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0:00
Ask me MD medical
0:00
school for the real world with
0:03
the MD Dr. DJ Verret
0:06
Greetings, and welcome to another edition of Ask me MD medical school for
0:08
the real world. I'm Dr. DJ
0:13
Verret and today we're talking
0:13
with Dr. Ken Pienta, professor
0:16
of oncology in urology at Johns
0:16
Hopkins University and acting
0:20
chief medical officer of Q
0:20
biopharma about his experience
0:24
in academics and pharmaceutical
0:24
medicine. We'll talk to Ken
0:29
right after this
0:30
Ask Me MD medical
0:30
school for the real world.
0:52
Commerical
0:52
Here
1:14
Welcome back to ask me MD
1:14
medical school for the real
1:17
world. I'm Dr. D.J. Verret. And
1:17
today we have the great pleasure
1:21
of talking with Dr. Ken Pienta,
1:21
professor of neurology and
1:25
oncology at Johns Hopkins and
1:25
acting CMO of Cue Biopharma.
1:29
Ken, thanks for joining us.
1:31
I'm glad to be here. Thanks for inviting me.
1:34
So for
1:34
all of our listeners out there
1:36
who may not know, can you give
1:36
us a little bit of history of
1:39
your background and kind of how
1:39
you got where you are today?
1:43
Sure, I trained
1:43
in internal medicine at the
1:46
University of Chicago and then
1:46
went on to do an oncology
1:50
fellowship at Johns Hopkins. And
1:50
after that, I moved as an
1:56
assistant professor to Wayne
1:56
State, and then the University
1:59
of Michigan where I spent 20
1:59
years running a translational
2:03
research lab, basically focused
2:03
on prostate cancer metastasis
2:09
and therapeutics, and at the
2:09
same time building up a practice
2:12
in advanced prostate cancer. And
2:12
then after 20 years of doing
2:17
that, at the University of
2:17
Michigan, I moved to Johns
2:19
Hopkins, where I directed
2:19
started to direct urology
2:24
research, as well as develop the
2:24
precision medicine program for
2:29
Johns Hopkins. And that brings
2:29
us here to today.
2:35
For for
2:35
folks out there that may or may
2:38
not really understand could you
2:38
kind of explain what precision
2:42
medicine is. I hear that term a
2:42
lot. But I don't know if
2:44
anyone's ever succinctly
2:44
explained it to me.
2:49
Well, their their
2:49
precision medicine is, you know,
2:53
to use the tried and true
2:53
definition is treating the right
2:57
patient with the right drug at
2:57
the right time. And now in 2020
3:03
at the right place. And that's
3:03
especially true now with COVID.
3:07
In that we have found that we
3:07
need to be much smarter about
3:12
how we treat people and where we
3:12
treat people do we really need
3:16
to bring them into the hospital
3:16
to treat them. So part of
3:20
precision is actually developing
3:20
methods to do video medicine
3:25
when it's appropriate and
3:25
understanding when it's not
3:28
appropriate. That's all about
3:28
precision.
3:32
That's an interesting evolution. I hadn't thought about the the right
3:34
place. But but it continues, I
3:38
recently interviewed the CEO of
3:38
a mostly rural hospital system.
3:43
And he brought up the potential
3:43
for virtual hospitals, that
3:47
they're starting to talk about
3:47
kind of in line with what you're
3:50
you're talking about?
3:51
Yes.
3:52
What what
3:52
kind of drew you to academic
3:55
medicine? Why did you why'd you
3:55
want to go in academics over
3:59
some other practice opportunity?
4:01
Well, for me, I loved
4:01
the research. And I loved the
4:07
bench research part of it, the
4:07
translation, and so to be
4:11
successful, and that what I
4:11
understood very early, was that
4:16
I was going to have to narrow my
4:16
clinical focus that it was going
4:22
to if I was going to study
4:22
prostate cancer in the lab,
4:25
which is what I was trained to
4:25
do. It made the most sense to
4:30
work with prostate cancer
4:30
patients, and therefore they
4:34
became my clinical laboratory.
4:34
And I would seamlessly do what I
4:38
would look at what I was doing
4:38
in the lab and then apply that
4:42
to my patients in the clinic as
4:42
I tried to develop therapies and
4:45
then I would use their blood and
4:45
bone marrow and biospecimens and
4:49
tissue to take back to the lab
4:49
to help me do better research
4:55
and then as I was developing
4:55
those resources programs, I
5:01
realized it was very difficult
5:01
to take any type of research,
5:07
whether it be predictive
5:07
biomarkers or clinical
5:11
therapeutics, all the way across
5:11
the finish line to an FDA
5:18
approved product that would help
5:18
actually help people across that
5:23
sort of gap. And so they started
5:23
working more and more with
5:28
industry to to understand and
5:28
translate what we were doing in
5:33
the lab, to patients, and then
5:33
from patients clinical trials,
5:39
all the way to approval. And you
5:39
can't do that alone anymore,
5:44
maybe 30 years, 4050 years ago,
5:44
you know, you've heard about
5:48
people developing drugs at the
5:48
bench and then taking them all
5:52
the way to to, to the clinic and
5:52
beyond. It takes a village, it
5:57
takes a team it takes biotech
5:57
by, you know, pharma, academic
6:03
labs, etc, to do all that entire
6:03
translation across the spectrum.
6:08
And that's why I started also
6:08
working over the years with, you
6:13
know, biotech and pharma.
6:17
What do
6:17
you find most rewarding about
6:20
your involvement in the whole
6:20
drug design and development
6:23
process?
6:27
You know, I find the
6:27
bottom line is we're here to
6:30
help people and to try to make a
6:30
difference and find ways that
6:35
decrease morbidity and
6:35
mortality. And I find that each
6:41
step along the way, on any given
6:41
day is really exciting. And I
6:46
have the great privilege of
6:46
being able to do that dance of
6:51
of working in the lab, working
6:51
in the in the clinic, but then,
6:57
through my connections to
6:57
biotech, actually develop those
7:02
clinical trials into into large
7:02
multicenter trials to work
7:07
towards FDA approval. And I've
7:07
been able to do that now in my
7:13
life for not only drugs, but
7:13
also imaging agents as well as
7:21
bio biomarkers. Like for
7:21
example, I was the guy that
7:25
developed circulating tumor
7:25
cells for prostate cancer as a
7:31
diagnostic marker.
7:34
When we
7:34
were talking earlier, I use the
7:37
term non clinical medicine,
7:37
which I think a lot of people
7:40
would say, when you're involved
7:40
in pharma, you're, you're in a
7:43
non clinical job. But But you
7:43
brought up a really good point
7:47
that, that no, it's not non
7:47
clinical. Can you kind of
7:50
explain your thoughts on that?
7:52
Yeah, I, you know, I
7:52
use that we were talking offline
7:57
and you use that that term and I
7:57
took some umbrage.
8:02
That's
8:02
true. I was I was kind of put in
8:04
a different way. But yes.
8:07
The reason why is
8:07
because, you know, we need smart
8:11
people in every step of this
8:11
process of drug development,
8:17
and, and what I tell my
8:17
students, my, my PhD students,
8:22
my clinical fellows, is that
8:22
it's where you find your joy,
8:27
but specifically, you know, for
8:27
MDS, we need MDS who are trained
8:33
to take care of people who
8:33
understand illness, who
8:36
recognize side effects, to work
8:36
in industry, whether that's
8:40
biotech or pharma, as we develop
8:40
drugs, so, for example, is to be
8:48
a medical director or a medical
8:48
monitor, for a clinical trial of
8:53
a first inhuman drug requires,
8:53
you know, that you have
8:59
expertise, that you can
8:59
recognize what side effects are,
9:04
and that you can recognize when
9:04
your first inhuman drug might be
9:08
having an adverse side effect or
9:08
adverse event. And that's it. So
9:14
you're you're taking care of
9:14
people, and you're watching the
9:19
drug develop. And you're and you
9:19
Although you're not laying your
9:23
hands on them, you are directly
9:23
involved in their care, you are
9:28
making lifetime decisions about
9:28
whether they should continue on
9:32
a drug. You know, the recent
9:32
halt of the of the Merck study
9:38
with COVID is because there was
9:38
an MD in pharma. Not seeing
9:44
patients but recognizing that
9:44
there was a weird side effect.
9:48
That that is that is clinical
9:48
medicine to me. And I think
9:55
folks who are switching over to
9:55
industry potentially from
9:58
academics or from private
9:58
Practice to industry, because
10:02
they they just don't want to do
10:02
for example, the day to day
10:06
clinical patient caridy anymore.
10:06
They can, that's a very
10:12
rewarding track to to be able to
10:12
take care of people that way.
10:19
With your
10:19
experience kind of being on the
10:22
clinical side, the academic
10:22
side, and then the pharma side
10:25
now as an acting cmo with a with
10:25
a biotech company in clinical
10:29
trials, what advice would you
10:29
give to physicians that may be
10:33
looking to transition into some
10:33
of these pharmaceutical jobs?
10:38
Yeah, my, my, I guess
10:38
my number one piece of advice is
10:42
to really clearly determine for
10:42
yourself, what what you're
10:50
interested in doing what you're
10:50
excited to do every day. And
10:55
they're the spectrum of, for
10:55
example, biotech. That means
11:01
that, you know, are you more
11:01
interested in immunology? Are
11:04
you more interested in
11:04
Rheumatology? Are you more, you
11:07
know, find fight, you can find
11:07
there's so many companies out
11:10
there. And so many
11:10
opportunities, you can really
11:14
find the type of position that
11:14
you want to with the kind of
11:19
drug you want to if you want to
11:19
just dabble, you know, to say,
11:24
is this interesting to me, that
11:24
many of these companies have
11:28
advisory boards that you can
11:28
become involved in as they try
11:33
to develop agents and they're
11:33
looking for a, for example, how
11:37
will this drug be used in the
11:37
clinical practice you were in?
11:42
Whether and it doesn't matter
11:42
whether that was academics, or
11:45
private practice or large
11:45
groups, there's a lot of
11:49
opportunity there. The other
11:49
thing you have to think about
11:53
is, do you want to be in
11:53
biotech, which tends to be a
11:57
small, you know, smaller
11:57
organizations where you're going
12:00
to be the MD, and they're going
12:00
to be looking at you for your
12:03
for clinical acumen. And
12:03
understanding how a drug affects
12:09
patients. Where or do you want
12:09
to be part of a larger
12:13
organization, like a pharma, a
12:13
big drug company, where you
12:18
might be asked to, you know,
12:18
develop a particular agent
12:22
across multiple countries or do
12:22
it, you know, we already know
12:26
the toxicities and what they
12:26
need somebody to run a phase
12:29
three, study. The, the also, the
12:29
other thing you can do is, you
12:35
know, depending on your
12:35
training, you can get involved
12:39
in, quite frankly, on the non
12:39
clinical side, do you want to
12:43
develop help develop FDA
12:43
packages, you know, the the ind
12:49
investigational new drug
12:49
packages. And to do that, again,
12:53
you can there, there are ways to
12:53
do that, where you can sort of
12:57
dip your toes in to say, this is
12:57
something I want to learn, and
13:01
figure out how to do.
13:03
I was interviewing a friend of mine from medical school who ended up
13:05
going into hospital
13:08
administration. And one of the
13:08
things that he said that stuck
13:12
with me was, when you're looking
13:12
to leave a clinical practice for
13:16
some other ground, always go
13:16
towards the job, don't run away
13:22
from a job. And so I wanted to
13:22
get your thoughts on that. It
13:26
sounds like you were kind of
13:26
leaning towards towards that
13:29
statement. So I wanted to get your thoughts on it.
13:31
Yeah, I think that's a
13:31
beautiful, a beautiful way to
13:34
put it. I think with any move,
13:34
there's a push in a poll, and
13:39
you have to make sure that
13:39
you're aware of what, you know,
13:43
put the pushes are number one,
13:43
like why do I want to stop doing
13:47
what I'm doing? And that doesn't
13:47
have to be a negative. You know,
13:52
people tend to think, Oh, you
13:52
know, I'm burnt out, I got to
13:56
get out. I'm working too many
13:56
hours. The pay, you know, too
14:00
many people are dying, or, or on
14:00
the other end, I'm tired of
14:05
taking care of diabetes and
14:05
hypertension, and I'm bored. You
14:10
know, those are all that doesn't
14:10
have to be a negative statement.
14:14
Right? It's just you're you're
14:14
evolving in your life. You're,
14:19
you're saying what I was doing
14:19
for the last several years is
14:23
not what I want to do. And some
14:23
people come to that very
14:27
quickly. I had a friend who was
14:27
a fellow in oncology back when I
14:32
was training, who jumped to
14:32
industry in the space of about
14:36
two years because he went, you
14:36
know what, I made a wrong
14:41
decision. I don't want to take
14:41
care of cancer patients that
14:43
every day, it's too much for me
14:43
so So recognizing that is a
14:49
powerful thing. It's not a
14:49
negative. That push you that I
14:54
think, you know, is not a is not
14:54
a recognition of defeat. It's a
15:00
recognition that your brain is
15:00
evolving that you're thinking
15:06
that differently. In fact, it's
15:06
not a defeat, it's actually a
15:10
powerful statement that says, I
15:10
want to evolve, and I'm not
15:14
going to accept who I am right
15:14
now. And just put in the time,
15:19
life's too short to just put in
15:19
the time. So you have to find
15:23
what you enjoy doing and what
15:23
you're passionate doing. And
15:25
whether you switch to an in you
15:25
know, biotech or pharma, or to
15:30
administration or to working in
15:30
a law firm, working in patents,
15:35
you know, firms working VC, all
15:35
of those things can be fun, you
15:40
just have to find out what's
15:40
fun. And, and so what's the poll
15:45
is very important. But I think
15:45
even more important in the
15:49
moment is understanding that the
15:49
push is not a negative.
15:55
I think
15:55
that's also a great expansion on
15:58
what my friend was saying, just
15:58
to be able to recognize where
16:02
you want to be in and what you
16:02
want to change, because I
16:06
totally agree with you. It
16:06
life's too short not to be in a
16:09
job that you're happy with. A
16:09
couple of the terms you use
16:13
biotech versus pharma or
16:13
biopharma? Can you kind of
16:17
explain the differences in those
16:17
because I hear those terms a lot
16:20
as well.
16:23
Yeah, well, I'm sure
16:23
there's official definitions, my
16:28
definition basically, you know,
16:28
a biotech a technology company
16:33
is generally formed around a
16:33
particular idea and is
16:40
developing either diagnostics or
16:40
therapeutics, based at least
16:45
initially on a very narrow
16:45
ideas. So, for example, q
16:50
biopharma is an immuno oncology
16:50
biotechnology company that was
16:56
formed on technology out of
16:56
Albert Einstein to develop
17:01
specific molecules that we call
17:01
immuno stats that are going to
17:06
very selectively deliver an
17:06
antigen to a protein that T
17:13
cells should recognize for
17:13
cancer therapy, is it at the
17:19
same time, it is not developing
17:19
a targeted agent for diabetes,
17:24
for example, it is, you know, on
17:24
a path based on this, this this
17:29
drug platform, and that's
17:29
important. So, biotech tends to
17:35
be small, you know, the company,
17:35
at least early tends to be, you
17:39
know, companies with, you know,
17:39
10 to 100 people that are all
17:43
working to get develop agents
17:43
around a particular platform in
17:49
a particular disease setting. As
17:49
they get as, as they grow, they
17:55
can take on other things, but
17:55
they're basically formed around
17:59
a specific IP, intellectual
17:59
property and technology. And if
18:05
they're, they're often
18:05
developing first and human
18:07
drugs, doing phase one. And
18:07
phase twos. Farm pharma is a,
18:15
you know, companies like
18:15
Novartis and Bristol Myers are
18:18
are large, multi 1000 member
18:18
companies that are developing
18:24
drugs and get delivering drugs
18:24
that are already approved, as
18:31
well as tending to run phase
18:31
three trials where they're
18:34
trying to develop more drugs. So
18:34
you'll often see if if a company
18:39
a biotech company has an agent
18:39
that looks promising, they often
18:45
get gobbled up, they get bought
18:45
by a large company, who will
18:49
then do the phase three trials,
18:49
which often cost hundreds of
18:52
millions of dollars. So the way
18:52
I think about it is pharma.
18:57
pharma is trying to do has
18:57
multiple drugs 10s, if not
19:02
hundreds of drugs in their
19:02
portfolios across a wide variety
19:06
of diseases, and generally are
19:06
only running phase three,
19:10
generally running phase three
19:10
studies as well as giving drugs
19:15
to people, you know, by
19:15
prescription. So
19:18
what I'd
19:18
like to use your your
19:21
introduction into cue to talk a
19:21
little bit about your acting cmo
19:24
job and and just the thought
19:24
process that goes into
19:28
development of a drug trial. I
19:28
think that's extremely
19:31
interesting. And also just the
19:31
process for the drug trial,
19:35
because people hear a lot about
19:35
phase one, phase two, phase
19:38
three, but you don't hear a lot
19:38
about all of the work before you
19:42
can even start that phase one.
19:42
So just to start, can you kind
19:47
of describe what that pleat pre
19:47
clinical work looks like in the
19:52
development process, just from a
19:52
50,000 foot view?
19:56
Wow. Yeah. Well, that's
19:56
that's an exciting area. area.
20:00
And basically, that's what we
20:00
did I did with Q, which was, you
20:04
know, developed here we had this
20:04
this molecule that we wanted to,
20:09
to give to people. So to do that
20:09
you have to do what are called
20:13
ind enabling studies, which are
20:13
investigational new drug
20:18
studies. And that includes
20:18
developing all the assays,
20:24
outside of animals or people
20:24
that demonstrate that your drug
20:29
has activity, for example, does
20:29
it bind to a T cell in a ditch,
20:34
and then you have to do in vivo
20:34
studies in in in basically in
20:41
mice and in in rats to say, Oh,
20:41
we have anti cancer activity.
20:47
And then you have to do what's
20:47
called tox, colic toxicology
20:51
studies, where you have to prove
20:51
that your drug was through a
20:57
variety of doses is going to be
20:57
safe for rats, as well as
21:02
potentially dogs or monkeys, and
21:02
demonstrate, and not only that
21:08
the drug should be safe. But
21:08
determine the starting dose for
21:13
your drug in humans through a
21:13
set of complex formulas that are
21:19
complex, but easily learnable.
21:19
You then take that in package,
21:24
and simultaneously, you're
21:24
developing your drug, you're
21:30
putting it into vials under good
21:30
manufacturing processes, to be
21:35
able to say that it's sterile
21:35
and not has the right pH and the
21:41
right you the right vehicle that
21:41
you can actually give it to
21:45
people, whether it's IV or
21:45
orally. And then as you're doing
21:50
all those studies in parallel,
21:50
you are also writing it all out
21:55
and developing what's called the
21:55
investigational new drug
21:59
package, where you will present
21:59
that whole body of evidence to
22:04
the Food and Drug Administration
22:04
to say, let us give this to
22:08
people. It's a really exciting
22:08
process.
22:13
When and then once you give it to the FDA, the FDA hopefully will tell
22:15
you, okay, you can give it to
22:19
people. But that's also the
22:19
start of another whole process.
22:24
Because the drug design in that
22:24
phase one is is actually pretty
22:29
important, right?
22:31
Yeah.
22:33
Right, so so once, as
22:33
part of that package, you have
22:38
to develop a phase one trial
22:38
design. Yet generally, there are
22:45
multiple phase one trial
22:45
designs. But the most common is
22:49
what's called the three by three
22:49
design where you give three
22:51
people a drug at a first dose,
22:51
if it's safe, you then move you
22:56
move up the dose and give it to
22:56
another three. And if it's safe,
22:59
you give it to another three.
22:59
But if you find one, got one
23:02
person gets sick, then you out
23:02
of those three, enroll three
23:06
more people. It's a it's a well
23:06
known design that's been
23:11
developed over the last 20 years
23:11
that almost all phase one drugs
23:16
use. And that's, again, it's all
23:16
about determining safety and
23:22
determining your ultimate dose
23:22
for the next set of trials,
23:26
phase two, where you're actually
23:26
trying to determine efficacy.
23:32
But when you talk about the phase one, I know with q in particular, you
23:34
not only you're giving it to the
23:38
patients, but you're looking at
23:38
data on the back end as well. To
23:44
not only determine safety, but
23:44
to try to get some information
23:47
about how the drug works. Correct. Yeah,
23:48
yeah. Sorry. I didn't
23:48
realize that's what you were
23:51
looking for. Yes. So with with
23:51
whenever you're getting a drug
23:54
for the first time, you also
23:54
look for two other effects
23:58
pharmacokinetic effects or PK?
23:58
Which is how fast is your drug?
24:04
Get clear the system? Does it do
24:04
it through the liver does do it
24:08
through the kidney? What How
24:08
long does it stay in the blood?
24:13
Those kinds of questions, those
24:13
pharmacology questions. The
24:17
other thing that we're doing is
24:17
you draw blood, so you have to
24:20
draw blood from the patient and
24:20
determine that and get tissue
24:24
from them if you can. And the
24:24
other part of that is the PD or
24:27
pharmacodynamic effects, which
24:27
is where gosh, you know, we're
24:32
trying to turn on antigen
24:32
specific T cells. So we're going
24:36
to draw blood from patients
24:36
after they've gotten our drug
24:40
and from before they got their
24:40
our drug and then put their
24:45
their blood in with our naive T
24:45
cells and see if we turn them
24:50
off. And that that is basically
24:50
the pharmacodynamic effects and
24:58
and no matter what drug you're
24:58
doing. Developing, whether it's
25:01
an immunotherapy or a targeted
25:01
agent, you're always looking for
25:05
on the back end from your
25:05
patients, the PK and PD assets.
25:12
And I
25:12
also found it interesting that
25:15
phase one isn't, you know,
25:15
people say phase one. And you
25:18
may think, Oh, it's it's pretty
25:18
standard, as you mentioned,
25:21
there are different trial
25:21
designs, but also their
25:23
different patient populations,
25:23
you may give your drug to
25:27
depending on what kind of drug
25:27
it is, right?
25:30
Yeah, absolutely. And,
25:30
and the cancer world as well as
25:36
all medicine has really evolved
25:36
or about that. They've just
25:40
become more precise, right? So
25:40
so we only give our drug, for
25:45
example, and we had to work with
25:45
the FDA for this. We were
25:49
targeting HPV positive Human
25:49
Papilloma Virus driven cancers,
25:55
we could have picked head, neck,
25:55
cervical, and you know, penile
25:58
cancers. And so, we we
25:58
specifically, you know, with the
26:05
FDA, they said, Let's pick one
26:05
disease type, and develop your
26:09
drug and one disease type. And
26:09
then as you get your dose move
26:13
into other other treatment
26:13
groups, so every time you're
26:19
doing a phase one, it used to be
26:19
that it was sort of like, oh,
26:23
anybody who has nothing, no, no
26:23
disease, no drug left to try for
26:29
whatever their disease was, we
26:29
were going to give them a phase
26:33
one agent, because it was all
26:33
about just determining the
26:36
safety of that drug. That's
26:36
really rare. Now, almost every
26:42
agent that's going into clinical
26:42
trial now is around a specific
26:47
disease type. Looking at you
26:47
because we want to look worse,
26:51
even in the safety population,
26:51
you're still looking for signal.
26:57
It's it,
26:58
it's a
26:58
lot, you know, when I first kind
27:01
of started getting involved with
27:01
these companies, you think I
27:04
always thought, oh, phase one,
27:04
you just give the drug to
27:06
somebody, but there's a lot that
27:06
really goes into it. Where did
27:10
you learn through that process?
27:10
Did you start as an investigator
27:16
for drug companies? Or was there
27:16
some class you took? Or? I mean,
27:21
how did that evolve? For you?
27:23
Wow, yeah, yeah.
27:23
It's, it's, it's what you're
27:26
always learning. And, and you
27:26
can't be afraid to say what you
27:31
don't know. But I, you know,
27:31
I've started out first by, you
27:36
know, an academic investigator
27:36
running trials for companies
27:42
drug because they had drugs I
27:42
was interested in and, you know,
27:47
understanding number one how to
27:47
write a clinical trial. And that
27:52
is something, you know, you you
27:52
learn through training, although
27:55
there are classes for it also.
27:55
But the classic way back when I
28:00
was doing it, you know, was
28:00
here, go, right, this trial,
28:03
here's a previous example,
28:03
right? But there, you know, it's
28:08
all on the web now, right. And
28:08
then there's a lot of all the
28:11
materials of how to what you
28:11
need to do to develop a drug is
28:15
all available from the like, the
28:15
FDA websites. And then I also
28:19
started to consult for companies
28:19
and understand, you know, as
28:24
they were developing there, as I
28:24
was an investigator, they would
28:27
ask me to come to an
28:27
investigator meeting, and I
28:29
would see the process they used
28:29
to get there. And as I wanted to
28:34
learn more about that, I would
28:34
ask them questions and ask,
28:38
could I be involved in that in
28:38
any way so that I could learn
28:43
the processes by which you go to
28:43
the FDA, how you put together an
28:47
ind package. And then again,
28:47
lots of reading lots of
28:53
learning, there's papers on
28:53
this, there's books on it,
28:56
there's websites on all this,
28:56
and then every time we hit a,
29:00
you know, sort of a roadblock of
29:00
knowledge, you just, you can
29:05
find the answers out there. And,
29:05
and so it gets and it gets
29:11
easier every time but also every
29:11
drug has a little bit of a
29:14
different, you know, weight that
29:14
needs to be developed. But for
29:19
example, the the tox studies are
29:19
our standard, pretty much
29:25
standard across the industry.
29:25
You got to do two species, you
29:29
got to do a rat and a monkey or
29:29
a rat and a dog, you know it
29:32
and, and so what you sort of do
29:32
it once and it's like a bike,
29:36
you know, you just have to plug
29:36
your dragon and do it.
29:40
But I think the the important take home is it was an evolutionary
29:42
process for you. It wasn't like
29:46
you woke up one day and
29:46
congratulations, you're acting
29:48
CMO of a company.
29:51
Absolutely correct. Yeah.
29:53
What one
29:53
one quick thing we didn't talk
29:55
about in that phase process
29:55
after you get your FDA approval.
29:59
That's also part of the
29:59
regulatory process, you still
30:03
have to get if you stopped to
30:03
get IRB approval at each one of
30:07
your institutions as well, which
30:07
is a whole nother process that
30:11
involves more physicians, correct?
30:14
Yeah. So as we in, for
30:14
example, for the FDA approval,
30:19
and then, you know, you have to
30:19
write the first write the the
30:23
IRB template, so we have to
30:23
write an IRB template. And we
30:28
also have to write an
30:28
investigators brochure. And we
30:31
have to write a pharmacy manual.
30:31
So there's three pieces of large
30:36
pieces of work there, that
30:36
you've written, the trial that
30:40
you want to do, the IRB, that
30:40
consent that goes with it, the
30:44
investigators brochure that goes
30:44
with it, which is sort of like a
30:47
drug insert, and then the
30:47
pharmacology manual, which is
30:51
how you want them to give the
30:51
drug. So you write all of those
30:55
and you submit them to every
30:55
place that you want to do the
30:59
trial. They then modify it to
30:59
their individual idiosyncrasies,
31:04
which is a good way to put it.
31:04
It's each institution and each
31:08
IRB has their own
31:08
idiosyncrasies, and, and that's
31:13
how that process works.
31:16
Ken, this
31:16
has been fascinating. I really
31:18
appreciate the insight into I
31:18
won't use the term non clinical
31:22
medicine, just hire clinical
31:22
medicine, but it really
31:26
appreciate the time. Thanks for coming on.
31:28
Yeah, you bet. Take care.
31:30
We've been talking with Dr. Ken Pienta, professor of neurology
31:32
and oncology at Johns Hopkins
31:36
and acting chief medical officer
31:36
of Cue Biopharma. You're listeni
31:39
g to ask me MD medical school f
31:39
r the real world. I'm Dr.
31:44
J Verret. Thanks for joining u
31:44
. Until next time, make it
31:47
n awesome wee
31:49
Thank you for joining
31:49
us for another episode of Ask me
31:52
MD medical school for the real
31:52
world with Dr. DJ Verret if you
31:57
ave a question or an idea for a
31:57
how, send us an email at
32:01
uestions at Ask Me MD po
32:01
cast.com.
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