed through methylation, which
we'll get into in a minute,
but what What is revealed in my very
complexly wrapped DNA, yes,
will determine what that cell becomes
because my DNA strand contains all the
genes, all of the genes together um
well, so all of the genes have to be
broken up into In this place, play this
note to go with your piano analogy. And
but over here, so in the eye, play the
eye notes. In the knee, play the knee
notes. In the brain, play the brain
notes.
Yes. And so, you've got this long-ass
string of DNA cuz it for most people,
I'll assume because it for me this is
how it is, that you get the concept of
DNA, you get the concept of genes, but
you don't really know how they relate.
So, let me let me break it down. Your
3.2 billion letters are broken up into
23 chromosomes.
And we sort of remember that from our
high school biology, right? And those
chromosomes are
uh super tightly wrapped and compact,
right? If you stretched out the DNA from
a chromosome, it would be meters long,
but it it's rabbled together. And if it
when it's so
compact and rabbled in the structure and
using these proteins called histones,
um the DNA becomes very difficult to
read. Now, what do you mean read the
DNA? So, the DNA a gene has a start and
an end, and typically it is read um with
a tran- uh transcription uh process that
turns from your DNA to a messenger RNA,
and from a messenger RNA to a protein. A
protein can be an enzyme, it can be
actin and myosin for muscle, it can be
all kinds of things. Proteins are sort
of the structural building blocks.
They're
the major operating
uh
the carrier of operations in the body.
And so, if your DNA is so tightly wound
that you can't actually read it, then
it's inert.
Um and so, the DNA needs to be opened up
in certain points to be read to have an
appropriate translation into proteins.
And in the beginning,
um
when life begins, we have a a
pluripotent stem cell. So, a stem cell,
and pluripotent means it can become
anything. That stem cell can become
uh heart, liver, lung, kidney, skin,
brain, whatever it might
uh cell, and it's super specialized.
Um and it's super specialized because,
like you said, the part of the DNA that
codes for keratin or whatever the right
protein is in in hair and skin,
uh is revealed. Uh but the other parts
that might make a nerve cell are are
bound up and hidden.
So,
that process of uh of which genes are
turned on and which genes are turned off
is called the epigenome.
Now, it gets interesting to our age
reversal conversation, which I I think
will will sort of dominate our
conversation here.
Uh is if I said to you, "Tom, you've got
the exact same genes at birth, at 20, at
40, at, you know, when you're 80. So,
why do you look different?
Why don't you have like, you know, you
probably do have a ripped six-pack, but
why why Why don't you look like you were
look like when you were 20?" Um Thank
god. Thank god. In your case, my body
better, face maybe not so much, but
yeah.
So, the question I ask everybody is, if
you got the exact same genes, I mean,
there's small uh variations through
mutation and so forth, but effectively
it's the same genes, why do you look
different? Why don't you look like a
baby or like an 80-year-old man?
Well, it turns out it's not your genes.
It's which of those genes are on and
which of those genes are off.
And that's called your epigenome, and
it's not only all the rage, it's also
all the excitement of this idea, can you
reverse your epigenome to a younger
state? This episode is sponsored by
Future. Go to tryfuture.co/impact
to get your first month for only $19.
You can also click the link at the top
of the episode description. Now, enjoy
the episode. So, the question is, and
this is what I found really interesting
about David Sinclair and his work is
book called Lifespan and I commend it to
everybody. It's absolutely phenomenal.
Your book Life Force and Lifespan go
together extraordinarily well.
one-two punch. For real.
Um
and what's interesting is I never really
understood what was causing aging in the
first place. And so walk us through the
what methylation should do and then his
idea, what does he call it?
Dedifferentiation?
Exdifferentiation? Exdifferentiation, I
think. Where basically a cell should be
an eye cell and it starts to break down
and maybe it's revealing a little bit of
like, here's some of the skin cell,
here's a nerve cell, like a fragment of
it. And so the
Yes.
the and and helping people understand
what's happening in the cell. That there
actually little things, proteins moving
around like reading this stuff and The
cell when you look into the cell, it is
insane. The level of complexity within
complexity within complexity.
It's literally miraculous that we are
alive and what is going on. You know, we
have 40 trillion cells in our body.
That's pretty Right? 40 trillion cells.
And each of them is a living organism.
And we don't think about the fact that
we're this massive collection of cells
collaborating to have this conversation.
And then within our body, we won't get
into it, but are all of the bacteria and
viri and all of that which outstrip the
number of human cells in us.
Okay, back to the original point. So
you're born
uh
uh you're in the womb, your placenta is
actually the organ that generates all
the stem cells uh that manufacture the
baby. I think of the placenta as a 3D
printer that manufactures the
manufactures the baby.
And you're born and um
you your body goes through a
pre-programmed
uh
process that uh allows you to mature
into adulthood. Now,
uh there's a series of seven genes um
called the sirtuin genes. And these
genes are producing these sirtuin
proteins.
And
these are the linchpin uh of aging. It's
the work that David Sinclair and George
Church have done so beautifully.
And it turns out that your sirtuin genes
and proteins have
um
a dual function
that are critical for your uh for your
life. And they're competing functions.
So, let me take this
uh step at a time. So, your sirtuin
genes, one function is they're in
control of
your epigenome. They're controlling
which genes are on and which genes are
off. And we'll get to methylation
a little bit.
But, that's a really important function
for them. Is keeping uh your genes, your
eye genes and eye gene, your skin genes
a skin gene and and so forth.
So, the epigenome is controlled. And
they do that by detecting damage in the
DNA and repairing it.
Well, so that's the second function. No,
they're they're doing this by
controlling certain methylation proteins
and and hide or reveal which hide or
reveal. So, the sirtuin genes are
uh have a function of of controlling the
epigenome to make sure that the right
genes are are being
ex- opened uh to be read and the right
genes are being closed.
do they use for that in this first part?
It is controlling the methylation of the
DNA. Okay. So, the DNA, let's go there.
The DNA um
is methylated at different locations. A
methyl group is a is a carbon with three
hydrogens. And when you methylated
it, hides the ability for that piece of
DNA to be read. It it will stop it from
from being read.
And when you demethylated it, it can
open it up. And there methylation
transcription factors that the sirtuin
genes are impacting here.
Um
So, if they're doing their job, they're
controlling the epigenome appropriately
in that cell.
But the sirtuin genes have a competitive
job, which is they're in charge of DNA
repair at the same time.
And so, as we are
experiencing life, I won't say aging,
but experiencing life, we are constantly
being hit by cosmic rays, uh especially
when we're flying at 48,000 ft in the
upper atmosphere, uh second-hand smoke,
uh other chemical mutant
uh mutagens. And so, we're accumulating
DNA damage in our cells. And the number
I heard was like it's between 1,000 to a
million um mutations a day per cell. I
mean, it's a lot. So, there's a lot of
work.
Per cell? Per cell.
Jeez. It's crazy. Okay. Um But what does
that damage look like? Well, a G gets
knocked off in the first place.
a few things. It could be a single
strand break.
It can be a double strand break. It can
be a
And so, it's breaking of the DNA.
And that is happening from
from oxidation. It's happening from, you
know,
free electrons, if you would, hitting
the DNA. And it's it's
nicking the the DNA. And then, what
happens is you've got all you've
incredible repair mechanisms that are
there.
And
if you have a double strand break,
right? DNA is double stranded if it
breaks,
you've got a one system that will fix
double strand breaks.
And you have another system that will
fix a single strand break and there's a
number of different repair systems
there, which frankly I have forgotten
since medical school. But just amazing
what what able to do. And sometimes when
they make the repair, they'll instead of
a a G they'll put a T and that's when
you have a a permanent mutation that can
lead to a cancer.
Now
Because that's effectively created a new
gene at that point, right?
modified a gene. Okay. And that that you
have four letters A, T, C, and G and
those letters in groups of three code
for an amino acid as part of a protein.
And um
long story short, the sirtuins are
helping you maintain your genes in a
proper working order. It's helping you
repair your genes.
Now here's the challenge.
Sirtuins
are powered by NAD+ nicotinamide adenine
diphosphate dinucleotide. NAD is easier.
NAD
Uh
and NAD is sort of the energy currency
in your cells.
Uh how does that relate to ATP? So it is
ATP and NAD are in the same in the same
cycle. Okay. Right? And they're you're
using ATP to activate your NAD.
Um
NAD
powers the sirtuins.
The challenge is that your NAD levels
inside your cells drop precipitously
after 40. Interesting. Right? More than
half. So you're you're slowing your
ability to repair. I want you to Let's
use the piano player analogy.
Um
uh the genes that you're playing
uh as the epigenome
you're playing the proper piano
at the same time as a sirtuin, you're
over here fixing something.
So, you're going from playing the piano
to fixing something, and playing the
piano to fixing something, and you need
food to keep yourself going. But, all of
a sudden you're spending more and more
time fixing something because the DNA
damage is accumulating, and the amount
of food you have, or in my case coffee,
to to drink is reducing. And so, I'm
getting less energy, and I'm being
distracted and having to fix the DNA,
and I'm losing control of playing the
piano.
Right? So, all of a sudden
your epigenome is becoming confused.
Uh your skin's skin is not making the
right proteins to keep it elastic and
and smooth, and it's it's falling apart.
And so, that
from David Sinclair's book, and we talk
We have an entire chapter on David. In
fact, one of the things we do is we uh
Tony and I in the book
uh have a number of heroes that we go
deep into. And And David, who's a
professor of genomics at uh at Harvard
Medical School, he's brilliant. He's one
of the top brilliant thinkers. Long
story short, that's what's going on.
This competition between repairing DNA
and controlling your epigenome, and
having your NAD levels fall over time
uh is what's driving us
to look older at age 80 or 90 or 100.
Are you supplementing NAD? I am. I'm not
so uh that's one of the one of the
elements. So, it turns out that um
you want you want to boost your NAD
levels in your cell.
And there are you know, people go and
get uh NAD uh
IVs. The problem is at least according
to David and a few other uh
uh scientists who I who I believe their
their work N- there's not a carrier to
take the NAD from
in the bloodstream into the cells.
And so what you want to do is supplement
it and there are two precursors to NAD.
One is NMN
and the other one is NR.
Um
And those we can transport into the
cells.
get into the cell and in higher levels
in the cell they drive higher levels of
NAD. So I take a gram of NAD of NMN
every morning um and then I take uh
uh another supplement uh basis that has
nicotinamide riboside NR in it.
And between those two uh
for me it's
working to maintain. Now, do I know that
they're increasing or is this on faith?
It's on on faith. We're you know, I hope
that the ability to measure it
intracellularly will become easier cuz
it's not easy today.
But theoretically it should be
supporting it and I feel great and I've
got more energy than I've ever had.
Um
and
there's a few other supplements. In the
book we talk about something called
MIB-626 which is an NMN analog
that is in trials right now and it's
going to go through not So NMN and NR
are supplements. You can buy them on the
web.
There's
a hundred different versions. The
challenge is that a lot of them
are not in a crystallized form and they
break down easily in any kind of heat on
shipping. They may last 30 days and so
just you know, please
look into it. We write about it in in
Life Force about uh that that fact that
they're not all the same. Do you guys
have a resource on Fountain Life to see
that?
if you go to life force.com, there are
two
you can order the book there, but then
there are a number of resources there.
One is for Fountain Life, the other one
is for
my
my life force where there are
a number of recommended supplements that
you can get access to there.
But that's not that's not the purpose
here. When it really get into the book's
mission is to give people hope and to
give people a game plan of what they can
do. MIB-626
comes out of a company called Eden Rock.
The founder of Eden Rock, Ed Schultze,
attended one of my SU executive programs
10 years ago after selling his, you
know,
exiting with tens of millions from one
of his companies and got so enamored
with biotech
that he's built this multi-billion
dollar biotech company that is
extraordinary. And one of the things
working with David Sinclair is they've
created a a
NMN
analog molecule that they're taking
through FDA approval right now and it's
been secret for a while. It was just
revealed that the special forces have
been doing a trial with them using the
special
molecule MIB-626
to increase
the special forces ability for energy
and working out in long duration and to
increase cognitive capabilities. And so,
you know, I can't say too much more, but
there's the potential of SWAT would
break in and Yeah, there's a potential
for having
truly pharmacological
agents that are available to us that
increase our ability to have muscle and
strength and cognition. Say it for me
one more time. MIB626
does exactly what? So, right now from
there was an article written it was
leaked out of US special forces that
they're using it to increase
endurance and strength. And is it
playing on the NAD pathway?
It it's it is. It is supplementing more
effectively NAD in the cells.
Interesting. And also is it out? Like
are you supplementing
not available yet. No, it's in it's in
very strict trials. Instead of going a
supplement route, they're going an FDA
trial route.
Which will enable them to make specific
claims because they'll have the data.
And
you know, hopefully in in 2 years, 3 at
the utmost, it will become something
that your physician can can order for
you. I love the
story that that Ed Shulock told me about
one of his friends who was a world
champion chess player in his 50s and
early 60s. He now he's in his 70s, but
he's supplementing with this molecule
and he's now back up to world
championship chess play. So, I mean, we
all want to live into our 80s, 90s,
hundreds. The question is you don't want
to be drooling in a wheelchair. Yeah.
You I mean, cognitive function is one of
the most important things.
The the supplement that the chess master
is taking, is that
uh the MIB626?
Yes, that's the one.
And I I'm I'm excited to get my hands on
it as soon as I can, but I haven't But
does that So, if if I'm understanding
what you're saying correctly about the
NAD pathway and I'm basically giving the
energy to the sirtuins that they're
going to need to both play and repair,
so that'll make sense.
But if
if taking that is improving my
cognition, is is it that the cells are
actually being repaired better? I I know
other than to say your brain
is one of you know is is using 30% of
your body's energy output at any one
time. It's disproportionate, right?
Thinking is
might just be feeding it better. Maybe.
Yeah. And of course the brain is is
Interesting. Yeah, it is.
It is fascinating.
You keep giving me the chills. Like this
is So this is why I'm so excited about
it, right? So I've I've switched my
venture fund Bold Capital to instead of
all exponentials, we're like 70% into
biotech and health. It's like the
biggest business out there. I've started
four companies in the last couple of
years in the biotech, health tech,
longevity space. I just think there's no
bigger market. It's like for me, I want
to make as much capital as I can in that
space and then I'll go back to the space
space. Right. Yeah. God, this is so
intriguing. So the more I have forced
myself to understand the mechanisms that
are happening, Yes. the
one more intrigued I have become, but
two it's really beginning to influence
the things that I'm doing. So
I'd love to talk to you about diet. Yes.
And
it's funny how slow I am to actually
change my diet, but that I start talking
about it long before I do. Um
So I have historically been way heavy on
meat. And it makes me feel so good. I
just could not wrap my head around
when I have tried a heavier plant-based
diet, I haven't felt as good as I do
with meat.
Then exploring the ideas that you guys
talk about very eloquently in the book.
And beginning to understand that okay,
if red meat is triggering mTOR and mTOR
is triggering growth and growth is
giving my body the signal everything is
abundant, all is well.
Um
but
the very thing that makes you live a
long time is sending the body the
signal, "Yo, yo, things may not be like
going as well in the environment as we
think. You better like, you know, kind
of constrict a little bit."
hibernation. Right, exactly. Which is
why um caloric restriction is the only
thing they've seen work across every
species they've ever tried it on in
terms of longevity.
Yes.
And when I heard that, I was like, "Oh,
man. So, that would explain why I feel
good. I'm, you know, I can add muscle
mass. I feel phenomenal, but I'm not
giving my body the signal for longevity.
Walk me through like
So, we're going to talk about uh four
things that I or five things that I
think are important for longevity that
are the basics. And we can start with
diet first. You talk about sleep.
You need to talk about exercise. You
need to talk about mindset. And then the
the fifth one for me is and uh
daily
annual uploads. It's not dying from
something stupid. And and uh it's really
really important to talk about the
diagnostic side of the equation. Not
every diet is right for every person.
Your diet is really impacted by your
genetics
and also by your gut flora.
Um and just to be clear, if you had to
guess, and I know this is a guess, but
if you had to guess, is it weighted more
towards your microbiome or weighted more
towards your genetics?
I am actually going to guess it's more
towards your microbiome.
Yeah, that's my gut instinct.
Yeah. Yeah. Uh-huh.
As well. Okay. Uh so, the there's
certain things that are true. And you
know, the single most fundamental part
of your diet is sugar is poison.
Right? Sugar is causes
neuroinflammation, absolutely clear. It
causes uh uh cardiac disease, absolutely
clear. Right? Sugar feeds cancers.
Um and so, getting rid of sugar is is
the most important move anybody can
make. And do you consider that just like
actual refined sugar as an ingredient or
are you looking at carbohydrates?
Well, I'm also talking about, you know,
uh low
high glycemic index
carbs as well. Stuff that becomes sugar
in your bloodstream. Bread, pasta, white
rice.
So,
um I am
Where do you fall on fruit? I
eat a lot of blackberries and
blueberries because they've got
additional benefits, all right? I sort
of stay away from melons and orange
juice and and things that become
instantly become sugar in your
bloodstream. I I've gone
hardcore vegan and then I've gone
hardcore keto and I've gone back to a
Mediterranean. So, I will typically eat
as much veggies as I can. I mean, I'm
pounding salads,
uh peppers, uh you know,
you just as much greens as I can and I
love a great Greek salad, tons of olive
oil, right?
Do you put cheese on it?
I put feta cheese on it. I do. I enjoy
It's the only cheese I actually eat is
feta cheese.
Because it's a harder cheese? Because um
I'm lactose intolerant, thank god. Uh
and that makes me
because I think um I think cow milk
today is detrimental. There's a a number
of studies that show that cow milk is uh
in particular the type of cow milk
that's dominant in the US is is not good
for you and I don't have enough uh
science on the tip of my tongue to back
that up, but go and and Google and take
a look around. I will supplement that
with typically fish,
uh salmon when I can.
Uh do I love a piece of bacon now and
then? 100%. It's, you know, it's
breakfast candy.
Uh but I try and minimize. I don't eat
any red meat. I don't uh
or, you know, any uh any beef.
Uh I'll eat some chicken,
uh some and some fish and but it's
80 90% uh
diving into veggies. Mhm. Um and that
works for me. It doesn't work for
everybody. And is any of that So,
obviously some of it's just
experimental. You've tried it. Is any of
that driven by this idea of mTOR and not
wanting to trigger that pathway?
So, what's driven there is uh
my intermittent fasting.
So, I will
uh get up. I will not eat lunch until
about 2:00.
And then I will have a late lunch and an
early dinner.
Um and try not to overeat. And I'll hope
to be done by dinner by 7:00. And then I
will fast till the next day at 2:00.
David Sinclair does one meal a day at
dinner. And then he's he's fasting. And
so, I'm carrying with me, you know, this
is my uh
What on earth is that?
It's Athletic Greens and Fiji water.
Right? So, this will be what I drink.
So, do you think that you're not getting
enough
uh of I assume you do the Athletic
Greens for the micronutrients. Are you
worried you're not getting enough in all
the salads that you're pounding? No, um
I this
adds probably certain ones that I'm not
getting, but it also makes it uh
more enjoyable to drink than just plain
water.
does get a bit boring. I will give you
that. Where's your What's your take on
uh carbonated water?
Interesting, right? So, I've been all
over the place. I I enjoy carbonated
water. And the question is, is it
acidifying your your bloodstream or not?
So, I just Listen, if if I were someday
to get cancer, I'd be going all
alkaline. I'd be zero sugar, you know,
it's just like I'm going to fight it on
every front. Until then, I will uh I'm
probably 80% flat and 20% carbonated. At
dinner, it's like a bottle of of
Pellegrino of uh what you call it? Um
Yeah, Pellegrino. Pellegrino, Perrier.
Perrier, yeah, exactly.
Very interesting. So, I I don't know
what it is. I whatever is best for me,
I'm always like to the right of that.
So, I drink uh
basically every ounce of water that I
intake is carbonated.
Yeah. So, I don't drink sodas or
anything like that, but
again, phosphoric acid and sugar, you
know, just say no. Mhm.
So, going back to red meat for a second.
So, do you avoid red meat because of the
um
the correlative studies on um
Increased cancer, increased
inflammation.
Yes. And I've I've just
I've learned to just not like it as
well. After time, it just is, you know,
it's not what I'm going to eat. You
know, if I if I'm going to eat anything
other than uh fish, a little bit of
chicken, and a little bit of pork. Mhm.
But, that's my personal, you know, and
again, it's really maximizing the amount
of of greens, of uh colorful greens, you
know, uh broccoli uh with olive oil and
lemon is awesome. Uh you know, who would
have thunk I love Brussels sprouts?
Do Brussels sprouts are delicious. I'm
not sure if they're cooked well,
obviously. I'm not sure what people's
beef are, but I will say that I like
Brussels sprouts with bacon. Yes, I do
love Brussels sprouts with bacon, yeah.
so good.
Yeah, for sure. Uh yeah, I I am
surprised when you get something cooked
well, just how delicious
um
vegetarian items can be, vegan items can
be. And and I I will set aside all the
stuff that just, you know, puts a ton of
sugar in it. Have you heard of Shroomu?
I have not. So, Rich Roll, who I think
you know,
to see him later today. Amazing guy,
phenomenal podcast. His wife created
this vegan cheese, which after the whole
So, my thing, I am still eating a ton of
red meat, I want everybody to be very
clear. But, I am going through this
intellectual exercise of exploring this
idea of mTOR and like if if red meat is
triggering that and you need to put your
body in a totally different state in
order to um get the longevity. So, I'm
like, okay, well, are there vegan things
that I can try? So, Rich ends up sending
me some of his wife's cheese.
It is so good. I I literally freaked
out. I was texting him like, "Homie,
this is freakish." And so, uh yeah, I'm
always a little tense when something's
highly processed, but nonetheless, this
stuff is amazing. The ingredient list is
really short.
I see him, I'm going to ask him for
some.
Dude, it's so good. You are going to
love it. I I literally can't believe how
delicious they've made this stuff. And
that's where I'm like, okay, like if if
there are things that I can do that are
really delicious and I can measure, and
this is where this gets interesting, I
can measure its effect on whether it's
my telomeres or I forget what the
InsideTracker, what's it called?
InsideTracker is is one, yes.
What is it they're looking for in that?
Is it methylation? So, they're they have
uh an epigenetic clock Cuz when you say
that you're you're 49 biologically.
it turns out that going back to our
epigenome and the methylation sequence,
um
uh there
is a methylation pattern
that changes over time.
And you can measure it. And uh
there is a uh a number of methylation
clocks. And so, InsideTracker uses one
uh
Fountain
Life I give some blood and they do not
the DNA sequence, but they look at the
methylation and they say, "You have the
methylation pattern of a 49-year-old
even though you're 60.
And so David Sinclair, who when the time
we wrote the book was 53 and had a
methylation pattern of someone who was
33. Oh. Right? And so that's my goal, 20
years. It's amazing.
And So do you do things and then do the
tracker and look at it and go, "Okay,
cool."
I am constantly
varying my supplements, my exercise, my
diet uh
in directions that
are pro age reversal. Mhm. And let's
let's talk about some of the other ones.
So on the diet side, just to summarize,
you know, the recommendation is
intermittent fasting.
You know, at a minimum, you know, eat an
early dinner.
You're like 19 hours?
I'm Yeah, I'm I'm roughly 7:00 p.m. till
uh till 1:00. So yeah, that's uh what is
that? 6 - 24 18 hours. Right? On the
extreme, I'll do one meal a day, but
typically it's eight, you know, six on,
18 off.
Uh the second thing uh is I'll try and
you know, bring in at least 2 L of water
a day, right?
If on a great day I can do three. Just
pounding water. We are constantly
dehydrated. We don't drink enough water.
I'm going to ask about that and I don't
I we have more, so let's put a pin in
that lose where we were, but every time
somebody says to drink that much water,
there is a skeptical part of my brain
that's just like from an evolutionary
standpoint, there is no way we had
access to water that consistent.
a really great point.
Um
So uh
in the book we provide some of the
studies in the background on on water
intake. I'm taking this on
gospel truth. I don't have the science
behind it.
Um
Putting that aside, minimizing sugar,
that's clear. Plant-based diet,
maximizing my plants
intake, and then adding supplementing it
with, you know, I do eat eggs, I do eat
fish. And so, that's more of a
Mediterranean diet, which is, you know,
genetically and, you know, historically
my background.
Let's go to the next subject, sleep.
Uh
evolutionarily,
if our species could have evolved to
sleep less,
it would have been such a boon to get
extra hours in the day for finding food,
protecting yourself, mating, that
we would have slept less. But, the fact
that we don't, that we need 8 hours of
sleep, uh is a fundamental fact. Your
brain needs it. And I remember when I
was in medical school, I used to pride
myself on like, I can get by with 5
hours, 5 and 1/2, and that was a stable
point for me. And now I pride myself on
getting 8 hours. I got my Aura Ring. I
set the temperature in the room to 65
degrees. I have a cooling blanket. I've
got these great Manta eye shades that
are so comfortable. I
you know, and I go to sleep, I try and
be asleep by 9:30, so I can get up at
5:30, and I'm like, did I make 8 hours?
It's like, I'm I'm trying to I'm trying
to hit that.
And I think that's really important.
Have you set a goal to work out more,
but don't know which exercises to start
with? Future is here to help. Future is
a new fitness app that connects you with
an online personal trainer who will send
you workouts each week, monitor your
performance, and message you to keep you
motivated. If you don't already have
one, Future will send you an Apple Watch
to borrow for the duration of your
membership, which is amazing, and your
trainer will use that to monitor your
progress, tracking your heart rate and
activity data while you work out. Your
phone, your watch, and your trainer all
work seamlessly together. So, if you
want a workout plan that's built for
you, not the masses, that will keep you
focused and motivated, then go to
tryfuture.co/impact
to try your first month for just $19.
That's cheaper than most gym
memberships. Once again, go to
tryfuture.co/impact
to try your first month for just $19.
You can also click the link at the top
of the episode description. All right,
guys, take care and be legendary.
How about you? How are you doing on
sleep? Dude, I'm freakish about sleep.
So, I
one thing that I will say I'm very proud
cuz I'm definitely a hustle porn guy,
like telling people go hard, uh but I've
always told people get sleep, and that
is a priority in my life. So, I'm in bed
at 9:00 p.m. like it's a religion. Yes.
I don't set an alarm, so I wake up when
I wake up. Now, I will say that there
are times in my life where I'm so
intense on something that I end up not
getting a ton of s- I just wake up.
Yeah. But I know that if I were to back
off and do to have less stress in my
life that I would sleep more. So, even
though I'm not waking up to an alarm, I
am doing things mentally that end up
reducing my sleep. So, I'm not thrilled
with that. If you were to track right
now, my average per night is between 6
and 6 and 1/2. Okay. I'm I'm hitting
minimum seven, and I'm routinely hitting
8 hours, which I'm really happy about.
Uh but it's really getting up and having
the energy in in the morning, right? So,
I do my best writing early. Same. Yeah,
it's like I used to be in I remember
medical school and graduate school, I
was uh you know, I'd be pounding at 2:00
a.m. and and 3:00 a.m. and and like that
was my
and I my schedule was flipped where
I'm
mental clarity
in the first 2 hours of the day.
Yeah, so I don't know how much credence
to give to chronotype, but when I was
young, so that I went through a period
where I was unemployed, and
in that period, my
my sleep time I kept getting pushed
later and later and later,
And I realized I had a problem when I
had to set an alarm to make a 10:00 p.m.
movie.
And I was like, "Whoa, all right." So,
and you just start to feel weird. One,
you're not seeing the sun. Two, you're
not really seeing other people. Yeah.
Because, you know, when you go to the
grocery store, it's 1:00 in the morning,
and so there's two other people in the
store.
I was like, "Something doesn't feel
right here." And so, I forced myself to
get back onto a normal schedule. But, um
but now I'm like, "Man, when 8:00 comes
around, I'm like, 'Can I go to bed yet?
Can I go to bed yet?'"
So, it's not like somebody has to
convince me to go to bed at 9:00. I'm
ready to go to bed. And uh yeah, that's
Yeah, I know. I got
I want to feel good in the morning.
Yeah, I got 10 and 1/2 year old boys
that are typically in bed at 7:30 and
asleep by 8:00, and I'm like ready to go
to sleep then, too. Yep. It's like I'm
like, "Uh God, please go to sleep so I
can go to sleep."
Yeah. Um so, uh sleep is critical. Uh 8
hours. Um
Let's go to exercise next, right? I
mean, it's still the fundamentals of
diet, sleep, exercise. Uh
for me, I try and get in my 10,000 steps
a day. I'll take my meetings, as many
meetings as I can, walking. Uh I'll take
my phone calls walking. I'll take my
Zoom calls on my phone walking, just to
get that in. And then, I do a heavy
weight workout twice a week, and light
weights, uh you know, every day. How
about you?
And uh so, I work out four to five days
a week, and I do basically exclusively
lifting.
I won't call it heavy, cuz I used to
lift heavy, and I definitely don't do
that anymore. But, I lift things that I
can do, say, five to six reps.
Mhm. Um unless I'm doing something for
deadlifts. Deadlifts I do ultra high
reps. So, like 15 to 20-plus reps.
Yeah. Uh and I do that because I had I
just kept injuring my back. And so,
don't want to play with that anymore,
but I find if I don't deadlift my back
starts to hurt. So, I've kept it in
there, but I keep it ultra high rep.
Now, one thing you guys talk about the
book is and I'm forgetting the name, but
where you're not trying to move the
weight. You're actually trying to push
against the almost immovable object.
Yeah, so that's a
and there's
OsteoStrong is one of the companies that
enables that, but it's it's when you've
got a
a weight even in you know, if you're
doing curls and you've exhausted your
muscles and you can bring it up and just
hold it until it it goes down. It's that
that point of maximum contraction and
maximum force
and it's signaling the muscles at at
that point. You're just trying to signal
them uh
it's I think the molecule is AMP
adenosine monophosphate that that
triggers muscle growth. One of the
things I think it's important for people
to know is
muscle mass is an indicator of
longevity.
There is a direct correlation and
there's a couple of reasons thought.
Number one,
uh your muscles store blood and stem
cells in them and the second is a lot of
people die post falls.
You know, uh you break your hip, you
break your pelvis is how my dad passed,
you know, ends up in the hospital and
then there's a pneumonia and I just hear
the story over and over again. I just
you know, got my mom a trainer. God
bless her. She's 86 um and I it's like I
have the dedication of the book to her
saying, "Mom, you're going to make it
over 100, please." And it's like get a
trainer to keep her muscles
toned as much as possible.
Yeah. Yeah, muscle is a a very big deal.
Um
how do you think about like when you're
So, I guess you intake some meat, you
intake eggs, so not a big deal, but
that's one thing that I when I hear that
I start sketching out between okay,
wait, I'm going to need to trigger mTOR
to build the muscle mass, but mTOR is
also
I won't say directly shortening. I'm
Yeah, I don't know enough to make the
statement, so people check me up on
this, but this is what I think that mTOR
is effectively shortening my life
compared to what it could be if I wasn't
constantly living in mTOR. So, it's this
weird balance of needing the muscle
mass, which my understanding of one of
the reasons that muscle mass is so
effective to your point is that it's a
storage mechanism. So, it's storing
uh you just talked about stem cells,
blood, but also amino acids. And so, um
oh god, I'm forgetting his name.
There's this guy back at Quest we used
to talk to all the time, very
accomplished scientist, and he was like,
you would see like a burn victim
and if they had muscle
and within like
3 weeks, their muscle would just be gone
because the body was just stripping it
of the amino acids so it could repair
and rebuild the skin. And I was like,
"Whoa, that is cuz I'd never thought
about that there cuz when you lift, you
realize you guys talked about this in
the book that you it does feel a little
sisyphusion in that if you stop working
out, you're going to lose that muscle
mass distressingly quickly." Yeah. And
so, my thing is, okay, hold on. If if
the body is like, "You're going to have
to put me in like an adapter diet state
for me to put the muscle on, and then if
you stop putting me in that state, I'm
going to strip you of the muscle."
Muscle's clearly very expensive. The
body is nervous, in my words, to hold on
to muscle. So, the question becomes,
okay, one, why is it expensive?
And then, two
what is it
if it's correlated with all-cause
mortality, what is it doing that makes
it valuable enough that you do want to
keep some but that it does get thrashed?
Here's the a couple of really important
data points here. So, your body is
constantly remodeling itself, and you
know this, right? Bone and muscle
remodel based upon your needs. If you
don't need it,
um you lose it. And so, if you're in bed
rest, bone density and and muscle uh
disappears. Um
and the challenge is that our bodies
were never evolved to live past age 30.
So, if we go back sort of to
evolutionary biology, 100,000 years ago
on the savannas of Africa, you'd go into
puberty at age 12 or 13.
And before birth control, you were
pregnant.
And by the time you're now 27, 28 years
old, your baby's having a baby.
And back then, before McDonald's and
Whole Foods, before, you know, we had
abundant amount of food available 24/7,
uh
the last thing you wanted to do to
perpetuate the species was steal food
from your grandchildren's mouths.
And the best thing you could do was die.
Right? And give your bits back to the
environment and not hold back your
tribe.
And so, the average human lifespan
100,000 years ago was, you know, 30-ish.
And even 100 years ago it was just 40.
Um
not that you couldn't live longer, but
the average lifespan
uh from childhood mortality and early
deaths and everything was was 40.
Um and so,
genetically,
everything that would kill you
after 30, after reproductive age, was
never selected against. So, all the
stuff in your, you know, cardiac disease
in your 50s and cancer in your 60s and
70s and uh dementia in your 80s and 90s
was never
biologically selected against, and even
retaining muscle mass and bone mass was
never advantageously selected again. If
we had If we could reproduce
into our hundreds, then
the people who had the most muscle, the
the most, you know, cognition, the the
the most the least disease,
their genes would perpetuate, and that
would be a positive feedback loop, but
that just hasn't been the case.
Muscle is critically important. I'll
talk about one of my companies
that I just took public this year called
Vaccinity.
Um and it's a super cool company.
Uh
it is
a company that creates what are called
peptide vaccines, right? So, a peptide
is a small sequence of amino acids. It's
a piece of a protein, and it's We do
these specially designed vaccines. I'm a
co-founder and vice chairman of the
company. The The brilliant individuals
are May May Who, who's the CEO, and Lou
Reese, who's the executive chairman.
They built this vaccine company. It's
got a COVID-19 vaccine, which we just
got data
yesterday. We just announced today that
it's three times more effective as a
booster than the Pfizer vaccine,
Wow. which I'm super excited about, and
What mechanism is it using? So, peptides
work in what way?
what we do is we create um a peptide
sequence in the shape of part of the
COVID virus, but it's not the You're not
putting mRNA to create the spike that is
then shed and then picked up. We We
generate
um
part of the shape of the spike, and it's
attached to a very I'll call it a very
provocative
uh protein that is um
seen by the by the body as dangerous.
And those two combinations cause your
immune system to form antibodies against
the portion of the COVID vaccine.
But it is
uh
super mellow. There's very low
reactogenicity
uh to the vaccine. So I'm hopeful it'll
become sort of the safer booster
vaccine, and that's great. But that's
not what I'm talking about here.
We've been able to also create vaccines
uh against targets in the body
uh against Alzheimer's, against
Parkinson's, against uh
hypercholesterolemia, which is stroke
and uh heart disease. And we're
developing against bone loss and muscle
loss. How does that work? Like if people
are So let's take Alzheimer's, which I
imagine is one of the harder ones.
What is it they're targeting? Cuz isn't
that still a big question mark as to
what's going on?
the beta amyloid, which is build up. And
so if you can target that, what happens
is your body starts creating antibodies,
which goes attaches to the beta amyloid
in these these uh short-chain beta
amyloid, and then extracts them out
before they build up.
Obviously, I am not an expert on
Alzheimer's, but the idea of beta
amyloid plaques being the ambulance at
the uh scene of the accident rather than
the actual causative problem. And so if
we end up removing all of the amyloid
plaques, and it's actually there to, I
don't know, trap a virus or whatever. Um
So so far, we're we're entering phase
three of the you know, phase one is safe
is safety, and it's very safe.
How long have they been going down this
road? Doesn't this take a long time?
Seven years. Jesus.
Yeah, seven years.
Um
phase two is efficacy, and phase three
is efficacy at scale, right? So uh we've
completed our phase two, we're getting
ready to enter our phase three.
Uh we're entering phase two on
Parkinson's. Uh
We uh
which is
amazing. It's um
alpha synuclein is what the target is
there. So, here's in in
hypercholesterolemia, I find it
fascinating. I have
I have hypercholesterolemia, high LDL,
right? It's genetic. My dad had a lot of
heart disease and atrial fibrillation.
Do you take a statin? I do not take a
statin. I hate statins. Super curious to
hear more about that, but finish this.
Yeah, okay. So, what I have been taking
is a monoclonal antibody
uh called Repatha
um that I inject 5 ml every 2 weeks Wow.
into my belly fat or my my my uh my
thigh muscle.
And that monoclonal antibody, so it's an
antibody, right? That targets a protein
in my liver
called PCSK9. And that protein in my
liver is what generates LDL, the bad
cholesterol.
And so, this monoclonal antibody
uh that's very expensive. It's $14,000 a
year. Wow. Right? Not not cheap. It's
not It's not the first, second, or third
line of defense. It's like the last line
of defense cuz people can't afford it.
And so, the monoclonal antibody is
manufactured in a vat in this in this uh
Regeneron's manufacturing facility. I
get it. I inject it. Goes to my liver
and uh and blocks the PCSK9 protein. The
antibody attaches and blocks it from
manufacturing LDL.
So, what we're doing is we are
manufacturing
uh a vaccine
that you give yourself every 6 months.
And the vaccine
activates your own immune system to
create that same antibody for free. Wow.
So, your immune system creates this
antibody against the PCSK9, goes to the
liver, and blocks it.
Except instead of $14,000 a year,
the cost is maybe 100 bucks a year. Wow.
Right? And so, now all of a sudden, it
can become a first line of defense. Mhm.
And it attacks the root cause of the LDL
production.
Which is then So, the idea is can you
preventatively
give vaccinate everybody so you don't
produce the heart disease or the stroke
from that from that LDL. And that it
becomes exciting. Now, how I got to the
Vaccinity story
was that
we are also um
in development of a vaccine
against bone loss and muscle loss. Mhm.
And so, imagine imagine if when
she's targeting?
Um I am I should
it's in the book, and I apologize from
uh not remembering the exact uh targets,
but it's basically it's going to be
blocking the osteoclasts, which are the
cells in the bone that break down the
bone. Right? So, bone is dynamic. It's
built up by osteoblasts, and it's broken
down by osteoclasts. It's just the way
the
if you're a skier and you're stressing
your bones, osteoblasts are building up
bones where that stress is. If you're in
bed rest for a month, it's breaking it
down.
And in in muscle, um
you're you know, the sarcopenia, which
is the technical term for for for uh
muscle loss, uh you can block the muscle
breakdown as well. So, imagine if you
when you build your muscle up and you
build your bone up that it it just stays
at mass.
Um one of the things that's exciting uh
that I share with my my dear brother Lou
Reese, who's executive chairman of this
company, is passionate about space. So,
imagine being able to go and vaccinate
the astronauts before they go to Mars or
before they go to the moon, so they
don't have the muscle loss and the bone
loss and they can retain it when they're
coming back. And of course, the real
business opportunity is in the aging
population, where that's a real issue.
So, it's just another
powerful tool that we talk about in the
book that vaccines
are becoming extraordinary as a tool.
And And whether you hate the COVID
vaccine or love of COVID vaccine, it's a
technology that has saved, you know,
tens, if not hundreds, of millions of
lives. And so, Stéphane Bancel, who's
the CEO of Moderna, is uh is a friend.
And the work that they've done is
unbelievable, right? We went from
uh
the
Wuhan virus sequence sent by email to
labs around the world from Wuhan,
uh to a Moderna vaccine designed in 24
hours. Woah. And then from that design
to being put into production and
approved for distribution in under a
year. Now, this is something normally
takes 7 to 10 years to do. We did it all
in under a year and built the
manufacturing at scale. I mean, that was
shows us what's possible, right? This is
the exponential age that we're living
in. So, where is Moderna going next?
They're producing vaccines against all
the viruses we accumulate throughout
life. So, we have cytomegalovirus,
herpes virus,
uh HIV viruses, all kinds of things. And
it turns out that when you have these
viruses in your bloodstream,
they your immune system is constantly
battling to keep them in check.
And there's something called
immuno-depletion or immuno-exhaustion,
which is if your immune system is being
used to exhaust is being exhausted by
constantly fighting these
endo these viruses that are in your
system never wiped out
then your immune system's not there to
fight cancer.
Right? And one of the things that people
should know is we're always developing
cancers.
The body's always developing cancers.
It's just that your immune system finds
them and zaps them.
And so the idea of what Moderna is going
to go next is to develop vaccines
against all of these
um that generate the antibodies that
keep these in check versus your T cells
keeping them in check. And it's an
amazing vision of where they're going.
And so I just think we're going to start
to see these brand new sets of tools.
Remember I said we need to learn how to
modify our software or hardware. And
this is modifying our our hardware in
this regard.
Yeah. It's really incredible. What So
regenerative medicine is a big part of
the book and that's a big part of the
focus. That's something I'm super
excited about.
Where where is the state of it now and
and maybe even so everyone will
understand the words regenerative and
medicine. But what is regenerative
medicine and what's the most exciting
stuff happening? Yeah, sure. Uh and
there's a lot. It's amazing. It's
insane. So hold on. This is where we
have some fun. So uh
our body Remember I said the placenta is
a 3D printer that manufactures all the
cells that create the fetus and the the
newborn, right? It's a 3D printer that
manufactures a baby. And then as we grow
in our body, we have stem cells all over
the place. And stem cells in our bones,
in our brain, in our muscles. And
they're there as the
uh as the repairman.
Um and you can think of the body,
there's a great analogy uh that uh that
Bob Hariri and Aubrey de Grey have have
used of if your body is a beautiful
mansion like this incredible place that
we are right now.
And
uh
and you have the designs for the place
and you have an army of re- of repair
repairmen and women who are fixing the
place.
And uh anything goes wrong, they fix it.
Anything goes wrong, they fix it. But
over time, imagine that uh your repair
staff are getting older
and dying off
and more senile
and damage starts accumulating.
And that's effectively what's going on
inside the body. So, one of the nine
hallmarks of aging is is stem cell
depletion.
So, between
uh you know, a child at birth and
someone who is in their 60s, 70s, 80s,
90s, you can see a hundredfold to a
thousandfold less stem cells in your
body.
Oof.
And and so, the repair mechanisms
uh you know, are super weakened.
Uh regenerative medicine is how do you
revitalize your stem cell populations?
How do you augment them?
So, uh Bob Hariri, who's also part of
the book, the book was principally
written by by Tony and myself and Bob
helped uh guide a lot of the the content
as well. Uh he's my brother from another
mother. He's a great dude. Yeah, he's
amazing. Uh so, Bob was a uh a trauma
neurotrauma surgeon, amazing. And one
day, when his daughter was being born,
he realized that the placenta was
growing very large
ahead of the fetus growing. Like, the
fetus was a bean and the placenta was
really fully formed. And when he and I
were in medical school, it was always a
placenta it a support organism for the
for the fetus, but if that was the case,
why wasn't it growing at the same rate
as as the embryo?
Well, it turns out it's not. It's
generating the the the stem cells and
the cells that are manufacturing the the
embryo.
And he's the first person to realize how
powerful the the placenta is as a source
of uh
of pluripotent stem cells and uh
and immunological cells. So, he built a
company within Celgene that's now part
of Bristol-Myers uh called uh so,
Celgene was a hundred billion-dollar
company. He was in charge of cellular
medicine. About three years, four years
ago, I helped him spin that out and we
formed a new company called Cellularity,
which also just went public this year.
It's the uh company that
is mines the placenta. So, we we store
hundreds of thousands of placentas. I
had my two boys 10 years ago were
stored. The company, anybody who's
listening, if your kids are if you're if
you're pregnant or you know someone
who's pregnant, it's uh Lifebank USA.
Instead of us just storing the cord
blood, you can store the placental
cells.
Woah. And so, it's like having the
original
boot disk to go back to early days of
computers or the original computer code
of your child stored
eventually to be able to manufacture
backup organs and manufacture whatever
you might need for that child.
And so, out of the placenta, we extract
stem cells.
We extract exosomes, which exosomes are
are the So, stem cells are generating
these growth factors.
And the growth factors are released by
from the stem cells in these little
uh vacuoles, these little fat-contained
microcells
that have no DNA, no organelles. It's
just sort of a exide structure. It's an
bi-lipid structure with these growth
factor chemicals in them, and those are
called exosomes. And so it's how they're
excreted from stem cells, and they're in
the milieu, and you can extract them.
Uh and and it's so you can So I when I
go to Fountain of Life every time, I get
uh I get these exosomes injected into my
bloodstream versus the stem cells. And
they're growth factors going into my
bloodstream.
ones that are
Match? No. No.
Really? You don't have to worry about
blood type, nothing?
Nothing. The exosomes are just the
growth factors, and I'll talk about why
even placental cells don't require
matching
um because they're they're
immunoprivileged. If you think about a
surrogate mother
who's carrying a baby that she's not
genetically related to,
Yeah.
she doesn't reject the baby, and the
baby doesn't reject her. And so there's
an immunoprivileged structure there,
which is fascinating and very
advantageous. Wow.
Yeah. I I
It's before the cells are are given
an identity of self by the thymus gland.
Anyway, long story short, um
the question has been, can stem cells
help you regenerate and repair? This
entire book got started when Tony was
skiing down, you know, snowboarding down
a hill, uh trying to follow a
22-year-old professional. Uh he has this
crazy fall, uh and he, as he says, he
has 9.99 pain out of 10 as he had really
damaged his rotator cuff. He thought
he'd broken his neck. And he's going to
uh
all of his surgeons, he's going to his
friends, what do I do? It's surgery,
surgery, surgery, surgery. And he called
me up, and I said to him, "Tony, listen,
before you have surgery, I think you
should really go and try stem cells."
And he goes like, "What should I do?"
And I said, "Go talk to Bob."
Uh Bob and I set him up at a at a clinic
uh down in Panama. He went down.
Uh he had stem cell treatments in the
joint and intravenously over the course
of 3 days.
And as he explains it, uh on the third
day,
for the first time in in years, he
stands up and he's got no pain in his
back.
And he
an unrelated injury. Unrelated. And
uh and his shoulder is
uh beginning to feel better and months
later on MRI, it's completely healed
without any any surgery.
Now, results will vary. To be clear, uh
Tony is a is a is a miracle unto
himself. And I think his mind over
matter is is extraordinary. But he got
religion.
Uh I invited him to a conference
uh
uh an X Prize event we were having at
the Vatican. We were piggybacking on the
uh Cure conference that the Pope hosts
every every 2 years.
And uh he came and he got so excited
about this. And that's when this book
was born. And the book opens up with the
story of the Vatican conference and um
his injuries and such. And regenerative
medicine
is the notion that we can use uh stem
cells and exosomes and growth factors to
help regenerate
our body. To help regenerate muscle,
brain, all of the tissues of our body.
Um a few other areas. So, uh you might
have heard about the young blood uh
experiments. It's a fun uh Dracula myth
here. So, years ago, in fact, Bob Hurry
did a lot of this early work and it was
repeated in Amy Wagers lab in, uh, at
Harvard. If you take the circulatory
system of a young mouse and an old mouse
and you combine them, it's called
parabiosis,
the old mouse gets younger and the young
mouse gets older and it's like, what
what up? You know, why is this
happening? And so, what Amy Wager, uh,
did was
she identified a particular molecule
that is decreasing
as we age. Um, and then it's called
GDF11.
And she started giving that to the old
mice and they became younger.
Woah. And so, uh,
there is a company called Elevian
that's, uh,
been designed to turn that into a a
drug. They're entering human trials just
now, finished with animal trials and
it's being used in certain conditions.
Um,
uh, but, you know, you always and when
you're doing an FDA trial, you can't
just say it's going to affect
everything. You have to pick a
particular point and say, we're going to
look at, uh,
uh,
neuroinflammation or cardiac conditions,
whatever the case might be and we're
going to measure this,
uh, this disease and these molecule
these, uh, you know, markers and see if
they get modified.
And so, that's exciting. Um, could that,
you know, What have they decided to
target? Um, uh, they are
desig- they're targeting the
cardiovascular system in particular.
Uh, and there's again, uh, we talk about
Mark Allen, who's the CEO of that
company, who's, uh, a friend, uh, full
disclosure, Bold is an investor in in
Elevian, uh, as is Tony. Um,
and
uh, we'll see. I'm excited about that.
I'm always look I think, you know, the
biggest business opportunities on the
planet are going to be
age reversal and health tech and biotech
and so forth. You You still can't take
it with you, right? Uh so there's that's
one area. Another area of regenerative
medicine that is blow-your-mind
level stuff
is
building organs. This is nuts. We're
heading towards a organ abundance. So
today
there are hundreds of thousands of
people on an organ donor list. A lot for
kidneys, which is the number one needed,
and then heart and liver and lung. You
know, I once wrote a screenplay about a
guy whose wife is dying and he has to go
harvest the organs of bad guys. Uh
That's great.
to work her up the UNOS list.
That's That's crazy. Um
So right now if you need an organ
transplant
you're hoping
that someone
with an HLA match
in other words a a match to your surface
antigens dies
and is an organ donor, right? So I'm an
organ donor. I think that's the right
thing to do. I checked it on the form.
Uh encourage others to consider as well.
Um I hope not to die anytime soon, but
just you know, just putting that out
there.
Um
and
uh
you're waiting for that and then the
transplants
uh if you're in good enough shape and
the organ's good enough shape
but we're we're transplanting a fraction
of the list. But imagine a future in
which you have a backup set of organs on
hold for you, right? Like in the deep
freeze ready to go.
So there are two approaches going on
right now. One by an incredible
entrepreneur Martine Rothblatt who you
know. Martine uh
is uh is brilliant. I've known her for
40 years. I uh Martine is on her seventh
moonshot right now. Wow.
she used to be Martin.
Uh,
and uh,
when when she was Martin, she was the
co-founder of XM radio and Sirius radio.
She was an uh, an F uh, an FCC
regulatory lawyer and an aerospace
engineer and amazing brilliant person.
Not done much with her life, yeah.
Yeah, and and uh, she had uh,
a uh,
a sex change operation, remain married
to Bina who's brilliant. Uh, a number of
kids. One of her one of her kids, one of
Martine's uh, changed name to Martine.
One of Martine's kids um,
by name of Genesis
uh,
when she when Martine was now still in
XM radio and Sirius radio uh, is
discovered to have a fatal disease
called pulmonary fibrosis.
And what does Martine do? She quits her
job, she sells her shares
and sets out to cure her daughter's
disease. Damn. With no background in
biology. Starts with a high school
biology book
and camps out the medical library and is
reading everything on pulmonary
fibrosis. Wow.
And is tracking down and talking to the
doctors and just, you know,
monomaniacally like I love this Joseph
Campbell quote like a a man whose hair
is on fire seeks water. Right.
Isn't that a great quote?
good. It gives me the chills again.
Yeah, and uh,
goes after that and tracks down a
potential drug that could stay the
course of pulmonary fibrosis for her
daughter who's only got a couple years
of life left.
And
uh,
the drug company refuses to provide it
to her. And so uh, Martine goes and
grabs a whole bunch of great scientists
and advisers and brings it into her
orbit and they go and they lobby and
finally get the
uh the drug company to agree to give
them access to that orphan drug, which
they had no intention to develop, but
didn't want the risk. And what Martine
gets is a little baggy of white powder.
Woah. And she has to go from there
to a manufacturable drug, to uh trials.
And lo and behold, it works.
And it saves her daughter's life. Wow.
the course of that, she builds a back
then $6 billion company called United
Therapeutics that she's the chairwoman
and and CEO.
Now, it doesn't stop there.
Cuz Martine realizes that this drug will
stay the course of pulmonary fibrosis,
but it doesn't cure pulmonary fibrosis.
And now the question is, how do I
manufacture lungs?
And so she sets out on three different
approaches to manufacture replacement
lungs.
And her primary one, she hooks up uh
with Craig Venter. I'm very proud to
have made that connection.
And
the idea is, can you take a pig that
happens to have the same size heart,
kidney, lungs as humans?
And can you modify the surface proteins
of that pig to humanize it? Make it
human-like. So crazy.
And then engineer out it's got
endogenous retroviruses that if you put
that pig organ into a human, the
retroviruses can pop out and infect the
person. So it is zap all the
retroviruses, modify 10 surface genes on
that pig. And it was done. And how do
they modify the genes? CRISPR?
CRISPR.
This is insane.
Insane. Totally insane. And now what
happens next?
Uh they
modified it
uh about
uh 6 months ago when we're getting ready
to publish and doing last-minute changes
in the book. I asked Martine, "So, when
is this likely to happen?" He says,
"Well, by the time your book is coming
out,
it's going to be real." Right on cue,
uh they do a kidney transplant uh into
as the first one into a man who was on
life support,
but uh their family allowed them to do
this as a test, and it went great.
Uh
and then just recently, I think about 2
months ago, they did a heart transplant
into a a recipient who's doing well.
And so, the I
on. We We have taken
pig organs, Yes. humanized them, and for
people that don't know what CRISPR Cas9
is, you basically go in and edit the
DNA.
Yes.
Insert something else?
Like, do you give it the bit of DNA to
insert?
So, yes, you can do that, or you can
just uh you can just cut out a
particular gene, and
like a a piece that does something that
works in pigs, but does not work in
humans. And and We cut that bit out.
And you can then put in the proper bit.
Uh now, I don't actually know what the
exact modifications they made, so I
don't want to venture
humanized it?
We humanized it. It was 10 genes that
were modified in the pig. This is
bananas.
It's bananas.
It gets even more bananas.
So, that's the work that United
Therapeutics is doing, and you know, uh
if you sacrifice like 1% of the pigs
that we eat every year, there'd be
enough organs for everybody on the
planet. Right? I mean, it's crazy stuff.
Uh the second thing is one of my
favorite heroes, a guy named Dean Kamen,
right? Dean Dean is brilliant. Um people
know him for creating the Segway, which
is the last thing on the list that he's
done that's amazing.
Uh he uh created the you know
uh
the implantable insulin pump. He's
created uh the Luke arm for people who
have lost their arms. He's created
arm?
The Luke arm. Um it's a robotic arm that
allows you to, you know, basically
after Luke Skywalker.
Yes.
that.
Uh yeah. Anyway, uh
but uh the slingshot machine that makes
purified water from anything wet um
including sewage. I mean, it's he's
incredible, all right? I won't go I
won't go down that path.
Uh 3 years ago, he sets out on a journey
um
backed by the Defense Department to
build a machine
that in one end goes
induced pluripotent stem cells. You take
a skin cell,
you modify it, you dedifferentiate it to
a stem cell, you put that in,
and then over the course of 1 to 3
months,
you manufacture an organ.
This is so like this is yeah, like Yeah.
And and guess what?
They've
done it for bone ligament bone segments.
So, if you need uh a knee operation or
an ankle operation, you take some skin
cell, you differ you differentiate it,
you put in machine, and you get out of
it bone ligament bone with your genetic
code in it.
Where they're going next
is going after pediatric hearts. Wow.
And so, their goal is by 2023, next 18
months, you'll put a child's
skin cell,
dedifferentiate to an induced
pluripotent stem cell,
and I think it's about a 3-month period
of time,
your manufactured heart comes out for
transplant.
It's insane.
So,
So that people understand how this is
already happening now, what have we done
in animal models with hearts in
particular? Because I know the
punchline, but for people that don't, I
think this will be it. Cuz hearing that
oh in 18 months we'll be making human
organs, I'm like, no way.
But if you hear some of the stuff that's
already being done, it starts to seem
pretty real.
Tony Atala's lab
at Wake Forest, Tony's been
manufacturing stem cell derived
simple organs for some time. He's
manufactured bladders.
The skin is an organ, so full thickness
skin with the epidermis and dermis for
transplant. Like if you're a burn
victim, right? Being able to go from
your skin stem cells and manufacture
sheets of your skin that you could then
transplant in They manufactured
micro beating hearts.
You know, few centimeters in size.
Um
One of the things
there's a friend Deepak Srivastava who's
the president of the Gladstone Institute
up up in Northern California.
And the work that he's done
again blows me away. I call it cellular
alchemy. Your heart
is made up of
myocytes,
muscle cells, beating cardiac myocytes
that you know, beat on a regular rhythm.
And connective tissue,
fibroblasts.
And when you have a heart attack
the muscle tissue dies and the
connective tissue replaces it, but it's
all of a sudden it's not beating and so
your cardiac output can be significantly
reduced.
And what Srivastava has done is
been able to use gene therapy
to convert those fibroblasts
into myo myocytes. So, you turn the
connective tissue into beating heart
once again. Right? Because the genes are
there,
they're just differentiated as
connective tissue and not as
heart muscle cells.
Dude, people are finding ways to tell a
cell to be something different.
Yes. That's so like sci-fi. It is. I I
love cellular alchemy cuz that's my
favorite I I I I gave it that name cuz I
love it cuz it describes what we're
talking about.
Literally. Like the idea So, alchemy, if
anybody's not familiar, the I the
pursuit of turning lead into gold,
right? So, taking one thing and making
it another. But, at the cellular level,
because the cells contain the full DNA,
if you know the sequence of chemicals,
I'm not sure what the actual thing is,
but whatever that Yeah. thing that I the
alchemy part is, it actually works. Like
this is nuts.
to talk about one more thing before out
of time.
Uh which is the revolution in
diagnostics.
So, I said uh for living as long as you
can,
uh
it's food, exercise, sleep, mindset is
so critically important, I'll come to
that next, and then not dying from
something stupid.
So,
it turns out most everyone out there is
an optimist. If you go up to someone in
the street and say, "Do you have cancer
growing in you? Do you have an aneurysm?
Do you have any problems that you should
know about?" It's like they pause and
they go, "No, I feel great." Right? And
I don't want to go to the doctor cuz I
don't want to know, which is
Of course, you want to know because you
can do something about it.
So, um one of the companies that we
built uh
uh Fountain Life, and there's a a sister
company uh
uh The Health Nucleus at Human Longevity
down in San Diego. Fountain Life is in
uh four cities and will be in a dozen
cities in the next uh in the next 18
months.
Um I just went there 2 days down in the
facility in Naples.
And I get uploaded every year.
And that upload involves about 5 hours
of my time. I go and I get a full body
MRI,
uh, brain MRI, brain vasculature,
coronary MRI.
Uh, I then
uh, and it's looking for any sign of any
cancer, it's looking for a sign of any
aneurysms or any aberration.
And then I did what's called an
AI-enabled clearly coronary CT.
Long story, what it's doing is it's a
it's a CT of your heart,
um, using artificial intelligence to
analyze the blood vessels.
Uh, you probably heard about calcium
scores, right? Uh, is your heart are
your heart vessels calcified? And you're
like, "Oh my god, you have a calcium
score of a thousand. That's terrible."
Or calcium score of zero, that's great.
Calcification actually doesn't matter
because if your if your plaque in your
coronary artery is calcified, if it's
hard,
you're fine. It's not going to rupture.
It's only if if it's occluded that
you're concerned.
What the clearly CT does is it's looking
for soft plaque
that isn't calcified yet, that could
rupture.
And that's what really truly matters.
And so it's changed completely how we
look at cardiac disease.
Uh, we do a DEXA scan looking at muscle
and bone, uh, we do your genome, your
gut microbiome, uh, all of your omics.
It's about 150 gigabytes of data. Wow.
And I go every year, I feel naked until
I go through it.
And then
I, you know, if I'm going to find
something, it's okay, I'm going to
attack it and fix it.
So, we're all optimistic about our
health.
And you everyone knows about someone who
went to the hospital and oh my god,
you've got stage three or stage four
cancer. It didn't happen that morning.
Yeah. Right? If you detect cancer at
stage three or stage four, your chance
of a cure
is like 10%.
If you detect it at stage zero or stage
one, it's like 99%. Right? So, it's not
it varies for different cancers, but the
idea is we're all developing cancers,
your immune system hopefully catches it,
but otherwise, we give people a Grail
test as well. So,
for me, Fountain Life is like one of the
the most important uh reinventing how we
do how we do health care. And one of the
things we just launched, which I'm so
proud of, is Fountain Health.
And it's a So, I wrote my last book, um
The Future is Faster than You Think,
that the insurance industry is
perverted. When you get when you get
fire insurance, it pays you after your
house burns down.
Life insurance pays you after or pays
your next of kin after you're dead.
Health insurance pays you after you're
sick. So, we created Fountain Health
as a health insurance. It's available
for companies right now 50 employees or
more, and then it'll it'll grow from
there.
But,
when you get Fountain Health insurance,
which is the same price as regular
health insurance, you get all the tests
included at no additional cost.
Because our goal is to
uh to catch any disease
first
before
uh it becomes
something that's expensive to treat
later on.
Dude, this is amazing. I'm very sad that
we have a hard stop today, and we have
reached it. But, dude, the book is
phenomenal. I loved it, and this
catch-up was absolutely amazing. Where
can people find you and learn more about
all this incredible stuff? So, Twitter
and Instagram, it's @peterdiamandis,
Fountain and
My Life Force, which are the products
that uh we support. And then I created
something called longevityinsider.org.
It's an AI engine
that scans the world's news looking for
exponential technologies impacting
vitality and longevity. And it generates
a a newsletter of the top 15
breakthroughs every day on longevity.
And it's free and you can unsubscribe if
you don't like it, but it just keeps me
in this positive mindset. So, the other
place is longevityinsider.org.
I love it.
Yeah. Dude, thank you so much for coming
on the show. It is always so good to
spend some time with you. I love it.
Everybody, read the book Life Force.
It's incredible. It will blow your mind
what is already possible and what's
coming in the future. And speaking of
things that'll blow your mind, if you
haven't already, be sure to subscribe.
And until next time, my friends, be
legendary. Take care. Peace.