Rise In Obesity & Disease: How To Fix Your Diet For Overall Health & Longevity | Dr. Steven Gundry
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Dr. Steven Gundry introduces his book, *Unlocking the Keto Code*, by challenging conventional wisdom about ketosis and arguing that metabolic inflexibility is a primary driver of modern diseases like Alzheimer's and Parkinson's. Historically known since the late 1800s for treating epilepsy in children who were effectively starving themselves to reduce seizures, the ketogenic diet was later refined with MCT oil to allow for more carbohydrates while still producing ketones without growth retardation. However, Gundry reveals a paradigm shift based on research from Harvard and NIH scientists like George Cahill and Dr. Veech: contrary to popular belief that ketones are merely an efficient fuel source, they actually function as signaling molecules that instruct mitochondria to protect themselves during starvation by "wasting" energy rather than maximizing ATP production. The core mechanism Gundry explains involves mitochondrial uncoupling, a process where electrons bypass the standard electron transport chain through emergency exits controlled by uncoupling proteins. Instead of coupling with protons to create high-energy ATP, these electrons generate heat and free radicals that must be managed. This "wasting" is an evolutionary survival strategy; it prevents mitochondria from overheating and sustaining damage when food supplies are low. Gundry illustrates this concept using the analogy of a crowded nightclub where people leave through emergency exits rather than coupling up to make energy, noting that brown fat relies on these uncoupled mitochondria for thermogenesis. He cites historical evidence from World War I munition workers who lost weight and ran fevers due to exposure to 2,4-dinitrophenol (DNP), the first known oral mitochondrial uncoupler, which turned efficient "Toyota Prius" bodies into fuel-inefficient "Ferraris." To harness these benefits safely without the dangers of DNP or excessive muscle loss associated with prolonged starvation diets, Gundry advocates for cycling in and out of ketosis through time-restricted eating. He references a study by Dr. Rafael de Cabo at the NIH involving rhesus monkeys, which showed that animals fed ad libitum but restricted to an 8-to-12-hour feeding window lived significantly longer than those with unrestricted access or calorie restriction alone. This approach allows for extended periods of ketone production and mitochondrial uncoupling while preventing the body from entering a "thrifty gene" mode where it becomes overly insulin resistant. The goal is to maintain metabolic flexibility, ensuring that neurons have alternative fuel sources like ketones when glucose runs out after 8 hours without food, thereby protecting against neuronal death associated with neurodegenerative diseases. Finally, Gundry redefines the ideal diet for longevity by examining global "blue zones" and identifying common dietary threads beyond simple fat restriction. He notes that while many blue zone populations are plant-based or vegetarian, they consume significant amounts of dairy from goats and sheep rather than cows, as goat and sheep milk is rich in medium-chain triglycerides (MCTs) like capric acid which directly generate ketones. Other key components include purple sweet potatoes for Okinawans and polyphenol-rich plants like purslane found in Ikaria. Gundry emphasizes that the true value of these diets lies not just in macronutrients but in consuming high doses of polyphenols—such as those from spices, coffee, tea, and specific cheeses—which act as prebiotics for gut bacteria to produce metabolites that uncouple human mitochondria. By combining a ketogenic framework with MCTs and abundant plant-based polyphenols, individuals can optimize mitochondrial health without the side effects of extreme dietary restriction or toxicity.
Read the full video transcript
There's no doubt that our epidemic
of Alzheimer's and Parkinson's and
memory loss
is
laid at the feet
of our metabolic inflexibility.
Dr. Steven Gundry, welcome back to the
show. Tom, thanks for having me. Great
to be here. Dude, it's really good to
have you. I really enjoyed this book. As
I've said many times on this podcast, I
judge a guest by whether the research is
going to move me forward in my life and
Unlocking the Keto Code is really
intriguing and I'm super grateful that
I'm going to get to drill down on some
of these. So, keto changed my life. So,
I used to struggle profoundly with
inflammation and when I discovered keto,
it changed everything for me. It changed
my relationship to hunger, to
inflammation, to all of it. And in the
book, you make it very clear that we
don't understand some fundamental things
about ketosis and ketones. And so, let's
start with what don't we understand?
Well, I guess
the best place to start is what we
thought we understood about ketones. And
ketones and ketosis have been known
about since the late 1800s. And I hope
that a lot of people in the keto
community know that the ketogenic diet,
the the actual word ketogenic diet, was
founded in 1930 at the Mayo Clinic as a
treatment method for children with
seizure disorders, epilepsy. How did
they figure that out? Because that does
not seem like a super obvious, at least
for me as a lay person, not a super
obvious conclusion to draw that that's
sugar based. Well, what they found was
that
children who had severe epilepsy spent
so long post-seizure and it's got a
medical term called postictal state
where
they're okay, they're not seizing, but
they're not really waking up.
Um and
they spent so many
so many hours in this post-seizure
state, repeated seizures, and then just
kind of
in a coma that they didn't eat very
much. And they were literally starving.
And they made the observation
that kids who were starving because they
had so many seizures
paradoxically had less seizures the more
they were starving.
And so researchers first at Boston, and
then at the Mayo Clinic, said, "Wait a
minute.
We know that ketones happen when you're
starving. That's when it happens.
So, it must be that ketones are doing
something to these kids' brains.
And are there other ways other than
starvation to produce ketones? And one
of the ways they found was, well, look,
if you deny carbohydrates
and really cut back on proteins and give
kids mostly fat to eat, then they will
make ketones even though they're not
starving to death. These kids did very
well on a ketogenic diet.
50% of them had complete seizure
control.
Uh recently, I've got a young man who's
a high school student
who
despite two meds, uh was still having
seizures so bad he was in special ed and
falling way behind.
His mother brought him to me in my
clinic in Santa Barbara. And
we put him on my ketogenic diet, which
is kinder and friendlier.
And the kid woke up. He's off of his
medications. He's now playing
any kind of keto before that?
No. Okay. Not at all. So, went from meds
to meds and keto or keto only? Keto
only. We took him off his meds.
Wow. He woke up,
uh wasn't, you know, drugged. And now
he's taking advanced classes and he's
actually playing soccer uh for his
soccer team in high school. Mhm. And he
could not do any of this. I mean, can
you imagine a kid with a severe enough
seizure disorder being on two meds now
actively playing high school soccer. Um
just by changing
back into vogue? So, I had somebody on
the show when this was still Inside
Quest. His son had
um
seizures, epilepsy, and he said they
didn't even tell him about ketogenics
because they said compliance was so low
that they didn't even mention it to
parents anymore. And he had to like go
do his own research and he found some
obscure article in like a journal from
the 1950s.
He was like, "Hold on a second." Did the
same thing, put his son on, boom, total
total remission. Yep.
Has not had a seizure in like 20 plus
years.
Yeah, well, that's a great point. So,
the ketogenic diet, the high-fat
ketogenic diet for seizures once
phenobarbital and Dilantin came and the
new seizure drugs came
uh it died uh because
kids couldn't do an 80% fat diet. They
actually had growth retardation
and they just wouldn't follow it. So,
what happened actually in the '80s
was people discovered medium-chain
triglycerides, MCT oil.
And this oil was the miracle oil that
some of these TV shows were done.
And what they found was that MCT oil
could
convert into ketones in the liver and
we'll get into why why that happens. And
they found that if you put kids
on a MCT oil-based diet
you could give them far less MCT oil,
far less fats, and you can give them
tons of carbohydrates, which
I'm a parent and grandparent now, and
you cannot deny children carbohydrates
as much as you as much as we think we
should.
So, these kids could have more
carbohydrates, more protein, they could
grow and develop normally, but they'd
still stop their seizures. Yeah. How
much do you have to reduce the
carbohydrate intake if you're using MCT
oil? You can't just You can't just add
MCT oil, right? You still have to
modify. Really? So, no matter how much
carbohydrate I'm intaking
What's amazing is, and this is human
studies, you can take a tablespoon of
MCT oil, which is not much, and you can
actually, within a half an hour,
generate a generous amount of ketone
body production from the liver.
0.5 At least 0.5, 0.8, 1. Wow. From 1
tablespoon of
MCT oil. I've never tried it, so I can't
deny it, but man, knowing how hard it is
to produce ketones without it, that's
scandalous. Yeah, and that was the
beauty of this. And so, when I, you
know, I actually started writing this
after after I wrote The Energy Paradox,
which we've talked about,
and I was trying to explain,
you know, how where ketones
fit in to all this in terms of energy
production. And as you know, I like to
back up what I say with research, either
my own or somebody else's.
And as I was trying to explain how
beneficial ketones were for energy
production, for protecting mitochondria,
for turning mitochondria into
fat-burning efficient machines,
and I started looking at, you know, the
research to back up what I was saying, I
went, "Holy cow. Uh I'm wrong this and
so is everybody else.
Ketones aren't some fantastic
that? Most people cannot, especially if
they've talked about it publicly, they
can't change their position.
Hopefully that's make makes me one of
the more believable nutritionists around
because
I'm always willing to say I was wrong.
So what was the first thing that made
you go, "Wait a second, I don't think we
were on the right path."
Well, one of the most, you know, amazing
things. And I I I've had a ketogenic
diet in all my books for last 20 years.
I've had a ketogenic program for my
patients.
And looking back, when you actually look
at the list of things I allow on my
ketogenic diet, there's tons of
carbohydrates. And yet it works
extremely well.
And I've been
using MCT oil for my program from kind
of day one.
So I and I've written that ketones make
you an efficient fat burner.
And I firmly believe that. So I was
going to prove how ketones actually make
your mitochondria incredibly efficient
at making energy. Right. And
probably the best way to explain this is
we know that ketones
were discovered during starvation.
And nobody quite figured out why they
were produced until the 1930s.
But then, how ketones came about to be
known what they did really started in
the late 70s, 80s, up to the year 2004
at both Harvard with George Cahill and
Dr. Owens and Dr. Veech at the NIH.
And they wanted to know, okay, well,
what were ketones doing? They're We We
do things by accident.
And so they started to look at okay,
human beings clearly have starved for
multiple times.
We didn't have
As a species.
As a species. We didn't have
7-Elevens next to us. We We didn't have
fast food. We We didn't have
refrigeration. We didn't have storage
systems. And we had to find or kill
food. And there were famines and there
were times not much food.
So we were designed when we found food
to store a lot of it as fat.
And I've written about this in previous
books. Great apes, interestingly enough,
only gain weight during fruit season.
And fruit season doesn't happen
year-round in a jungle. It really only
happens in the summer and early fall.
We gained weight because the winter and
spring was actually times of less food.
So it became beneficial to
take fruit and convert it into fat so we
can make it through the winter.
And that
defect, it's actually a genetic mutation
that allowed great apes to do that, we
inherited as well. So we're really good
at storing fat.
In fact Yes, we are. Yes, we are. In
fact, we're
I'm better than most.
We're called the fat ape for a reason.
We We We best all apes at at storing
fat.
So when we don't have any food,
normally, and I talk a lot about in this
book and you and I have talked about
this,
most of us should have metabolic
flexibility in our mitochondria. And
mitochondria are the little
energy-producing organ- organelles that
take we the food we eat and produce ATP,
our energy currency. And mitochondria,
for anybody that doesn't know, are like
aliens inside of our cells. They have
their own DNA, which is crazy, and I
still don't understand how that's
possible, but nonetheless, it is true.
And at some point two cells combined and
they were able to handle oxygen by the
mitochondria wrapping inside of the
cell, which is bananas. There's actually
a gaggle of them inside of every cell.
Yes, there's bunches of them. Unlike our
high school biology textbook that might
have said shown one or two mitochondria
per cell, there can be thousands of
mitochondria. And they're actually
engulfed they're engulfed engulfed
bacteria from 2 billion years ago.
And they actually carry or write their
own DNA. And the cool thing about that
and important part of the book is that
mitochondria can divide and make more
mitochondria without the cell they're
living in dividing. So, if a
mitochondria gets the right stimulation,
and that's part of the book, they'll
make a lots more of themselves and to
share the energy load.
So,
getting back to starvation, normally
you and I, hopefully, when we run out of
sugar,
we can immediately start burning free
fatty acids.
And that's the flexibility you're
talking about. You can burn sugar, can
burn fat.
We should be a hybrid car.
If we burn gasoline, we'll call that
sugar.
When the gasoline runs out, we've been
storing energy in our battery.
And when the gasoline runs out, we
switch over to battery power
until we go fill up at the filling
station.
Unfortunately, here's the
weird thing. 50% of normal weight
individuals have no metabolic
flexibility.
50% of us
Just because of modern diets. We're
eating all the time, we are never in a
quote-unquote starvation phase.
Correct.
If you're If you're overweight, 88%
cannot shift between burning sugar and
fat. If you're overweight, uh if you're
obese, 99.5% of people cannot shift to
burning fat as a fuel.
And what's What does that mean? Why does
that matter?
Well, you normally, if you and I stop
eating tonight, uh whenever,
about 8 hours after we stop eating, we
should actually run out of glucose as a
fuel, and we should shift over to
burning free fatty acids and ketones as
a fuel until we get our next meal.
That's normal.
And by 12 hours of not eating, we
actually ramp up ketone production to
pretty much take over our brain's need
for fuel temporarily.
And your brain actually, if it runs out
of sugar, starts dying.
So, the implication for that
brain is never without sugars? Believe
it or not, the brain
normally would run out of sugar in about
8 hours after we stop eating. Normally
runs out of sugar.
And it shifts over to using ketones as a
temporary fuel.
The reason it can shift over is once we
stop eating,
we start
liberating free fatty acids, fat, from
our fat cells.
So, you're saying it would die if we
didn't have ketones? Correct.
Got it. Okay. So, normally, those free
fatty acids come out of fat cells.
Every one of our cells, except the
brain, can use free fatty acids as a
fuel and use them very well.
And this has been, again, proven at
Harvard and the NIH.
Our muscles love free fatty acids. My
research on the heart, years ago, showed
that the heart prefers burning free
fatty acids instead of sugar. It's
favorite fuel. In fact, we protect the
heart during heart surgery by putting
fats into the heart. How? Uh through the
veins and the arteries. I invented
You
You inject fat?
Yeah. Yeah, well, we dissolve it in our
cardioplegia. Yeah. Whoa. So,
um
without that metabolic flexibility, then
what happens?
What happens is what we're discovering
right now is that your brain cannot get
life-saving
ketones to burn as an alternative fuel.
And your brain runs out of glucose as a
fuel because you don't have any
available.
And your brain for several hours a night
until you eat again,
neurons die.
And
there's no doubt that our epidemic
of Alzheimer's and Parkinson's and
memory loss
is
laid at the feet
of our metabolic inflexibility.
Mhm. Okay, so that is certainly
terrifying, but means that we can do
something about it. So, going back to
where we left off. So, we go into
starvation mode, we start kicking off
these ketones. That feels like the sort
of story up to before this book. People
understood that. So,
where do you begin to go, wait a second,
we have a problem here?
Okay, so we can make ketones. We make
ketones from free fatty acids.
They go to the liver and the liver
generates ketones. Now, liver,
interestingly enough, can't use ketones
as a fuel. They are incapable. They
don't have the enzyme to do it. Can it
use free fatty acid? Yes.
Okay.
Liver loves free fatty acid. Which it
gets as fat is oxidized, we get free
fatty acids, and we can snatch them out
of the bloodstream and use them. Right.
And they're a great fuel, fabulous fuel.
So, what everybody thought
But they can't cross the blood-brain
barrier. That's the problem, right?
Cuz they're too big and fat, if you
will.
So,
but as luck would have it, ketone
bodies, ketones, are water-soluble small
fats.
And they can get through the blood-brain
barrier. So, the brain can use ketones
until glucose arrives the next morning
or for several days.
Now, that piece of the puzzle wasn't
known. So, people like Cahill, people
like George Veech, said, "Wow, ketones
are clearly what made humans survive for
a long time because we could use them as
a fuel without burning up our muscle to
make glucose. We can convert muscle
protein into sugar. It's called
gluconeogenesis.
They actually showed that if you
literally had to live on glucose as a
fuel,
your muscles would be gone after about a
week of starvation.
only way for gluconeogenesis to happen
is from muscle tissue. Yeah, but you can
also make gluconeogenesis from breaking
glycerol molecules off of triglycerides
and convert that into glucose. So, there
is a way to get sugar from fat. Got it.
We're really good at turning sugar into
fat. We're really bad at turning fat
back into sugar. We just don't have the
enzyme system to do it.
So, when this ketone was found,
everybody said, "Wow, that explains
everything. We can run on ketones and be
great."
Not so fast.
Dr. Owens at
at Harvard showed that at full ketosis,
Human beings can only meet 30% of their
calorie needs by burning ketones. The
rest have to come from free fatty acids
and glucose.
So, that's kind of weird if they're such
a great fuel.
The brain, it turns out,
even at full ketosis, only 60%
of the brain's needs can be met by
ketones. And the brain still needs 30 to
40% of its fuel as glucose, even at full
ketosis.
So, when I read that research, I went,
"Well,
wait a minute. This is not some super
fuel.
The body doesn't even view it as a super
fuel.
But, we don't do things for, you know,
not a good reason. What the heck are
ketones actually doing that's so
beneficial? And
that's what when I went down the rabbit
hole and came out with Unlocking the
Keto Code. Because ketones are not a
super fuel. They are actually a
signaling molecule
that tells mitochondria to protect
themselves at all costs from damage
and to save themselves at all costs if
you are starving to death.
Because, quite frankly, if we're
starving to death,
if you don't protect your mitochondria
that make energy,
that's the end of us. You die. You're
done. So,
I read a silly little paper. It's
actually maybe the one of the most
important papers I've ever read
by
Dr. Martin Brand in the year 2000. And
it's a simple paper called Uncoupling to
Survive. And I hope all your viewers and
listeners dig it up, you know, check
with Google, it's there.
And what he said was it just
you know, talk about a paradox. And he
said, "Look,
in extremis,
the mitochondria has to survive.
So, the mitochondria
is instructed by ketones
to literally start wasting
a lot of the calories that it would
normally process into ATP
and throw them away.
My brain broke when I read that part of
the book.
I know. And I took down a note. I was
like, "Hold on." And I know you answer
it, but I was like, "There has to be an
evolutionary advantage to this. I cannot
see how in a moment of starvation we
would want to kick off
extra energy and {quote} {unquote} waste
it. At least for me, this is all coming
together at a moment where it feels like
there's these breakthroughs in science
which are all pointing to the depression
of the mitochondria and their ability to
produce energy
in a good way, which is weird. Yeah.
Yeah, I you know, I and most
ketogenic diet experts have always
taught that
you know, ketosis, you teach your
mitochondria to be energy efficient, to
get energy out of every last calorie cuz
you're starving to death. So, you need
to turbocharge and supercharge your
mitochondria to eke out every last drop
of energy. And that makes incredibly
It's intuitive. It feels right.
really good.
But what Brand said, "No, you're wrong.
They do the exact opposite." And you go,
"No, no, no, no, no, no. There's no
food. Why in the world would you waste
food?"
So,
what he showed was and I I have a fun
time in the book talking about the Mito
Club.
Yep. Let's hear about it.
Yeah, so so mitochondria
make energy by
energizing electrons and protons in this
long tube called the electron transport
chain inside of mitochondria.
And I likened this long tube to the
hottest hippest club in town where
people go to the club to couple, to meet
someone.
To hook up. To hook up and if they hook
up, they exit the club and
let the imagination run.
That's my energy. Get some energy. Get
some energy.
And this club is is hot, it's crowded,
there's there's hormones through the
roof, there's alcohol flowing and
everybody's bumping into each other and
everybody's trying to couple with
everybody else.
Normally
oxygen should couple with a proton
and exit the back door and make ATP.
Oxidative phosphorylation, some people
have heard.
But because it's crowded and there may
not be a lot of available protons that
people want to couple with
electrons could also couple with oxygen
and they're not supposed to and they get
they make nasty free radicals and
reactive oxygen species
and punches start being thrown, chairs
are flying and beer is flying and
there's bouncers in the club to try and
calm this down and everybody knows about
antioxidants.
Turns out there's only two antioxidants
in mitochondria.
Surprise, surprise.
melatonin, which most people don't even
know is an antioxidant, the sleep
hormone, and glutathione.
Um there's only two. So, they're the
bouncers. So, getting back,
that club is hot, it's energy, there's
damage being done. You got to keep this
club under control.
So,
everybody's trying There's only one way
out of this club through this back door.
But, people are getting frustrated, and
they want to leave because
it's a bad day to couple, and they're
not coupling.
So, it turns out there's emergency exits
in the club, where things get too hot,
if people get too frustrated, they can
push open an emergency exit and leave
the club.
The mitochondria have emergency exits.
There's actually five emergency exits in
our electron transport chain.
And they're controlled um by uncoupling
proteins.
Now,
I spent 6 months trying to figure out a
better word for uncoupling. Uh
and cuz people think of uncoupling like
Gwyneth Paltrow getting divorced. I
uncoupled my marriage.
Uh
but uncoupling means that instead of
joining a proton with an oxygen molecule
to make ATP,
the proton leaves the club, leaves the
mitochondria without making energy.
So, what Brand showed, and others have
subsequently confirmed, is that
mitochondria,
at rest, you and I sitting here,
30% of all the calories that enter our
mitochondria right now,
are going through these emergency exits
and never making ATP. 30% just here.
Normally. Normally. And you say, Not in
starvation mode, just normally.
You and I sitting here. And you go,
"What a stupid idea. You and I have to
eat 30% more calories every day
just to make our normal amount of ATP."
And you go, "Oh, why would I do that?"
Well, it turns out
generating heat is what those calories
do. And you and I are warm-blooded
animals. And in fact
the only way we generate heat?
It's actually the only way we generate
heat.
Okay, so the emergency exit is how we
stay warm. Correct.
And it turns out that
brown fat, which a lot of people have
heard of,
brown fat is our energy, our
heat-producing fat. Does that mean that
brown fat has more mitochondria in it?
It's so many mitochondria that it looks
brown under the microscope.
Okay. They are crammed in there.
And we thought brown fat only existed in
babies to keep them warm. Uh and there
is a lot of brown fat in babies. But we
now know that you and I actually have
brown fat, and the more brown fat we
have, the healthier we are. And we'll
get to that. And what Brand eventually
showed is
if you look at the super old people,
folks 105 and above, who are thriving,
they have the most uncoupled
mitochondria of anybody.
And you go, "What?
So, wait a minute. Uncoupling
mitochondria must have huge benefits
that none of us knew about." Let's get
back to ketones. So, ketones tell
mitochondria that trouble is a foot
and to protect yourselves at all costs.
So, the first thing you do,
mitochondria,
is don't damage yourself by making
energy. And making energy is very
damaging to my mitochondria.
So,
waste
you know, making energy. Waste more
calories. Protect yourself.
Cool it a bit.
But secondarily, that makes no sense
because you got to have enough ATP to
survive.
So, simultaneously,
the mitochondria is instructed to make
more mitochondria to share the workload.
Now, think about this.
The Iditarod is, you know, being run and
let's have a one
one dog dog sled.
Well, yeah, the dog can pull the sled,
but he's not going to go very far before
he tuckers out.
But if you hook six dogs to the sled,
each dog has a sixth of the workload
that one dog has. So, they can go a lot
farther
with six of them doing less work.
Now, the consequence of that is they
actually are going to eat more food than
the single dog to accomplish the same
thing.
So, now you go, "Wait a minute. A
ketogenic diet is a really good weight
loss diet."
Can't be because the mitochondria are
more efficient because if they're more
efficient, they can get more calorie
more food more energy out of calorie.
energy. Right.
And in fact, you lose weight.
So, what happens is you actually in a
ketogenic diet, if you do it right and
uncouple your mitochondria,
you waste fuel. You feed six dogs
instead of one.
And that's where the benefit of ketosis
comes from.
What's up, everybody? Tom Bilyeu here
and I have a question for you. At the
start of this year, you likely set some
goals for yourself and I want to know
how those are going. Most people give up
on their goals and dreams by February,
but I have some good news.
If you're not on target to succeed at
the things that you want to achieve this
year, it's not too late and trust me
when I say you are not alone. Everyone
gets stuck and loses momentum towards
their goals at some point, myself
included. If you know what you're doing
and you're willing to take massive
action though, you can get back on
track. The trick is not to think about
being stuck as a problem with your
motivation or to interpret your lack of
results that you're getting as a sign
that you're not smart enough. The trick
is to recognize that the game that
you're playing is a game of
neurochemistry. It's about managing the
way that you think about yourself and
framing things in the right way. If you
use your brain more effectively, repeat
things that empower you, you can
actually find ways to solve problems
faster,
create positive habits and behaviors
that you know are going to help you
reach your goal. I want you to take
massive action right now, so I pulled a
workshop from Impact Theory University
called the six steps to getting unstuck
and I want you to watch it right now.
It's going to help you get back on track
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this year your most successful ever. To
watch it, go to unstuckclass.com
and register for access. I'll walk you
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get through obstacles and make fast
progress towards my goals whenever
something slows down. All right, guys.
Enjoy this and be legendary. Take care.
Okay, so now I'm trying to pin down the
evolutionary advantage. So, I'm in
starvation mode.
Yep. That's when I'm producing ketones.
Why on earth would starvation mode
trigger my mitochondria to waste more
energy and become less efficient? To
protect themselves at all costs. So,
it's purely a protective mechanism. It's
an evolutionary protective design to
save the mitochondria at all costs. Dear
human body, I cannot keep taking this
rate of damage for you.
I have to conserve. The only way to
conserve is to release more of these out
of the emergency exit, so I don't have
to process them, take on the free
radicals, and all the damage. So, go
out. My temperature theoretically should
feel like it's going up subjectively. Uh
believe it or not, a lot of people do.
And we'll we'll get into the ammunition
workers in France and Germany in World
War I, which actually proved his theory.
Nobody knew that that proved his theory,
but uh that's what happened to them.
Yeah, you actually should raise your
temperature. Um
just as a a fun fact, ever notice when
you have a cup of coffee or a tea, even
if it's iced coffee or iced tea,
uh many of us go, "Gee, you know, I'm
kind of glistening even though I'm
having an iced coffee." Uh you actually
produce more heat having a cup of coffee
because both the caffeine and the
polyphenols in coffee and tea
uncouple your mitochondria and have them
generate heat.
Huh. So interesting. Okay, so I my
mitochondria is protecting itself by
uncoupling. They're getting rid of this
stuff.
They're making more of themselves Okay.
to share the workload.
Each one is working less hard so that
they aren't being damaged.
Right. But you're recruiting more
mitochondria. And the amazing thing is,
during ketosis or other things that
stimulate mitochondria to uncouple,
you actually generate more mitochondria.
And mitochondria in starvation will
devote all the protein manufacturing in
in cell
to make more of their proteins and
they'll actually not make muscle
protein.
Screw the muscles, they're energy hogs.
We're not going to build muscle if we're
starving. We are going to build more
mitochondria to work less hard. Screw
everybody else. All right, here's where
this gets complicated for me though. So,
that all makes sense. I'm I'm tracking
with that. Uh in the book you talk about
how it does um the way that it further
stops the muscles from taking the energy
is that it makes you insulin resistant.
So, and when you look at like what
happens with fructose and uric acid,
there's a similar thing going on, which
is hey, raise insulin, which seems like
it's bad in a modern context, but from a
survival famine context actually
brilliant because it traps the fat,
makes you use it more slowly, it's hard
to get out.
Yep. To make sure that you don't burn
through the energy and end up dead, but
the munitions facility that you alluded
to,
the way that we end up dead real fast is
this process on a runaway train. Is it
just that I can exit people out the
emergency exit way faster, way more
dramatically than I can stop the fat
from pouring out? Walk people through
what happened in the munition factory.
Okay.
Um
in World War I,
it was noted that munition workers in
France and Germany who were assembling
shells and working with gunpowder
were extremely thin, even though they
were eating huge amounts of food.
And they could not keep weight on.
And they were running a temperature 24
hours a day.
And it wasn't until the late 1920s when
they realized that these guys' a
metabolic rate, BMR,
was elevated. And it took a couple of
doctors at Stanford in 1930
to say, "Son of a gun, we've discovered
the compound that did it in these
munition workers." And it was called
2,4-dinitrophenol.
And keep that word phenol in everybody's
mind. We'll come back. Oh, yes, it will.
And it's called DNP. So, they actually
said, "Oh my gosh, DNP raises the
metabolic rate,
and it is the world's best weight loss
drug that nobody's ever heard of."
So, in the 1930s, in America alone, over
100,000 prescriptions for DNP were
written by physicians.
And it was a miracle weight loss drug.
You took a little bit of DNP every day,
you'd lose a pound a week.
That's insane. But, if you took a lot of
DNP, you could lose 5 lb per week. You
talk about a miracle. And just a little
bit more, and you can be dead. Yeah, and
now here's the problem.
What happened was, as more and peop-
more and more people got on the
bandwagon and saw they could lose a huge
amount of weight,
people were running temperatures. They
started noticing that thyroids were
having a problem. Then, a lot of people
developed cataracts. And this was before
cataract surgery.
And as I joke, can you imagine being
able to fit into your skinny dress and
not see how good you look in the mirror?
Uh cuz you're blind.
And then people started dying, dying
like flies. And so, the FDA, uh in the
late 1930s, 1938, as one of their first
official acts, banned DNP for sale.
But, it turns out that in 1978,
it was discovered that DNP worked
because it was the first known oral
mitochondrial uncoupler.
And DNP was so effective because it
literally turned human beings from being
Toyota Priuses, which are very fuel
efficient,
to being Ferraris, which are incredibly
fuel inefficient.
Now, as I talked about in the book,
there might be reasons you and I would
want a Ferrari rather than just wasting
fuel, but the point is we these people
threw fuel
out all these side exits of their
mitochondria. What does it become when
it takes the emergency exit? It actually
produces heat. That's why all these
people were running a temperature.
Kicks off as just heat, nothing else.
In fact, looking back,
um
at Gundry MD, we have a number of
products with thermogenic compounds.
Compounds that we've known for years
produce thermogenesis.
Make heat.
Lo and behold, every one of these
compounds uncouples mitochondria. And lo
and behold, that's why they're
thermogenic compounds. They make heat.
Okay, so now I think we come back to
phenols, polyphenols. Specifically,
what are those, why do they matter, and
how do we begin to get into the new
friendlier ketogenic diet? So,
uh
DNP, dinitrophenol.
Phenol. Hmm, where have I heard that
word before?
Polyphenols.
Polyphenols are used by plants to
protect their energy producing
organelles, which are their
mitochondria, but they're called
chloroplasts.
So,
let's go back to us for just a second.
Oxygen, we have to have oxygen to make
ATP normal.
Oxygen is very damaging to our
mitochondria. All these free oxygen
radicals, blah, blah, blah.
So, we can't live without oxygen, but we
can't live with with it. And so, we have
to,
you know, sop up the damage the oxygen
it does.
Plants, on the other hand, have to have
sunlight. And they kind of reverse
engineer. They take photons from
sunlight, combine it with CO2, and they
make glucose and ATP.
Sunlight is damaging to the plant
mitochondria, the chloroplast.
So, they actually generate polyphenols
to protect their mitochondria from
damage, their chloroplast.
We get to see every fall the polyphenols
in plants because the green chlorophyll
goes away, and all those beautiful
colors of yellows, oranges, reds, dark
colors are the polyphenols that the
plant generated to protect and uncouple
the mitochondria plants.
And it turns out the way they protect
the mitochondria is to uncouple them.
To make them work less hard.
And the less hard their mitochondria
work, the less damage sunlight does to
them.
Now, we eat plants,
and the polyphenols in plants do two
things. Number one, we don't absorb
polyphenols from plants very well.
But our bacteria actually love
polyphenols. They're actually a
prebiotic fiber for bacteria.
And the bacteria then convert those
polyphenols into absorbable polyphenols,
which then go to our mitochondria and
uncouple them.
It's I can Every time I say this, I hear
The Lion King, The Circle of Life
playing in my head. You know, you know,
we eat the plants, but then we die and
the plants eat us.
So, the plants are protecting themselves
with polyphenols. When we eat the plant
polyphenols, we uncouple our
mitochondria the same way.
There's the benefit of polyphenols.
Okay, so
they are technically we're getting like
a metabolite of the bacteria processing
the polyphenols.
Correct.
It It isn't showing up as a ketone. So,
how many things trigger the uncoupling?
So, we know ketones do it as a signaling
molecule. We've got a whole host of
polyphenols. Are some polyphenols
better? So, a whole host of polyphenols.
You You choose the polyphenol, I'll show
you a paper that shows the action of
that polyphenol is to uncouple
mitochondria.
I'll give you
from last week.
Um
one of my compounds at Gundry MD is
called Total Restore, which is a
my humble opinion a really good gut
repairing compound, gut wall compound.
One of the things that I used long
before I used that was a compound called
wormwood. And people probably have heard
of wormwood. It's in a lot of compounds
to repair the gut.
And just for fun, last week, I I saw a
paper that a type of wormwood uh worked
by uncoupling mitochondria. And I went,
what the heck? I didn't know wormwood
could do that. So, I
started Googling wormwood and uncoupling
mitochondria. Do this in your spare
time, great fun.
And lo and behold, five papers come up
that wormwood mechanism of action is
uncoupling mitochondria.
And so, you start going down this this
rabbit hole
and you find out that there's literally
just one thing
that makes all the difference in a
person's health
and that is hitting the right dose
of mitochondrial uncoupling and getting
the compounds that will do that.
And just to pique everybody's interest,
there's an interesting theory of aging
called the rate of living hypothesis.
And the rate of living hypothesis
is that
basically you only have so many calories
that you're granted in your life. They
can process. Yeah, if you use up those
calories quickly, that's the end. If you
use up those calories slowly,
that's great. And it fits pretty good.
Little tiny animals don't live very
long. They have really super high
metabolic rates.
Big animals like an elephant
live a long time and they have fairly
low metabolic rate. The problem with
that theory is birds.
Birds are very small in the scheme of
things.
But a hummingbird in captivity, which
has one of the highest
basal metabolic rates measured, can live
10 years. A parrot can live 80 to 100
years. Yeah.
Guess what
birds do better than any creature?
Mitochondrial uncoupling.
Bingo. There it is. They have the most
uncoupled mitochondria of any species.
Okay, now because I've read the book, I
feel like I'm cheating a little bit, but
uh so birds probably are dinosaurs that
crossed. And so are we assuming that
due to asteroid impact
they became birds because they were
already good at mitochondrial
uncoupling, and that's how they were
able to survive that period? I think
it's a beautiful theory. I don't think
anybody's actually, you know, actually
spouted that out loud.
But, you know, I mean, they are the last
dinosaurs.
That's very interesting. So, given that
we are descended from mammals that also
survived that period, it certainly
makes a lot of sense that we would have
survived if we already had that ability.
And then I know humans, like by the time
we became humans, there were twice that
I think we were forced through these
really narrow Yep. periods where there
were very few humans left. Yeah, we were
down 6,000 years ago, we were down
probably to one woman and probably a few
guys. It got that small?
Yeah, she's mitochondrial Eve. All of us
can be traced back to one female. Woah.
Yeah.
All of us. And, you know, just just so
everybody knows, mitochondria actually
uh they have their own DNA, their own
genome.
Mitochondria are only transmitted
from the female.
Uh
you and I know, we're just drones. We we
have no useful purpose other than being
a drone.
So, we we don't give any mitochondrial
DNA. So, you can actually look at
mitochondrial DNA.
So, there's mitochondrial DNA in the
egg. Yep.
That's crazy.
Yeah, but there's none in sperm.
Uh no mitochondria go into the egg.
That's really
And what's really cool, and I've talked
about this before. I mean, what's really
We get all of our microbiome initially
from our mother passing through the
birth canal, hopefully. Yep. And so, our
bacteria
are female.
And our mitochondria are female. And as
I've talked about, and other people have
proven,
these female bacteria talk to their
sisters, the female mitochondria. And
they literally text each other. And that
language
was discovered, and got the Nobel Prize,
um
of postbiotics. And I talk a lot about
postbiotics, as well. The communication
system between the microbiome and their
sisters, the mitochondria. And it's
like, I mean, it's crazy.
I mean, the design
You just have to sit there and and
marvel at the design. And then you start
marveling at, "Okay, how do we tweak the
benefits of this design?
How do we maximize the benefits of that
design?"
And that's why
one of the cool things is, yeah, we can
uncouple mitochondria
via a ketogenic diet, a high-fat
ketogenic diet. No question about it.
But do we want to do that 24/7? No,
because eventually, like you mentioned,
you will become insulin resistant to
stop the muscles from stealing the
calories. And you'll eventually start
losing muscle mass, eventually, if you
continue 24/7 ketosis for a long time.
So, you want to cycle in and out of
ketosis on a 24-hour basis.
And
book shows, "Okay, here's some tricks.
Um
let's do intermittent fasting,
time-restricted eating. Let's
stay in ketosis for 15, 16 hours a day.
So, what window do you recommend? So,
uh Dr. Mattson from the NIH, from the
National Institutes of Aging,
wrote a beautiful paper a couple years
ago, um that shows probably 6 hours is
the best window. Okay. 6 hours of
eating. Um 18 fast, 6 eating.
16, yeah, fast 6 hours.
Does he have an opinion on number of
meals in the 6 hours? It actually
doesn't matter. And I go into that
again, there's a lot of fun nerdy stuff
in here.
Uh a guy by the name of Rafael de Cabo,
also at the NIH, showed that
all the calorie restriction literature,
and calorie restriction, you know,
cutting 30% of all the calories you eat
every day,
is really the only
bonafide proven way to extend lifespan
across multiple species.
The problem is it's unsustainable.
Um there is a calorie restriction
society in the United States. Uh It's
hilarious. They're they're miserable
individuals. They're cold. They They're
miserable. They're hungry. Uh Why aren't
they warm? Because if they're putting
themselves in starvation mode, they're
triggering this whole thing.
They've literally now gone into a
thrifty gene mode. They're so far down
the line. You pass through this.
Correct.
Then, you know, they're they're so far
down the line. But de Cabo said, "Hey,
wait a minute. I think we've got this
calorie restriction wrong
because we're controlling the animals'
food, and we're putting the food in
their cage, and we're giving them X
amount of food. I wonder
if the time of day that we put the food
into the animals' cage, and the time
they're eating the food, and the time
they're not eating the food really what
the difference was.
So, he designed an experiment uh which
is really kind of cool. He designed
experiment based on the rhesus monkey
studies
of the University of Wisconsin and the
National Institutes of Aging.
And these were calorie restricted
monkeys, but only the University of
Wisconsin studies showed
extended longevity. The
uh NIA study showed no extended
longevity. And they had different diets.
And he said, "I'll tell you what. I
think you guys are both wrong. I bet you
it's the time of eating."
So, he designed an experiment where
they had a calorie restricted group of
both diets for rats.
But he had a third group that
that all their food came out at 3:00 in
the afternoon. And
animals ate it quite rapidly. And they
still actually they ate up all their
calories in about 8 to 12 hours and then
they were fasting about 12 hours at
least. That's a long time for a rat.
They compared them to rats who got their
food all day long and all night long.
The rats who got food all day long all
night had no metabolic flexibility. They
couldn't make a change between burning
sugar and burning fats.
Right. The rats who got full calories
but had it put out at 3:00 in the
afternoon
had metabolic flexibility.
The rats who were calorie restricted
also had metabolic flexibility.
So, then they looked at longevity.
The rats that had a full day's calories
but ate at 3:00 in the afternoon
lived 11% longer than the rats who got a
full day's of calories that they ate all
day and all night.
Mhm.
Now, for us that equates to a 10-year
increase in lifespan. Now, is that on
the same amount of calories? On the same
amount of calories.
That's crazy.
Well, it's not so crazy because the
Italian athlete study
proves the point in humans. And what's
that? This is a really cool study. They
took Italian cyclists and they put them
on a training table for 3 months. And
most people know what a training table
is.
You guys, here it is. This is This is
the food you're getting.
And everybody had they ate the exact
same food. The exact same amount of
calories.
All they did is change
how often the guys got to eat. Mhm. One
group,
they got three meals a day. One group
got breakfast at 8:00 in the morning,
got lunch at 1:00 in the afternoon, had
to finish dinner by 8:00 at night. A
12-hour eating window.
Other group, same food,
got breakfast at 1:00 in the afternoon,
lunch at 4:00 in the afternoon, and had
to finish dinner at 8:00 at night. Same
amount of calories.
Followed for 3 months. Same exercise
program.
The group that ate in a 12-hour window
stayed the same weight. The group that
ate in a 7-hour window lost weight. Lost
significant amount of weight. But their
performance was the same.
Here's the best part, maybe the
take-home message.
You and I know there's
probably our best method to predict
longevity is a blood test called
insulin-like growth factor one, IGF-1.
Probably the best indicator of whether
mTOR is activated or not.
Um the guys who ate the 7-hour window,
their IGF-1s plummeted. Mhm. The guys
who ate the 12-hour window had no change
in their IGF-1.
So, the take-home message was it wasn't
the calories the guys were eating.
It was the time period that they were
eating the calories. Now, why is that?
Early on I mentioned that most of us, if
we have metabolic flexibility, start
making ketones about 8 hours after we
stop eating. And by 12 hours, we've
really started, you know, kicking up our
ketones.
So, those are the 12-hour guys. They're
just kicking into ketone big time, and
then they Right.
stop the ketone production.
The other guys, they're kicking into
ketones, and then they're waiting
another 5 hours to get their first bite
of food. So, they're producing ketones 5
additional hours. So, they got 5 hours
every day to uncouple their mitochondria
before they go back and stop the
process.
So, it's the cycling in and out of
getting the benefits of ketosis without
full ketosis that makes all the
difference.
It's amazing. Okay, so now that we
understand the mechanism, which at least
for me is huge. Once I understand it, I
don't know, there's something happens in
my brain, I can really get behind it. Um
give us a quick thumbnail sketch. Animal
meat? Plant? Like, how should we be
eating? What's What's that look like in
a rough nutshell? Well, here's one of
the big revelations for me.
Um
as you know, I
I'm the only nutritionist that spent
most of my career living in a blue zone,
Loma Linda, California. Uh it's the only
blue zone in the United States, by the
way. Sad. And one of the things that
shocked me when when I
moved to Loma Linda
was the amount of fat
and particularly dairy fat in the
Adventist diet.
And I met with a nutritionist at the
hospital.
And because
the the food in the hospital cafeteria
and Adventists are vegetarians or
vegans.
About
36% of Adventists are vegetarians.
About 5% are vegans.
A number are pescatarians. But so great
deal of the Adventists are vegetarians
or at least pescatarians.
Right. And yet 50% of their diet was
dairy fat.
From Whoa. yogurts
50%? 50%
yogurts
and cheeses.
And I'm going, you you're killing, you
know, my my patients. You know, I'm a
heart surgeon. You know, I'm a
cardiologist. You're killing my
patients. They go,
"No, we're not. We're the longest living
people in the United States. You know,
do your homework."
I go, "You're
You're killing our patients."
So, as I was researching this book,
I said, "You know, the Adventists eat a
lot of cheese and dairy."
Let's look at the other blue zones. So,
you look at Sardinia, which is another
blue zone.
You look at the Nicoya Peninsula with in
Costa Rica, which is another blue zone.
You look like at Icaria, which is
Greek island.
And lo and behold, the Sardinians are
unique
in that
the Sardinians are base basically two
populations. There's the folks who live
up in the mountain
and the folks who live down by the sea.
It turns out only the people who live up
in the mountain have longevity. I see,
that's interesting. And they're sheep
herders and goat herders. And they eat
huge amounts of goat and sheep cheese.
The folks who live down by the sea don't
aren't goat and sheep eaters and they
don't eat goat and sheep cheese.
So, there was a beautiful paper. We
didn't put it in the book, but I'll tell
you that showed that the difference was
the fact that these guys were eating
goat and sheep cheese.
So, now you go, "Well, wait a minute.
What's so cool about goat and sheep
cheese?" Something in there that's
uncoupling mitochondria? I have a hunch.
got it. It turns out that
30% of the calories in goat and sheep
milk are medium-chain triglycerides,
MCTs.
In fact, most of the MCT fats are named
after the Latin word for goat, capra.
There's capric acid, caprylic acid, uh
goat.
Because goat milk and sheep milk have
tons of MCTs. And remember, MCTs are
unique in that they go directly to the
liver and generate ketones.
So, these guys were generating ketones
just by eating goat and sheep cheese.
Let's jump to the Nicoya Peninsula. Now,
a lot of bean eating and corn eating in
Costa Rica and on the Nicoya Peninsula.
But, what's so unique about the Nicoya
Peninsula is that they're goat and sheep
herders. And there's a beautiful paper
that showed the difference is the goat
and sheep cheese, not the beans and
corn.
But, calves don't do it for some reason.
Nope, they don't make MCTs.
Hm.
Let's jump to Ikaria.
Two factors in Ikaria.
They're goat and sheep herders. They
have yogurt every day. They have goat
and sheep cheese every day. And they eat
a weed, a common weed called purslane,
as a major part of their diet. People
see purslane growing in sidewalk cracks
all the time. It's uh moss roses,
portulaca, that people have in their
gardens.
They eat it as salads. It turns out that
purslane has an amazing short-chain
omega fat called alpha-linolenic acid
that I profile in the book.
Alpha-linolenic acid is magnificent for
uncoupling mitochondria.
So, it turns out that four of the five
blue zones get their benefit by
uncoupling mitochondria.
And it turns out that the Okinawans
85% of the ancient Okinawan diet was a
purple sweet potato.
It wasn't rice. They don't do it. It
wasn't soybeans. They only use miso.
It was the purple sweet potato, which is
full of the purple polyphenols and
have any more?
Now, the Okinawans are eating a Western
diet.
But so, all of these guys were
uncoupling their mitochondria.
All right. So, eating goat and sheep
cheese,
Yeah. purple Okinawan potatoes, and
we're going to uncouple until the end of
time.
It basically, yeah. So, I mean, the
great thing is you don't have to suffer
eating an incredibly boring high-fat
diet if you
have goat and sheep cheese. My wife and
I literally have goat or sheep cheese
every night before dinner now. But
you're plant-leaning, right? So,
Yeah. But, you know, again, when I when
we talk about eat the rainbow, and
everybody talks about eating the
rainbow, what we're actually saying
is eat polyphenol-laden
plants. That's literally what we're
saying cuz the rainbow are those
polyphenols.
Right.
And I go into the ancient spice trade
from the Middle Ages. Yes, you do. And
it turns out you look at those spices
that people were ready to pay exorbitant
amount of money for. In fact, you asked
an interesting question in the book and
you said, "Was this the original drug
trade?" Yeah. And that's interesting cuz
when you start to learn the history of
like the spice wars, like people were
killing people in like genocide levels
for spices.
and in fact, 50% of the
people on these ocean voyages on for the
spice trade died.
Jesus. And so
It had to be something pretty
worthwhile.
This was drug trade and they were
the trade they were actually doing was
for polyphenols.
I mean, for instance, cinnamon was huge,
cloves were huge. And I even have a fun
chuckle, um the gift of the Magi uh in
the Bible, uh two of the three gifts
were actually frankincense and myrrh,
which are polyphenols and both are shown
to uncouple mitochondria. So
interesting. They brought the little
baby Jesus mitochondrial uncoupler.
Yes, they did. Yes, they did.
It's really incredible.
Dr. Gundry, this is phenomenal. The book
was really, really interesting. Thank
you so much. Where can people get the
book? Where can they follow along with
you?
Uh hopefully everywhere books are sold,
amazon.com, barnesandnoble.com.
Please go to your local bookseller. They
need your help. The pandemic's been a
disaster for them.
They'll have the book. I've had multiple
New York Times bestsellers. They stock
my books and they'll stock this one. Um
yeah.
And then your 200th episode's coming up.
200th episode of the Dr. Gundry podcast
is coming up. So wherever you get your
podcast, we're on PodcastOne, the
largest podcast carrier. Um
Yeah. YouTube, that's where I take it
in.
Yeah, I got two YouTube channels. Find
me on Instagram, please. Um find me at
drgundry.com,
find me at my supplement and food
company, uh
gundrymd.com.
Hopefully find me. There it is.
All right, guys, the book's incredible.
I really feel like there's something
interesting happening right now with a
lot of these discoveries coming together
around what's happening with
mitochondria,
insulin resistance in an advantageous
way that goes awry in a Western diet,
but it's really, really intriguing. I
encourage you guys to dive into it. I
think it will make it easier to
implement the stuff in your life.
Speaking of things you can implement in
your life, if you haven't already, be
sure to subscribe. And until next time,
my friends, be legendary. Take care.
Peace.