Ms. Neha
Asst. Prof. In Biotechnology
Introduction
 Medical biotechnology is
the fusion of genetics,
cell biology and many
other sciences in order to
further advances in
medicine.
Why is medical biotechnology
important?
 The main reason for
medical biotechnology is
to prolong life.
 Other reasons are to ease
suffering of palliative
care patients or to
increase accessibility for
people with disabilities.
1) Monoclonal Antibodies (mAb)
 They are so called
because they are clones
of an individual parent
cell.
 Remember, antibodies
are specific proteins that
target pathogens
invading our body.
1) Monoclonal Antibodies (mAb)
 Steps in making them:
1. Human antibody genes are
put into a mouse.
2. Mouse is infected causing it
to make human antibody
producing cells (B-cells).
3. These cells are removed
from the mouse and fused
with a tumour cell.
4. Now we have a tumour cell
that is constantly
producing antibodies and
more cells like itself.
1) Monoclonal Antibodies (mAb)
 This technology is used
primarily to fight off
cancer cells as these
monoclonal antibodies
can be “trained” to target
markers that show up on
cancer cells.
 The mAbs will then
destroy the cancer cell
and go looking for more.
2) Bioprocessing
 Bioprocessing is the mass
production of human
proteins, vaccines, etc… by
genetically modifying
bacteria or viruses.
 This allows for a large
quantity of the desired
product to be created in a
short amount of time and
for a relatively low cost.
2) Bioprocessing
 The main product currently
bioprocessed is insulin, the
human protein responsible
for lowering blood sugar after
eating.
 The human gene for insulin
is placed into bacteria, these
are cultured and allowed to
produce insulin which is
collected, purified and sold
to the millions of diabetics
worldwide.
3) Stem Cells
 A stem cell is a cell that
has the potential to
become any cell type in
the human body.
 Everyone has stem cells,
but they are very hard to
access.
 The easiest place to get
stem cells is from an
embryo.
3) Stem Cells
 Stem cells are introduced
into a damaged area of
the body where, under
the right conditions, will
replace the damaged
area.
 Often times stem cells
are grown in a lab first to
ensure the right
conditions and then
placed into a sick person.
3) Stem Cells
 Stem cells are currently
being tested to treat
everything from Crohn’s
disease to baldness!
 The main areas where stem
cells have proven their worth
is in bone marrow
transplants, replacing
damaged heart tissue after a
heart attack and replacing
damaged nerve tissue which
gives hope to anyone who
has had a spinal cord injury.
4) Tissue Engineering
 A form of regenerative
medicine, tissue
engineering is the
creation of human tissue
outside the body for later
replacement.
 Usually occurs on a
tissue scaffold, but can
be grown on/in other
organisms as shown on
the right.
4) Tissue Engineering
 Tissue engineers have
created artificial skin,
cartilage and bone marrow.
 Current projects being
undertaken include
creating an artificial liver,
pancreas and bladder.
 Again, we are far from
replacing a whole organ,
but just looking for
“refurbishing” our slightly
used ones at the moment.
Thank you

Medical biotechnology scope & current applications.pptx bio

  • 1.
    Ms. Neha Asst. Prof.In Biotechnology
  • 2.
    Introduction  Medical biotechnologyis the fusion of genetics, cell biology and many other sciences in order to further advances in medicine.
  • 3.
    Why is medicalbiotechnology important?  The main reason for medical biotechnology is to prolong life.  Other reasons are to ease suffering of palliative care patients or to increase accessibility for people with disabilities.
  • 5.
    1) Monoclonal Antibodies(mAb)  They are so called because they are clones of an individual parent cell.  Remember, antibodies are specific proteins that target pathogens invading our body.
  • 6.
    1) Monoclonal Antibodies(mAb)  Steps in making them: 1. Human antibody genes are put into a mouse. 2. Mouse is infected causing it to make human antibody producing cells (B-cells). 3. These cells are removed from the mouse and fused with a tumour cell. 4. Now we have a tumour cell that is constantly producing antibodies and more cells like itself.
  • 7.
    1) Monoclonal Antibodies(mAb)  This technology is used primarily to fight off cancer cells as these monoclonal antibodies can be “trained” to target markers that show up on cancer cells.  The mAbs will then destroy the cancer cell and go looking for more.
  • 8.
    2) Bioprocessing  Bioprocessingis the mass production of human proteins, vaccines, etc… by genetically modifying bacteria or viruses.  This allows for a large quantity of the desired product to be created in a short amount of time and for a relatively low cost.
  • 9.
    2) Bioprocessing  Themain product currently bioprocessed is insulin, the human protein responsible for lowering blood sugar after eating.  The human gene for insulin is placed into bacteria, these are cultured and allowed to produce insulin which is collected, purified and sold to the millions of diabetics worldwide.
  • 10.
    3) Stem Cells A stem cell is a cell that has the potential to become any cell type in the human body.  Everyone has stem cells, but they are very hard to access.  The easiest place to get stem cells is from an embryo.
  • 11.
    3) Stem Cells Stem cells are introduced into a damaged area of the body where, under the right conditions, will replace the damaged area.  Often times stem cells are grown in a lab first to ensure the right conditions and then placed into a sick person.
  • 12.
    3) Stem Cells Stem cells are currently being tested to treat everything from Crohn’s disease to baldness!  The main areas where stem cells have proven their worth is in bone marrow transplants, replacing damaged heart tissue after a heart attack and replacing damaged nerve tissue which gives hope to anyone who has had a spinal cord injury.
  • 13.
    4) Tissue Engineering A form of regenerative medicine, tissue engineering is the creation of human tissue outside the body for later replacement.  Usually occurs on a tissue scaffold, but can be grown on/in other organisms as shown on the right.
  • 14.
    4) Tissue Engineering Tissue engineers have created artificial skin, cartilage and bone marrow.  Current projects being undertaken include creating an artificial liver, pancreas and bladder.  Again, we are far from replacing a whole organ, but just looking for “refurbishing” our slightly used ones at the moment.
  • 15.