|
UGC
Centre of Vocational Education In BIOTECHNOLOGY
Syllabus
Deptt. of Botany Proposed
Course Contents
UGC Vocational Programme in Biotechnology Paper-I
BIOCHEMISTRY |
|
Nature of
biological material |
01 |
|
|
General
Properties of organic and inorganic compounds. |
03 |
|
|
Suitability
of organic compounds for generation of structure, storage of energy and
information |
02 |
|
|
Hydrophilic
and hydrophobic groups in biological molecules |
01 |
|
|
Classification
of biomolecules based on their role in bioprocesses |
05 |
|
|
I.
Molecules involved in generation of mechanical stability-pepetidoglycans, polysaccharides and membrane lipids II.
Molecules involved in information storage and retrieval-the nucleic
acids III.
Molecules executing mediator and catalytic functions-the proteins IV.
The signal molecules |
|
|
|
Perspective
of biological macromolecules: the repeating units in nucleic acids and proteins.
Helicity, bending, looping, pleats, salt bridges
etc. and their determinants. The basis for intermolecular interaction e.g.,
enzyme – substrate and antigen-antibody recognition. |
04 |
|
|
Nature of biochemical reactions underlying biosynthesis and degradation. Role of enzymes
in such reactions. Protein and non-protein enzymes. Kinetics of enzyme catalysed reactions. |
05 |
|
|
In vitro activity of purified enzymes and their
applications in industry. Various uses of enzymes – enzymes in food
processing, medicine, diagnostics and production of new compounds. |
05 |
|
|
Enzymes as research tools-ELISA methods, modification of
biological compounds with the help of enzymes. |
03 |
|
|
Carbohydrate chemistry, Glycolysis,
Tricarboxylic Acid Cycle. |
06 |
|
|
Mitochondrial electron transport chain & oxidative phosphorylation |
02 |
|
|
Gluconeogenesis |
01 |
|
|
Glycogen metabolism |
02 |
|
|
B-oxidation |
01 |
|
Paper – II
MATHS AND COMPUTERS
|
|
|
|
The set
theory properties of subsets |
02 |
|
Linear
and geometric functions |
01 |
|
Limits
of functions, derivatives of functions |
02 |
|
The
binomial theorem |
01 |
|
Logarithm |
02 |
|
Solution
of Linear Equations |
05 |
|
Differentiation
|
05 |
|
Matrices |
10 |
|
Integration |
05 |
|
Determinants |
10 |
|
Probability
calculations |
02 |
|
Methods
of sampling, confidence level |
01 |
|
Measurements
of central tendencies |
02 |
|
Measurements
of deviations |
02 |
|
Computers:
General introduction to computers, organization of computers, digital and
analogue computers, computer algorithm. |
06 |
|
Computers
in on line monitoring and automation |
02 |
|
Application
of computers in co-ordination of solute concentration, PH and temperature
etc. of a fermenter in operation. |
02 |
|
Demonstration
of the above utilities (alongwith the above
lectures). |
6Pds. |
|
Paper- III CELL
BIOLOGY
|
|
|
Development
of microscopy (optical, TEM and SEM |
03 |
|
Cell as
a basic unit of living systems. The cell theory |
01 |
|
Procellular evolution: artificial creation of “cells” |
01 |
|
Broad
classification of cell types: PPLO, Bacteria, eukaryotic microbes, plant and animal
cells. A detailed classification of cell types within an organism. Cell,
tissue, organ and organism as different levels of organization of otherwise
genetically similar cells. |
02 |
|
Ecological
amplitude of cells in high attitude, sediments, arctic, hotspring,
arid, brackish and freshwater environments. |
02 |
|
Biochemical
composition of cells (protein, lipid, carbohydrate, nucleic acid and the
metabolic pool) |
01 |
|
Ultrastructure and function of the cell membrane |
02 |
|
Structure
and function of cell organelles; Golgi bodies,
endoplasmic reticulum (rough and smooth), ribosomes;
cytoskeletal structure (actin,
microtubules etc.), Mitochondria, choloroplasts, lysosomes, peoxysomes, nucleus
(nuclear membrane, nucleoplasm, nucleolus chromatin). Organization
of chromosomes. |
12 |
|
Cell
division and cell cycle (incl. Cell synchrony and its applications) |
03 |
|
Cell-cell
interaction |
01 |
|
Cell
locomotion (amoeboid, flagellar and ciliar). Structure & function Muscle and nerve cells. |
02 |
|
Cell
senescence and death |
01 |
|
Cell
differentiation in plants and animals |
02 |
|
Paper-IV GENETICS
|
|
|
Mendelian laws of inheritance, gene interactions |
02 |
|
Sex determination
in plants and animals; sex-linkage; non-disjunction as a proof of chromosomal
theory of inheritance. |
03 |
|
Linkage;
mapping genes; interference; coincidence in pro-and eukaryotes |
03 |
|
Chromosomes:
Chemical compositions; structural organization of chromatids,
centromeres, telomeres, chromatin, nucleosome organization; eu-and
heterochromain; special chromosomes (e.g., polytene and lampbrush
chromosomes); banding patterns in human chromosomes. |
04 |
|
Structural
and numerical aberrations involving chromosomes, evolution of wheat, cotton
and rice; Hereditary defects Kleintelter, Turner, Cri-du-Chat and Down’s syndromes. |
04 |
|
Mutations-spontaneous
and induced; chemical and physical mutagens; induced mutations in plants,
animals and microbes for economic benefit of men. |
03 |
|
Basic
microbial genetics, conjugation, transduction, transformation; isolation of auxotrophs, replica plating techniques, analysis of
mutations in biochemical pathways, one gene-one enzyme hypothesis. |
04 |
|
Extrachromosomal inheritance, mitochondrial and chloroplast
genetic systems. |
02 |
|
Population
genetics: Hardy-weinberg equilibrium, gene and
genotypic frequencies. |
|
Paper-V
MICROBIOLOGY
|
|
|
History
& development of microbiology; scope of Microbiology. |
02 |
|
Pasteur’s
experiments disproving spontaneous generation. |
01 |
|
The
concept of sterilization. Methods of sterilization (Dry heat, Wet heat, radiation,
chemical and filteration etc.) |
04 |
|
Classification of microorganisms. |
|
|
Concept
of microbial species and strains, Seroty pcs. |
03 |
|
Characteristic
features of eubacteria, archaebacteria,
cyanobacteria, protozoa & viruses. |
04 |
|
Various
forms of microorganisms-PPLOs, cocci,
bacilli and spirilla. |
01 |
|
Microbial
genetics. |
04 |
|
Nature
of the microbial cell surfaces (Gram positive and Gram negative) ultra
structure of flagella. |
04 |
|
Prokaryotic
and eukaryotic microbial cells. |
03 |
|
Nutritional
classification of microorganisms. |
02 |
|
Microbes
in extreme environments- the thermophiles and alkalophiles, archaic & cryogenic. |
02 |
|
Pathogenic
microorganisms. Defence mechanism against
microorganisms (Non specific defence only) |
06 |
|
Symbiosis
and antibiosis among microbial populations. |
02 |
|
N2
– fixing microbes in agriculture. |
03 |
|
Microbial
metabolism. Fermentation products. A survey of products from microorganisms. Strain
improvement by enrichment, selection and recombinant DNA methods. Production
of heterologus proteins of interest in
microorganisms, Antibiotic production. |
07 |
|
Paper- VI BIOCHEMICAL
TECHNIQUES (Practical)
|
|
|
Quantitative
estimation of the following in biological samples |
|
|
Sugar
in given solutions |
1x3 hrs |
|
Sugar
in biological samples |
1x3 hrs |
|
Extraction
and separation of Lipids |
2x3 hrs |
|
Estimation
of proteins |
2x3 hrs |
|
Estimation
of DNA/DNA |
2x3 hrs |
|
Isolation
and purification of proteins |
10x3
hrs |
|
Assays
of enzyme activity |
2x3 hrs |
|
Kinetic
studies on enzymes |
5x3 hrs |
|
Chromatographic
methods for separation of macromolecules |
5x3 hrs |
|
Paper- VII MICROBIOLOGICAL
TECHNIQUES (Practical)
|
|
|
Aseptic
techniques: |
|
|
Cleaning
of glassware |
2x3
hrs. |
|
Preparation
of media, cotton plugging and sterilization |
2x3
hrs. |
|
Personal
hygiene-Microbes from hands, tooth-scum and other body parts |
2x3
hrs. |
|
Isolation
of microorganisms from air, water and soil samples. |
|
|
Dilution
and pour plating. Colony purification. |
2x3
hrs. |
|
Enumeration
of microorganisms. Total vs viable counts. |
2x3
hrs. |
|
Identification
of isolated bacteria. Gram staining, other staining methods, metabolic
characterization (e.g. IMViC test) |
2x3
hrs. |
|
Growth
curve of microorganisms. |
3x3
hrs. |
|
Antibiotic
sensitivity of microbes, use of antibiotic discs. |
2x3
hrs. |
|
Testing
of water quality. |
4x3
hrs. |
|
Test
for antibodies against given bacteria. |
3x3
hrs. |
|
One
step growth of bacteriophage. |
3x3
hrs. |
|
Culture
from body fluids (Stool, Urine, Blood) |
2x3
hrs. |
|
Alcoholic
and mixed-acid fermentation. |
2x3
hrs. |
Paper-VIII
ON
THE JOB TRAINING-Project
The
students should be assigned to assist a clinic (in a hospital), a
fermentation plant, brewery or bakery and watch the various stages in brewing
and baking and post fermentation processing. Prior arrangement must be made of the mode
of interaction of the educational institution with the clinic and the
industry. Paper- IX BIOPHYSICS
|
|
|
Energetics of a living body. Sources of heat limits to
temperature. Heat dissipation and conservation. |
02 |
|
Lambert-Beer
law. Spectrophotometry and colorimetry
Primary events in photosynthesis. |
02 |
|
Strategies
of light reception in microbes, plants and animals. |
01 |
|
Vision
faults & correction. |
01 |
|
Electrical
properties of biological compartments. |
|
|
Electricity
as potential signal. |
01 |
|
Generation
and reception of sonic vibrations. Hearing aides. |
02 |
|
Intra-and
intermolecular interactions in biological systems. Spatial and charge
compatibility as determinant of such interactions. |
02 |
|
Physical
methods applied to find out molecular structure X-ray crystallography and
NMR. |
05 |
|
General
spectroscopy: UV-vis, fluorescence, atomic
absorption, IR, Raman spectra. |
05 |
|
Physical
methods of imaging intact biological structures: -
Ultrasound -
Optical filters -
X-ray -
CT scan -
ECG -
EEG -
NMR imaging |
10 |
|
Centrifugation-
Principles, instrumentation & applications. |
05 |
|
Electorphoresis- Principles, instrumentation & applications. |
05 |
|
Paper- X MOLECULAR
BIOLOGY |
|
|
Molecular
basis of life |
02 |
|
Structure
of DNA |
01 |
|
DNA
replication in prokaryotes and eukaryotes. |
04 |
|
DNA
recombination molecular mechanisms in prokaryotic and eukaryotic. |
02 |
|
Insertion
elements and transposons. |
03 |
|
Structure
of prokaryotic genes. |
01 |
|
Prokaryotic
transcription. |
03 |
|
Prokaryotic
translation. |
03 |
|
Prokaryotic
gene expression (lac, his, tri, catabolic
repression). |
10 |
|
Structure
of eukaryotic genes. |
02 |
|
Eukaryotic
transcription. |
02 |
|
Eukaryotic
translation. |
02 |
|
Eukarytoc gene expression transcription factors etc. |
10 |
|
Gene
expression in yeast. |
02 |
|
Gene
expression in protozoan parasites. |
02 |
|
Gene
organization and expression in mitochondria chloroplasts. |
06 |
|
Post translational
regulation of gene expression. |
02 |
|
Development
and environment regulation of gene expression. |
03 |
|
Paper- XI IMMUNOLOGY
|
|
|
The
Immune system and Immunity along with historical perspective. |
02 |
|
The organs
and the cells of the immune system and their function |
06 |
|
Antigen;
antibody, types, structure, distribution & & functions. |
04 |
|
Origin
of diversity in the immune system. |
02 |
|
Humoral and cell mediated immunity (role if MHC and genetic restriction) |
07 |
|
Effector mechanisms. |
04 |
|
Antigen-antibody
interaction |
05 |
|
Immunity
to infectious diseases, vaccines |
|
|
(Traditional & new generation) |
05 |
|
Paper- XII ANIMAL CELL CULTURE
|
|
|
History
of development of cell cultures. |
01 |
|
The
natural surroundings of animal cells. |
01 |
|
Metabolic
capabilities of animal cells. |
02 |
|
Simulating
natural condition for growing animal cells. |
01 |
|
Importance
of growth factors of the serum Primary cultures, |
01 |
|
Non-anchorage
dependent cells. |
01 |
|
Secondary
cultures. Transformed animal cells-Established/continuous cell lines. |
02 |
|
Characterization
of lines |
01 |
|
Commonly
used animal cell lines- their origin and characteristics |
02 |
|
Growth
kinetics of cells in culture. |
01 |
|
Cryopreservation |
01 |
|
Applications
of animal cell culture for studies on gene expression |
01 |
|
Organ
culture. |
02 |
|
Transfection of animal cells: Selectable markers, HAT selection,
antibiotic resistance etc. |
02 |
|
Cell
fusion |
02 |
|
Transplantation
of cultured cells |
01 |
|
Differentiation
of cells |
02 |
|
Paper- XIII RECOMBINANT DNA TECHNOLOGY
|
|
|
What is
gene cloning and why do we need to clone a gene? |
02 |
|
Tools
and core techniques in gene-manipulation, Enzyme and other reagents,
techniques, laboratory requirements. |
05 |
|
Safety
measures and regulations for recombinant DNA work |
01 |
|
Vectors:
Plasmids, bacteriophages, phagemids,
cosmids, viruses |
04 |
|
Purification
of DNA from bacterial, plant and animal cells. |
03 |
|
DNA
amplification using PCR; DNA sequencing. |
02 |
|
Cloning
strategies- construction of genomic libraries and CDNA libraries. Probe
construction, recombinant selection & screening. |
05 |
|
Introduction
of DNA into living cells. |
02 |
|
Cloning
vectors for E.coli. |
02 |
|
Cloning
vectors for organisms other than E.coli
yeast, fungi, agrobact, erium, plant and animal viruses. |
02 |
|
Application
of rDNA technology In studying gene structure &
expression In medicine (insulin, recombinant
vaccine diagnostic reagents and other
pharmaceutical compounds) In agriculture |
07 |
|
Paper-XIV METHODS IN MOLECULAR AND CELLULAR BIOLOGY (Practical)
|
|
|
Cytological
preparations: |
|
|
-
Fixation, dehydration and Staining -
Squash in stain -
Embedding and sectioning |
3x3
hrs. 2x3
hrs. 3x3
hrs. |
|
Cell
counting methods: -
The haemcytometer and other aides Measurements
with the help of light microscope -
Calibration of ocular micrometer -
Finding out average cell size -
Chromosome lengths -
Separation of cell types (from blood) |
2x3
hrs. 1x3
hrs. 1x3
hrs. 1x3
hrs. 1x3
hrs. |
|
Separation
of cell organelles: |
|
|
- Methods for cell lysis:
rupture/Osmotic/Chemical/Enzymatic lysis of
cells followed by centrifugation. Monitoring cell lysis
by release of cellular material
and by change in light scattering etc. |
2x3
hrs. |
|
- Mechanical rupture of cells:
Ultrasonic vibrations; French pressure followed
by centrifugation for cell organelles. |
2x3
hrs. |
|
Extraction
cellular materials -
Extraction in saline buffers -
Extraction in solvents -
Precipitation from extracts |
2x3
hrs. 2x3
hrs. 2x3
hrs. |
|
Separation
of the constituent molecules of the extract in aqueoust
buffer -
Gel filtration -
Ion exchange chromatorgraphy |
3x3
hrs. 2x3
hrs. |
|
Thin
layer chromatography of extracted material |
2x3
hrs. |
|
Isolation
of chromosomal and plasmid DNA from bacteria. |
4x3
hrs. |
|
Restriction
digestion of DNA and assigning restriction sites (may be done as demonstration) |
2x3
hrs. |
|
Making
competent E. coli |
2x3
hrs. |
|
Transfection of plasmid DNA and selection for transformants.
|
3x3
hrs. |
|
Paper- XV IMMUNOLOGICAL METHODS (Practical)
|
|
|
Purification
of antigens |
4x3
hrs. |
|
Raising
polyclonal antibodies
|
Spread
over 8 weeks |
|
Purification
of antibodies |
4x3
hrs. |
|
Conjugation
and labeling antibodies |
2x3
hrs. |
|
Enzyme-linked
immunoassay |
3x3
hrs. |
|
Radioimmunoassay |
3x3
hrs. |
|
Radial immunodiffusion analysis |
2x3
hrs. |
|
Generation
of ascitic fluid |
3x3
hrs. |
|
Diagnosis
of an infectious disease by an immunoassay |
3x3
hrs. |
|
Paper- XVI ON THE JOB TRAINING- Project
This should
be taken up during summer over a period of one month preferably in an
immunology/virology institute or a laboratory using recombinant DNA methods. Paper- XVII ANIMAL CELL BIOTECHNOLOGY
|
|
|
General
metabolism |
02 |
|
(Insulin,
Growth hormone, Interferon, t-plasminogen
activator, factor VIII etc.) |
03 |
|
Expressing
cloned proteins in animal cells. Over production and processing of chosen
protein |
02 |
|
The
need to express in animal cells |
01 |
|
Production
of monoclonal antibodies |
02 |
|
Production
of vaccines Growth
factors promoting proliteration of animal cells
(EGF, FGF, PDGF,IL-1, IL-2, NGF, erythropoientin
etc.) |
04 |
|
Bioreactors
for large scale culture of cells. |
04 |
|
Transplanting
cultural cells. |
01 |
|
|
|
|
Paper- XVIII PLANT
BIOTECHNOLOGY |
|
|
Introduction
to in vitro methods. Terms and definitions. Use of growth regulators |
02 |
|
Beginning
of in vitro culture in our country (ovary and ovule culture, in vitro
pollination and fertilization) |
01 |
|
Embryo
culture, embryo rescue after wide hybridization, and its applications |
01 |
|
Introduction
to the processes of embryogenesis and organogenesis and their practical
applications. |
02 |
|
Clonal multiplication of elite species (Micropropagation)
axillary bud, shoot-tip and meristem
culture. |
02 |
|
Haploid
and their applications. Somaclonal variations and
applications (Treasure your exceptions) |
02 |
|
Endosperm
culture and production of triploids |
01 |
|
Practical
applications of tissue and organ culture (summarizing the practical
application of all the above mentioned techniques) |
01 |
|
Single-cell
suspension cultures and their applications in selection of variants/mutants
with or without mutagen treatment (of haploid cultures preferably) |
02 |
|
Introduction
of protoplast isolation; principles and applications |
01 |
|
Testing
of viability of isolated protoplats |
01 |
|
Various
steps in the regeneration of protoplats |
01 |
|
Somatic
hybridization-an introduction. |
02 |
|
Various
methods for fusing protoplasts. Chemical, electrical |
01 |
|
Use of markers
for selection of hybrid cells |
01 |
|
Practical
applications of somatic hybridization (hybrids vs cybrids) |
01 |
|
Use of
plant cell, protoplasts and tissue culture for genetic manipulation of
plants. Introduction to A. Tumefaciens. |
02 |
|
Tumor formation
on plants using A. tumefaciens
(Monocots vs Dictos) |
|
|
Root-formation
using A.rhizoqenes |
01 |
|
Practical
application of genetic transformation. |
01 |
|
Paper-XIX ENVIRONMENTAL BIOTECHNOLOGY
|
|
Renewable
and non-renewable resources |
02 |
|
Conventional
fuels and their environmental impacts: -
Firewood -
Plant and animal wastes -
Coal -
Gas -
Animal oils -
Petroleum |
03 |
|
Modern
fuels and their environmental impacts -
Methogenic bacteria and biogas -
Microbial hydrogen production -
Conversion of sugars to ethanol. The gasohol experiment. -
Solar energy converters- Hopes from the photosynthetic pigments -
Plant based petroleum industry? -
Biomass production & Cellulose degradation for combustible fuel |
08 |
|
Microbiological
quality of food and water, Environmental monitoring (Physical &
Chemical), biological analysis; Biosensors. |
06 |
|
Treatment
of municipal waste (solid & liquid) |
03 |
|
Treatment
of industrial effluents |
03 |
|
Degradation
of pesticides and other toxic chemicals by microorganisms & plants. |
04 |
|
Thuringiensis toxin as a natural pesticide |
01 |
|
Biological
control of insects & pathogens |
02 |
|
Enrichment
of ores by microorganisms |
02 |
|
Nitrogen
fixing microorganisms enrich the soil with assimilable
nitrogen. |
03 |
|
Biofertilizers- classification, production & applications. |
|
|
Paper- XX PROJECT WORK
The
students will be assigned to generate data on certain research projects
and/or compile available information from literature on a given topic of
biotechnological relevants. The project work will
span over a period one semester under the supervision of chosen faculty
member. Paper-XXI
CULTURE METHODS (Practical)
|
|
|
Configuration
of a good TC Lab, Good Lab Practice
Initiating plant tissue, culture: |
|
|
(dedifferentiation
of explants) |
6x3
hrs. |
|
Growth
of plant cells into undifferentiated mass |
6x3
hrs. |
|
Large
scale cultivation of plant cells in suspension |
4x3
hrs. |
|
Induction
of differentiation by modulating the hormonal balance |
6x3
hrs. |
|
Culture
of lymphocytes from blood samples. Preparation of media, Filter
sterilization, monitoring microbial contamination (bacteria, fungi and mycoplasma)Cloning of animal
cells by cell and colony purification. |
4x3
hrs. |
|
Fusion
of cultured cells with myeloma cells |
8x3
hrs. |
|
Production
of monoclonal antibodies at a large scale |
6x3
hrs. |
|
Demonstration/operation
of large scale fermenters |
6x3
hrs. |
|
Paper- XXII ENTREPRENEURSHIP
The
students will be delivered lecture on how to select for a product line, design and develop
processes, economies on material & energy requirement, stock the product and
release the same for marketing etc. The basic regulations of excise also
should be aprised to the candidates. In parallel
the students will be asked to survey the demand for a given product,
feasibility of its production under the given constraints of raw material
energy input financial situations export potential etc. Procedural details on
how to select process, how to move for loans, how to operate and how to repay
the loans in a phasic manner should also be
highlighted during the lectures. The semester should end with submission of a
draft project by the students. |