
well I’ll be talking about doesn’t anyway a pathway to healthy societies
anyway a pathway to healthy societies
anyway a pathway to healthy societies and I have taken mitochondrial
and I have taken mitochondrial
and I have taken mitochondrial perspective as a biologist which I’ll
perspective as a biologist which I’ll
perspective as a biologist which I’ll come to in a due course of time what I
come to in a due course of time what I
come to in a due course of time what I put over there you all will agree with
put over there you all will agree with
put over there you all will agree with me that the fast pace of economic
me that the fast pace of economic
me that the fast pace of economic development has not made us immune to
development has not made us immune to
development has not made us immune to disease burden and this disease burden
disease burden and this disease burden
disease burden and this disease burden has been rising along with this disease
has been rising along with this disease
has been rising along with this disease burden has been the stress level which
burden has been the stress level which
burden has been the stress level which has been rising and then what has
has been rising and then what has
has been rising and then what has happened we asked a question to
happened we asked a question to
happened we asked a question to ourselves why is it due to what have we
ourselves why is it due to what have we
ourselves why is it due to what have we done to ourselves that this disease
done to ourselves that this disease
done to ourselves that this disease burden keeps on rising in India the
burden keeps on rising in India the
burden keeps on rising in India the cancer rate wasn’t as high as it is
cancer rate wasn’t as high as it is
cancer rate wasn’t as high as it is today as compared to Western Europe
today as compared to Western Europe
today as compared to Western Europe today it’s matching with that particular
today it’s matching with that particular
today it’s matching with that particular rate and what have we done we have acted
rate and what have we done we have acted
rate and what have we done we have acted as our own enemies how we have acted as
as our own enemies how we have acted as
as our own enemies how we have acted as our own enemies in the process of
our own enemies in the process of
our own enemies in the process of evolution what has happened the
evolution what has happened the
evolution what has happened the evolution equipped us in our genomic
evolution equipped us in our genomic
evolution equipped us in our genomic material the blueprint all of us have it
material the blueprint all of us have it
material the blueprint all of us have it equipped us with variations in our
equipped us with variations in our
equipped us with variations in our genome which are favorable to sustenance
genome which are favorable to sustenance
genome which are favorable to sustenance survival withstanding diseases and yet
survival withstanding diseases and yet
survival withstanding diseases and yet with all this they stowed upon us by
with all this they stowed upon us by
with all this they stowed upon us by Nature we abused it and we abuse it to
Nature we abused it and we abuse it to
Nature we abused it and we abuse it to the extent that today we are suffering
the extent that today we are suffering
the extent that today we are suffering and I’ll give you a glimpse of that so
and I’ll give you a glimpse of that so
and I’ll give you a glimpse of that so how have we
when all of us in this audience have 100
when all of us in this audience have 100 trillion cells in our body
can I go back all of this all of us in
can I go back all of this all of us in this audience have 100 trillion cells in
this audience have 100 trillion cells in
this audience have 100 trillion cells in our body and in these hundred trillion
our body and in these hundred trillion
our body and in these hundred trillion cells we have two kinds of genomic
cells we have two kinds of genomic
cells we have two kinds of genomic materials one is there in the nucleus
materials one is there in the nucleus
materials one is there in the nucleus which is contributed by our parents and
which is contributed by our parents and
which is contributed by our parents and in case of males obviously father
in case of males obviously father
in case of males obviously father contributes Y chromosome so it’s father
contributes Y chromosome so it’s father
contributes Y chromosome so it’s father to some transmission and the mother
to some transmission and the mother
to some transmission and the mother contributes mitochondria to both
contributes mitochondria to both
contributes mitochondria to both daughters and sons mother does not
daughters and sons mother does not
daughters and sons mother does not discriminate fathers do so mother is
discriminate fathers do so mother is
discriminate fathers do so mother is always fair so daughters and sons both
always fair so daughters and sons both
always fair so daughters and sons both get mitochondria that’s why I have
get mitochondria that’s why I have
get mitochondria that’s why I have picked up this mitochondrial perspective
picked up this mitochondrial perspective
picked up this mitochondrial perspective and how it operates and what I have
and how it operates and what I have
and how it operates and what I have shown over here for engineering students
shown over here for engineering students
shown over here for engineering students it’s like a factory the whole body is
it’s like a factory the whole body is
it’s like a factory the whole body is like a factory with number of machines
like a factory with number of machines
like a factory with number of machines operational were there so to a
operational were there so to a
operational were there so to a mechanical engineer I would say well you
mechanical engineer I would say well you
mechanical engineer I would say well you use machine language to understand this
use machine language to understand this
use machine language to understand this and a mathematician along with this
and a mathematician along with this
and a mathematician along with this mechanical engineering student would be
mechanical engineering student would be
mechanical engineering student would be saying well let me use nonlinear
saying well let me use nonlinear
saying well let me use nonlinear mathematics to understand it so you put
mathematics to understand it so you put
mathematics to understand it so you put together non linear mathematics with
together non linear mathematics with
together non linear mathematics with machine language and you understand it
machine language and you understand it
machine language and you understand it well somebody in the electronics would
well somebody in the electronics would
well somebody in the electronics would say sir what do I do in this situation
say sir what do I do in this situation
say sir what do I do in this situation I’ll say well think about grids and how
I’ll say well think about grids and how
I’ll say well think about grids and how the transmission takes place so there’s
the transmission takes place so there’s
the transmission takes place so there’s communication of information from one
communication of information from one
communication of information from one grid to end of the grid and computer
grid to end of the grid and computer
grid to end of the grid and computer engineer says well you didn’t talk about
engineer says well you didn’t talk about
engineer says well you didn’t talk about me I’ll say don’t worry talk about hubs
me I’ll say don’t worry talk about hubs
me I’ll say don’t worry talk about hubs and edges in those hair hubs and how the
and edges in those hair hubs and how the
and edges in those hair hubs and how the communication is transmitted through
communication is transmitted through
communication is transmitted through these hubs that’s how biology has to be
these hubs that’s how biology has to be
these hubs that’s how biology has to be understood today by you youngsters in
understood today by you youngsters in
understood today by you youngsters in future understanding the complex systems
future understanding the complex systems
future understanding the complex systems so we try to understand this complex
so we try to understand this complex
so we try to understand this complex system as a whole and what all goes on
system as a whole and what all goes on
system as a whole and what all goes on over there in terms of biochemical
over there in terms of biochemical
over there in terms of biochemical reactions in terms of synthesis which is
reactions in terms of synthesis which is
reactions in terms of synthesis which is going on in terms of information
going on in terms of information
going on in terms of information transfer from cell to cell from
transfer from cell to cell from
transfer from cell to cell from generation to generation that’s what we
generation to generation that’s what we
generation to generation that’s what we deal with
give me the other one I’m sorry for this
give me the other one I’m sorry for this so there are two levels at which we
so there are two levels at which we
so there are two levels at which we understand genomics one level is that at
understand genomics one level is that at
understand genomics one level is that at the genome level which I said is being
the genome level which I said is being
the genome level which I said is being contributed by both parents and the
contributed by both parents and the
contributed by both parents and the other level is of some modifications
other level is of some modifications
other level is of some modifications which are happening in the genome and
which are happening in the genome and
which are happening in the genome and these modifications are called
these modifications are called
these modifications are called methylations so you have in the
methylations so you have in the
methylations so you have in the double-stranded DNA like this you have
double-stranded DNA like this you have
double-stranded DNA like this you have bases over there these are letters so
bases over there these are letters so
bases over there these are letters so all of us have a three billion letter
all of us have a three billion letter
all of us have a three billion letter long DNA coming from mother and three
long DNA coming from mother and three
long DNA coming from mother and three billion letter long DNA coming from
billion letter long DNA coming from
billion letter long DNA coming from father and there are these four
father and there are these four
father and there are these four alphabets in the DNA four nucleotides
alphabets in the DNA four nucleotides
alphabets in the DNA four nucleotides and they are the ones which determine
and they are the ones which determine
and they are the ones which determine the language of DNA and they are
the language of DNA and they are
the language of DNA and they are organized in a manner along the length
organized in a manner along the length
organized in a manner along the length of this 3 billion letter long DNA that
of this 3 billion letter long DNA that
of this 3 billion letter long DNA that you create landscape ik features in the
you create landscape ik features in the
you create landscape ik features in the genome and all is about those landscape
genome and all is about those landscape
genome and all is about those landscape features like you have natural landscape
features like you have natural landscape
features like you have natural landscape outside you have diverse element or
outside you have diverse element or
outside you have diverse element or there
there
there you can’t overlap them with each other
you can’t overlap them with each other
you can’t overlap them with each other they have their own distinct identities
they have their own distinct identities
they have their own distinct identities similarly in the genome also these four
similarly in the genome also these four
similarly in the genome also these four bases organize in a randomized manner
bases organize in a randomized manner
bases organize in a randomized manner they create their own landscaping
they create their own landscaping
they create their own landscaping features and scientist I’ve given some
features and scientist I’ve given some
features and scientist I’ve given some names to them micro satellites mini
names to them micro satellites mini
names to them micro satellites mini satellites snips single nucleotide
satellites snips single nucleotide
satellites snips single nucleotide polymorphism you don’t have to bother
polymorphism you don’t have to bother
polymorphism you don’t have to bother about that you just remember like a
about that you just remember like a
about that you just remember like a natural landscaping features you have
natural landscaping features you have
natural landscaping features you have features over there now this word
features over there now this word
features over there now this word cytosine this label gets modified and
cytosine this label gets modified and
cytosine this label gets modified and all this modification happens in
all this modification happens in
all this modification happens in randomly but it also can be this is
randomly but it also can be this is
randomly but it also can be this is called epigenetic regulation this can
called epigenetic regulation this can
called epigenetic regulation this can also happen this methylation one of the
also happen this methylation one of the
also happen this methylation one of the epigenetic regulators it can also happen
epigenetic regulators it can also happen
epigenetic regulators it can also happen by dietary habits bad dietary habits
by dietary habits bad dietary habits
by dietary habits bad dietary habits irregular dietary habits or exposure to
irregular dietary habits or exposure to
irregular dietary habits or exposure to chemicals carcinogens mutagens so it can
chemicals carcinogens mutagens so it can
chemicals carcinogens mutagens so it can happen by all this that’s what is why
happen by all this that’s what is why
happen by all this that’s what is why cancer rate is increasing today so there
cancer rate is increasing today so there
cancer rate is increasing today so there is a regulation at our blueprint level
is a regulation at our blueprint level
is a regulation at our blueprint level the DA
the DA
the DA a one regulation is genomic structural
a one regulation is genomic structural
a one regulation is genomic structural so there are some changes happening over
so there are some changes happening over
so there are some changes happening over there and another level of regulation is
there and another level of regulation is
there and another level of regulation is epigenetic and I’ll just use these words
epigenetic and I’ll just use these words
epigenetic and I’ll just use these words maybe in between so you need to
maybe in between so you need to
maybe in between so you need to understand them this is what we are
understand them this is what we are
understand them this is what we are doing so our poor lifestyle we have also
doing so our poor lifestyle we have also
doing so our poor lifestyle we have also the seed entry kind of lifestyle we have
the seed entry kind of lifestyle we have
the seed entry kind of lifestyle we have syndrome of Plenty and high stress and
syndrome of Plenty and high stress and
syndrome of Plenty and high stress and this it’s like rich and poor both are
this it’s like rich and poor both are
this it’s like rich and poor both are suffering so you have plenty in one case
suffering so you have plenty in one case
suffering so you have plenty in one case and you have stress in another case to
and you have stress in another case to
and you have stress in another case to become rich and there is this unbalanced
become rich and there is this unbalanced
become rich and there is this unbalanced ecosystem in this ecosystem not only
ecosystem in this ecosystem not only
ecosystem in this ecosystem not only outside which influences us but also
outside which influences us but also
outside which influences us but also inside us what does it result into so we
inside us what does it result into so we
inside us what does it result into so we asked the question as a researcher we
asked the question as a researcher we
asked the question as a researcher we asked the question is too complex
asked the question is too complex
asked the question is too complex because you can have different levels at
because you can have different levels at
because you can have different levels at the genome level 3 billion later long
the genome level 3 billion later long
the genome level 3 billion later long DNA may have hundreds and thousands of
DNA may have hundreds and thousands of
DNA may have hundreds and thousands of changes happening over there which we
changes happening over there which we
changes happening over there which we call mutations and then you can’t be
call mutations and then you can’t be
call mutations and then you can’t be looking at a drug for each one of them
looking at a drug for each one of them
looking at a drug for each one of them then on top of that you can have a PG
then on top of that you can have a PG
then on top of that you can have a PG Natick kind of modulations these because
Natick kind of modulations these because
Natick kind of modulations these because of these methylations and other other
of these methylations and other other
of these methylations and other other levels of modifications which can happen
levels of modifications which can happen
levels of modifications which can happen which are epigenetic in character then
which are epigenetic in character then
which are epigenetic in character then you can’t be looking for drugs for each
you can’t be looking for drugs for each
you can’t be looking for drugs for each one of them so is there a possibility
one of them so is there a possibility
one of them so is there a possibility that it does it converge at some
that it does it converge at some
that it does it converge at some metabolic at some biochemical level if
metabolic at some biochemical level if
metabolic at some biochemical level if this convergence can happen over there
this convergence can happen over there
this convergence can happen over there then you can target this with a
then you can target this with a
then you can target this with a particular drug that’s the story I’m
particular drug that’s the story I’m
particular drug that’s the story I’m going to give you that quickly how this
going to give you that quickly how this
going to give you that quickly how this convergence in a normal cell when we eat
convergence in a normal cell when we eat
convergence in a normal cell when we eat and the carbohydrates break down they
and the carbohydrates break down they
and the carbohydrates break down they generate sugar and the sugar is
generate sugar and the sugar is
generate sugar and the sugar is processed by a biochemical machinery and
processed by a biochemical machinery and
processed by a biochemical machinery and this mitochondria plays a good role over
this mitochondria plays a good role over
this mitochondria plays a good role over there in balancing itself with the
there in balancing itself with the
there in balancing itself with the nuclear material and the biochemical
nuclear material and the biochemical
nuclear material and the biochemical reactions which are going on here which
reactions which are going on here which
reactions which are going on here which are glycol like you know glycolysis over
are glycol like you know glycolysis over
are glycol like you know glycolysis over here which is happening
here which is happening
here which is happening I won’t don’t want to use these complex
I won’t don’t want to use these complex
I won’t don’t want to use these complex first for you
first for you
first for you and this pyruvate enters in the
and this pyruvate enters in the
and this pyruvate enters in the mitochondria and the mitochondria is the
mitochondria and the mitochondria is the
mitochondria and the mitochondria is the hub for creating power creating energy
hub for creating power creating energy
hub for creating power creating energy and you can see here 36 ATP molecules
and you can see here 36 ATP molecules
and you can see here 36 ATP molecules being generated
being generated
being generated whereas in cancer situation you have
whereas in cancer situation you have
whereas in cancer situation you have this happening glycolysis happening
this happening glycolysis happening
this happening glycolysis happening processing of glucose taking place some
processing of glucose taking place some
processing of glucose taking place some biochemical reactions going on yet you
biochemical reactions going on yet you
biochemical reactions going on yet you do not have adequate energy being
do not have adequate energy being
do not have adequate energy being generated over there it does not require
generated over there it does not require
generated over there it does not require that it’s an abnormal situation which
that it’s an abnormal situation which
that it’s an abnormal situation which has happening over there and the energy
has happening over there and the energy
has happening over there and the energy generated is through this process and
generated is through this process and
generated is through this process and the cell gets geared towards this
the cell gets geared towards this
the cell gets geared towards this bioessence of nucleotides so what is
bioessence of nucleotides so what is
bioessence of nucleotides so what is happening basically the cell is geared
happening basically the cell is geared
happening basically the cell is geared to produce energy through this process
to produce energy through this process
to produce energy through this process of using sugars whatever food we eat so
of using sugars whatever food we eat so
of using sugars whatever food we eat so all the glucose which is generated were
all the glucose which is generated were
all the glucose which is generated were there the cell uses it very quickly and
there the cell uses it very quickly and
there the cell uses it very quickly and when cell uses it very quickly it
when cell uses it very quickly it
when cell uses it very quickly it generates a phenomenon which is called
generates a phenomenon which is called
generates a phenomenon which is called Warburg hypothesis so Warburg had
Warburg hypothesis so Warburg had
Warburg hypothesis so Warburg had suggested that more of glucose will be
suggested that more of glucose will be
suggested that more of glucose will be taken by the cancer cell and more of
taken by the cancer cell and more of
taken by the cancer cell and more of lactate will be produced this is kind of
lactate will be produced this is kind of
lactate will be produced this is kind of a feature of a cancer cell
now mitochondria comes into picture
now mitochondria comes into picture because mitochondria works this tiny
because mitochondria works this tiny
because mitochondria works this tiny molecule within the cell has its own
molecule within the cell has its own
molecule within the cell has its own genome as I said mother passes onto both
genome as I said mother passes onto both
genome as I said mother passes onto both daughters and sons and it maintains this
daughters and sons and it maintains this
daughters and sons and it maintains this balance the homeostasis we in technical
balance the homeostasis we in technical
balance the homeostasis we in technical term will call homeostasis but I will
term will call homeostasis but I will
term will call homeostasis but I will use balance as the word so it balances
use balance as the word so it balances
use balance as the word so it balances were there it the homeostasis is that
were there it the homeostasis is that
were there it the homeostasis is that mitochondria will replicate divide we
mitochondria will replicate divide we
mitochondria will replicate divide we call it by Genesis and then it will see
call it by Genesis and then it will see
call it by Genesis and then it will see see to it that the cell is restored back
see to it that the cell is restored back
see to it that the cell is restored back it survives because survival is one of
it survives because survival is one of
it survives because survival is one of the features of the cell to sustain
the features of the cell to sustain
the features of the cell to sustain itself for future and all those
itself for future and all those
itself for future and all those reactions are going there information
reactions are going there information
reactions are going there information transfer is there and this mitochondria
transfer is there and this mitochondria
transfer is there and this mitochondria you will be surprised to know is an
you will be surprised to know is an
you will be surprised to know is an outsider in billions of years which has
outsider in billions of years which has
outsider in billions of years which has come inside the cell
come inside the cell
come inside the cell and we allowed at that time the cell
and we allowed at that time the cell
and we allowed at that time the cell allowed it to sustain itself to live
allowed it to sustain itself to live
allowed it to sustain itself to live there peacefully and it lived peacefully
there peacefully and it lived peacefully
there peacefully and it lived peacefully all these millions and billions of years
all these millions and billions of years
all these millions and billions of years in the cell that in humans also you have
in the cell that in humans also you have
in the cell that in humans also you have this mitochondria and they are the power
this mitochondria and they are the power
this mitochondria and they are the power house they’re energy producers
house they’re energy producers
house they’re energy producers they also synthesize they also signal so
they also synthesize they also signal so
they also synthesize they also signal so there is a communication between this
there is a communication between this
there is a communication between this mighty neo organelle within the cell
mighty neo organelle within the cell
mighty neo organelle within the cell communication between mitochondria and
communication between mitochondria and
communication between mitochondria and the nucleus and the nucleus and the
the nucleus and the nucleus and the
the nucleus and the nucleus and the mitochondria so this communication this
mitochondria so this communication this
mitochondria so this communication this balance is maintaining the homeostasis
balance is maintaining the homeostasis
balance is maintaining the homeostasis in the cell and this homelessness in the
in the cell and this homelessness in the
in the cell and this homelessness in the cell obviously make homeostasis in the
cell obviously make homeostasis in the
cell obviously make homeostasis in the body the physiological homeostasis if
body the physiological homeostasis if
body the physiological homeostasis if this is disturbed as would happen in
this is disturbed as would happen in
this is disturbed as would happen in cancers cases so mitochondria plays an
cancers cases so mitochondria plays an
cancers cases so mitochondria plays an important role in maintaining this
important role in maintaining this
important role in maintaining this balance and as an outsider I would say
balance and as an outsider I would say
balance and as an outsider I would say mitochondria has taken us for a ride
mitochondria has taken us for a ride
mitochondria has taken us for a ride because now it came as an outsider lived
because now it came as an outsider lived
because now it came as an outsider lived all through the revolution and has taken
all through the revolution and has taken
all through the revolution and has taken control of so today people are thinking
control of so today people are thinking
control of so today people are thinking that I put good mitochondria in a bad
that I put good mitochondria in a bad
that I put good mitochondria in a bad cell is it going to recover yes it
cell is it going to recover yes it
cell is it going to recover yes it happens that despite the bad genomic
happens that despite the bad genomic
happens that despite the bad genomic background the epigenomic background if
background the epigenomic background if
background the epigenomic background if you put good mitochondria were there
you put good mitochondria were there
you put good mitochondria were there it’s so important it communicates so
it’s so important it communicates so
it’s so important it communicates so well it tries to maintain the
well it tries to maintain the
well it tries to maintain the homeostatic balance in the cell and cell
homeostatic balance in the cell and cell
homeostatic balance in the cell and cell has some normalcy restored back but
has some normalcy restored back but
has some normalcy restored back but sometimes like in cancer situation it
sometimes like in cancer situation it
sometimes like in cancer situation it feels helpless under abnormal conditions
feels helpless under abnormal conditions
feels helpless under abnormal conditions so this is how mitochondria feels it has
so this is how mitochondria feels it has
so this is how mitochondria feels it has a balance between life and death in the
a balance between life and death in the
a balance between life and death in the cell so it undergoes survival and at the
cell so it undergoes survival and at the
cell so it undergoes survival and at the same time it has it leads to the death
same time it has it leads to the death
same time it has it leads to the death which is called in technical terms that
which is called in technical terms that
which is called in technical terms that we say apoptosis so mitochondrial
we say apoptosis so mitochondrial
we say apoptosis so mitochondrial behavior if abnormal can lead to cell
behavior if abnormal can lead to cell
behavior if abnormal can lead to cell death and obviously if cell does not die
death and obviously if cell does not die
death and obviously if cell does not die and has a baggage of damaged DNA inside
and has a baggage of damaged DNA inside
and has a baggage of damaged DNA inside it and it survives and the immune
it and it survives and the immune
it and it survives and the immune response which we have cannot fight it
response which we have cannot fight it
response which we have cannot fight it out cannot kill these cells so what
out cannot kill these cells so what
out cannot kill these cells so what would happen cancer arises so
would happen cancer arises so
would happen cancer arises so mitochondria definitely is a very
mitochondria definitely is a very
mitochondria definitely is a very important organ so it came as an
important organ so it came as an
important organ so it came as an outsider in the cell so it it’s at the
outsider in the cell so it it’s at the
outsider in the cell so it it’s at the crossroads of the life and death and it
crossroads of the life and death and it
crossroads of the life and death and it plays an important role and what are we
plays an important role and what are we
plays an important role and what are we doing with this the mitochondrial DNA
doing with this the mitochondrial DNA
doing with this the mitochondrial DNA mutations the mitochondrial methylations
mutations the mitochondrial methylations
mutations the mitochondrial methylations as I mentioned and introduce to you that
as I mentioned and introduce to you that
as I mentioned and introduce to you that the two levels of regulations which
the two levels of regulations which
the two levels of regulations which happen at the genome level one is the
happen at the genome level one is the
happen at the genome level one is the structural part there will be changes in
structural part there will be changes in
structural part there will be changes in this genome which may accumulate or the
this genome which may accumulate or the
this genome which may accumulate or the evolution which were good for us
evolution which were good for us
evolution which were good for us evolution gave rise to them and asked us
evolution gave rise to them and asked us
evolution gave rise to them and asked us to well these are good changes in you
to well these are good changes in you
to well these are good changes in you you survive you and we abuse them today
you survive you and we abuse them today
you survive you and we abuse them today those changes have failed us those
those changes have failed us those
those changes have failed us those changes have acted against us the
changes have acted against us the
changes have acted against us the changes which we acquired in the
changes which we acquired in the
changes which we acquired in the evolution which were good for us by our
evolution which were good for us by our
evolution which were good for us by our bad habits and lifestyles these very
bad habits and lifestyles these very
bad habits and lifestyles these very changes which we call polymorphisms in
changes which we call polymorphisms in
changes which we call polymorphisms in promoters they have started behaving
promoters they have started behaving
promoters they have started behaving which were favorable in evolution they
which were favorable in evolution they
which were favorable in evolution they have started behaving erratically and
have started behaving erratically and
have started behaving erratically and that has created a normal situation and
that has created a normal situation and
that has created a normal situation and in mitochondria again the mutations
in mitochondria again the mutations
in mitochondria again the mutations which happen that means genetic changes
which happen that means genetic changes
which happen that means genetic changes and the methylation which happens which
and the methylation which happens which
and the methylation which happens which is epigenetic changes we did not know
is epigenetic changes we did not know
is epigenetic changes we did not know much about the epigenetic changes in
much about the epigenetic changes in
much about the epigenetic changes in mitochondria in fact this was proposed
mitochondria in fact this was proposed
mitochondria in fact this was proposed long long ago we were the one of those
long long ago we were the one of those
long long ago we were the one of those first ones who have established it that
first ones who have established it that
first ones who have established it that well mitochondrial methylation takes
well mitochondrial methylation takes
well mitochondrial methylation takes place and this mitochondrial methylation
place and this mitochondrial methylation
place and this mitochondrial methylation which is happening in the mitochondrial
which is happening in the mitochondrial
which is happening in the mitochondrial genome it retains the homeostasis of a
genome it retains the homeostasis of a
genome it retains the homeostasis of a cell by increasing its mass which is
cell by increasing its mass which is
cell by increasing its mass which is called by Genesis by increasing its
called by Genesis by increasing its
called by Genesis by increasing its mitochondrial potential which is very
mitochondrial potential which is very
mitochondrial potential which is very important and when I use the word
important and when I use the word
important and when I use the word potential and mas definitely it should
potential and mas definitely it should
potential and mas definitely it should tingle a bell in your head and you
tingle a bell in your head and you
tingle a bell in your head and you should say well there’s something going
should say well there’s something going
should say well there’s something going on this complex structure and this
on this complex structure and this
on this complex structure and this complex structure need to be understood
complex structure need to be understood
complex structure need to be understood in nonlinear with some kind of a
in nonlinear with some kind of a
in nonlinear with some kind of a language which is very different and
language which is very different and
language which is very different and that’s machine language so because it’s
that’s machine language so because it’s
that’s machine language so because it’s not so simple what does it do I’ll just
not so simple what does it do I’ll just
not so simple what does it do I’ll just highlight some mechanism over here not
highlight some mechanism over here not
highlight some mechanism over here not going in scientific details if by these
going in scientific details if by these
going in scientific details if by these habits right from sedentary lifestyle to
habits right from sedentary lifestyle to
habits right from sedentary lifestyle to irregular dietary habits and I had given
irregular dietary habits and I had given
irregular dietary habits and I had given you this background that the genomic
you this background that the genomic
you this background that the genomic background which was favorable in
background which was favorable in
background which was favorable in relation for us has turned bad now and
relation for us has turned bad now and
relation for us has turned bad now and on top of that you have now mutations
on top of that you have now mutations
on top of that you have now mutations introduced in cancer only few days back
introduced in cancer only few days back
introduced in cancer only few days back again it was published that what was bad
again it was published that what was bad
again it was published that what was bad luck what was called it’s bad luck if
luck what was called it’s bad luck if
luck what was called it’s bad luck if somebody is suffering from cancer has
somebody is suffering from cancer has
somebody is suffering from cancer has mutations now they say well it’s
mutations now they say well it’s
mutations now they say well it’s randomized so most of the mutations
randomized so most of the mutations
randomized so most of the mutations which are happening in cancer in the
which are happening in cancer in the
which are happening in cancer in the cells are happening in the tumor and
cells are happening in the tumor and
cells are happening in the tumor and they don’t have the presents their
they don’t have the presents their
they don’t have the presents their presence in normal cells that means out
presence in normal cells that means out
presence in normal cells that means out of five hundred odd genes there are 500
of five hundred odd genes there are 500
of five hundred odd genes there are 500 which are somatic mutations and only few
which are somatic mutations and only few
which are somatic mutations and only few of them are germline which are passing
of them are germline which are passing
of them are germline which are passing from generation to generation which
from generation to generation which
from generation to generation which means that we are abusing our system in
means that we are abusing our system in
means that we are abusing our system in such a way that these mutations are
such a way that these mutations are
such a way that these mutations are getting introduced and they may take a
getting introduced and they may take a
getting introduced and they may take a shape where they are turning into a
shape where they are turning into a
shape where they are turning into a cancerous cell or a tumorigenic cell now
cancerous cell or a tumorigenic cell now
cancerous cell or a tumorigenic cell now here is a situation that the
here is a situation that the
here is a situation that the mitochondria how it behaves and how it
mitochondria how it behaves and how it
mitochondria how it behaves and how it regulates it generates these free
regulates it generates these free
regulates it generates these free radicals whatever food we eat we
radicals whatever food we eat we
radicals whatever food we eat we generate free radicals and these free
generate free radicals and these free
generate free radicals and these free radicals in our body we have a system
radicals in our body we have a system
radicals in our body we have a system which will scavenge it which will mop it
which will scavenge it which will mop it
which will scavenge it which will mop it and if the machinery of ours of the
and if the machinery of ours of the
and if the machinery of ours of the mopping machinery is not good then
mopping machinery is not good then
mopping machinery is not good then obviously these free radicals are going
obviously these free radicals are going
obviously these free radicals are going to be accumulated over there they are
to be accumulated over there they are
to be accumulated over there they are very short half-life or that they don’t
very short half-life or that they don’t
very short half-life or that they don’t sustain there for too long but then
sustain there for too long but then
sustain there for too long but then within that period they are able to
within that period they are able to
within that period they are able to damage DNA they are able to damage might
damage DNA they are able to damage might
damage DNA they are able to damage might other things lipids carbohydrates in the
other things lipids carbohydrates in the
other things lipids carbohydrates in the body now all this system abusing system
body now all this system abusing system
body now all this system abusing system through insulin signaling and other
through insulin signaling and other
through insulin signaling and other signaling they make this mess
signaling they make this mess
signaling they make this mess bah lism turn into one of the enzymes
bah lism turn into one of the enzymes
bah lism turn into one of the enzymes which we have researched on which is
which we have researched on which is
which we have researched on which is called pyruvate kinase one of the
called pyruvate kinase one of the
called pyruvate kinase one of the isotonic forms which is a tetra mer this
isotonic forms which is a tetra mer this
isotonic forms which is a tetra mer this tetra Mar 4 molecules always becomes
tetra Mar 4 molecules always becomes
tetra Mar 4 molecules always becomes stable dimers and this stable dimer
stable dimers and this stable dimer
stable dimers and this stable dimer turns into the cell into anabolic state
turns into the cell into anabolic state
turns into the cell into anabolic state and I’ll just you give you a glimpse
and I’ll just you give you a glimpse
and I’ll just you give you a glimpse over here the mitochondria even one base
over here the mitochondria even one base
over here the mitochondria even one base change just one base change generates
change just one base change generates
change just one base change generates reactive oxygen species or these free
reactive oxygen species or these free
reactive oxygen species or these free radicals they go inside the nucleus this
radicals they go inside the nucleus this
radicals they go inside the nucleus this signal and then signaling is this
signal and then signaling is this
signal and then signaling is this methylation happening this methylation
methylation happening this methylation
methylation happening this methylation in the nuclear genes makes
in the nuclear genes makes
in the nuclear genes makes anti-apoptotic which means survival
anti-apoptotic which means survival
anti-apoptotic which means survival genes they give the signal for survival
genes they give the signal for survival
genes they give the signal for survival that goes very high
that goes very high
that goes very high this gives signal in the metabolism the
this gives signal in the metabolism the
this gives signal in the metabolism the dimers are high as compared to normal in
dimers are high as compared to normal in
dimers are high as compared to normal in Zion Tet remember in the pathway the
Zion Tet remember in the pathway the
Zion Tet remember in the pathway the biochemical pathway you will have more
biochemical pathway you will have more
biochemical pathway you will have more towards the PPP shunt and that means the
towards the PPP shunt and that means the
towards the PPP shunt and that means the anabolic character anabolic character is
anabolic character anabolic character is
anabolic character anabolic character is required for the cancer cell to sustain
required for the cancer cell to sustain
required for the cancer cell to sustain itself and it does not happen only in
itself and it does not happen only in
itself and it does not happen only in mitochondrial situation even the pathway
mitochondrial situation even the pathway
mitochondrial situation even the pathway in the nuclear genes whether apoptosis
in the nuclear genes whether apoptosis
in the nuclear genes whether apoptosis is there or immune response they fail or
is there or immune response they fail or
is there or immune response they fail or DNA damage fails then or epigenomic
DNA damage fails then or epigenomic
DNA damage fails then or epigenomic signal thing they generate the same
signal thing they generate the same
signal thing they generate the same phenomenon up whether it kinase
phenomenon up whether it kinase
phenomenon up whether it kinase dimerization we have looked into that
dimerization we have looked into that
dimerization we have looked into that now finally we have looked into how do
now finally we have looked into how do
now finally we have looked into how do we tackle with this so we have tried to
we tackle with this so we have tried to
we tackle with this so we have tried to have signatures of metabolism now these
have signatures of metabolism now these
have signatures of metabolism now these are groups where highly vascularized
are groups where highly vascularized
are groups where highly vascularized tissue is the tumor tissue is there or
tissue is the tumor tissue is there or
tissue is the tumor tissue is there or cells are there there are poorly
cells are there there are poorly
cells are there there are poorly vascularized cells there are some which
vascularized cells there are some which
vascularized cells there are some which will make metastasis that means they
will make metastasis that means they
will make metastasis that means they will spread in the body or they will be
will spread in the body or they will be
will spread in the body or they will be chemo resistant for drugs for all these
chemo resistant for drugs for all these
chemo resistant for drugs for all these we have generated certain metabolic
we have generated certain metabolic
we have generated certain metabolic feature signatures and we are attacking
feature signatures and we are attacking
feature signatures and we are attacking these signatures through these molecules
these signatures through these molecules
these signatures through these molecules which are molecules from within making
which are molecules from within making
which are molecules from within making inhibitors for them and they have worked
inhibitors for them and they have worked
inhibitors for them and they have worked they kill the cancer cell and that’s
they kill the cancer cell and that’s
they kill the cancer cell and that’s what in the society it is going to be
what in the society it is going to be
what in the society it is going to be beneficial in future and I hope it’s
beneficial in future and I hope it’s
beneficial in future and I hope it’s takes that practical shape of
takes that practical shape of
takes that practical shape of transforming itself in terms of certain
transforming itself in terms of certain
transforming itself in terms of certain drugs which are simple which achieved
drugs which are simple which achieved
drugs which are simple which achieved because they are based on very cheap
because they are based on very cheap
because they are based on very cheap methodology ultimately or genomic
methodology ultimately or genomic
methodology ultimately or genomic epigenomic events are converging on that
epigenomic events are converging on that
epigenomic events are converging on that event in the metabolism and if you
event in the metabolism and if you
event in the metabolism and if you target that metabolism for cancer cell
target that metabolism for cancer cell
target that metabolism for cancer cell the cancer cell is going to die and all
the cancer cell is going to die and all
the cancer cell is going to die and all these forms of cancer are going to be
these forms of cancer are going to be
these forms of cancer are going to be contained thank you very much
contained thank you very much
contained thank you very much [Applause]
”
Be First to Comment