The over all objective of the course is
to provide intense hands-on training in Recombinant DNA Methods and Genetic
Engineering. Plant Genetic engineering has emerged as an important tool in crop
improvement. Biotechnology companies and Research Centres
with crop improvement programmes require experts with practical training in
recombinant DNA methods and plant genetic engineering .
The Post M.Sc Advanced Diploma Course in Plant
Genetic Engineering is designed to generate aptitude in research and to provide
intense practical training in recombinant DNA methods and in plant genetic
engineering to the post graduate students who aspire for a career in Plant
Biotechnology. The students will receive complete practical training in
Recombinant DNA methods, plant transformation and analysis of transgenic plants.
The Post M.Sc Advanced Diploma Course in Plant Genetic Engineering
is a one year course. The course offers two
advanced theory courses in Plant Genetic Engineering and Functional Genomics, and
two Laboratory Courses in Recombinant DNA Technology and Plant Genetic
Engineering.
A first class (60% and above) M.Sc.,
degree in Biology, Botany, Zoology, Biochemistry, Biotechnology, Microbiology,
Life Sciences, M.Sc in Agriculture and related M.Sc.
courses (Those of the students in the second year of M.Sc
must have scored 60% or above in the first three semesters). A total of 10 students
will be admitted each year (Minimum marks for SC/ST candidates is 50%).
Applicants will be
selected through an All India Entrance Test. Final selection will be based on the Entrance
Examination marks.
The candidates who
completed the Post M.Sc Certificate Course in Plant
Genetic Engineering got positions in many Biotechnology Companies and Research Institutes . A good number of students joined for Ph.D. in
reputed Institutions.
Semester I
Paper 1 (PGE101): Plant genetic engineering
(theory)
Unit 1: Plasmids, phage vectors, cosmids, phagemids, Gateway vectors and artificial chromosomes.
Unit 2: Plant nuclear genes, plastid genes, plastid transformation, mitochondrial
genes, cytoplasmic male sterility, heterosis and hybrid seeds.
Unit 3: Agrobacterium and crown gall, Ti plasmid vectors and plant
transformation, microprojectile bombardment
Unit 4: Plant genetic engineering for herbicide resistance, pest resistance and
disease resistance. Metabolic
engineering of plants.
Unit 5: Production of antibodies and pharmaceutically useful proteins in
plants. Iintellectual property rights.
Biosafety
regulations relating to transgenic plants.
References:
1.
Plant Biotechnology: The genetic manipulation of plants. 2003. A. Slater, N. Scott and M. Fowler.
2.
Biochemistry and Molecular Biology of Plants. 2000.
B.B. Buchanan, W. Gruissen and R.L. Jones (eds). American Society of Plant
Biology,
3.
Plant Biotechnology. 2000. J.H. Hammond, P. Mcgarvey,
and V. Yusibov (eds). Springer Verlag,
4.
Text Book of Biotechnology.
2004. H.K. Das (ed). Wiley India Pvt.
Ltd.,
Paper 2 (PGE102) Functional
genomics (Theory)
Unit 1: Physical organization of plant genomes, Arabidopsis and rice genome sequencing, Physcomitrella (moss) sequence – evolutionary
implications.
Unit 2: Trait modification by genetic engineering – over expression or under
expression of heterologous genes, gene targeting by
homologous recombination.
Unit 3: Transcriptomics
by DNA microarray, real time PCR, differential display
RT PCR, subtractive hybridization, confocal
microscopy, FRET analysis, proteomics.
Unit 4: Map-based cloning,
T-DNA tagging, transposons tagging, TILLING
Unit 5: RNA
silencing micro RNA, siRNA, silencing suppressors,
RNA silencing and functional genomics, in
silico analysis
and assignment of gene function.
References:
1. Genomes.
1999. T.A. Brown. John Wiley
& Sons,
2. Plant Genomics and Proteomics. 2004.
3. A Holistic Approach to Rice Genome Research and
Genetic engineering. 2003. H. Yang, J. Yu,
4. Plant Functional Genomics. 2003.
E. Grotewold.
Humana Press, Totowa.
5. The Handbook of Plant Genome Mapping. 2005. K. Maksem
and G. Kahl. John Wiley –VCM, Weinheim.
6. Molecular Plant Biology, Vol
I & II. 2002. P.M. Gilmartin and
C. Bowler.
7. From Genes to Genomes. 2002.
J.W. Dale and M.V. Schantz. John Wiley & Sons,
8. Reverse genetics approaches for functional
genomics in rice. 2005.
G. An, D.-H. Jeong, K-H, Jung and S. Lee. Plant
Mol. Biol. 59:111-123.
9. Plant Functional Genomics. 2006.
D. Lister.
PGE-L101: Lab in Recombinant DNA Methods:
References:
1. Molecular Cloning: A Laboratory Manual (Vol 1-3). 2001. J. Sambrook and
D.W. Russel.
2. Molecular Biology. A Project Approach. 1995.
S.J. Karchar.
Academic Press,
3. Principles of Gene Manipulation (Sixth
Edition). 2001. S.B. Primrose, R.M. Twyman
and R.W. Old.
4. Plant Genomics and Proteomics. 2004.
PGE-L102: Lab in Plant Genetic
Engineering:
References:
1.
Plant Molecular Biology Manual.1994. S.B. Gelvin, R.A. Schilperoort and D.P.S. Verma (eds). Kluwer Academic
Publishers,
2.
Methods in Plant Molecular Biology: A Laboratory Course Manual. 1995.
P. Maliga (ed).
3. GeneTransfer
to Plants. 1995.
I. Potrykus and G. Spangenberg (eds).
Springer Verlag, Berlin.
SEMESTER II
PGE201: PROJECT