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Department of Biological Sciences

biological science pilani

Matching with the Institute philosophy of integrated approach to the modern areas of science and technology, the Department of Biological Sciences at the BITS Pilani was formed by merging the existing Botany and Zoology Department in the year 1969. Since then the Department is engaged in providing the quality education to the selected students and contributing to the field of modern biology by the adequate research input. Drawing manpower from Biology, Pharmacy, Chemistry and Computer Science Departments, the institute created Centre for Biotechnology. The centre was formally launched in the year 1999 with the active fund support and technical expertise from Uniformed Services University of Health Sciences, Bethesda, Maryland, USA. Currently the Department is offering M.Sc.(Hons) Biological Sciences, M.E.(Biotech) and Ph.D Programmes.

  • The Vision
  • The Mission
  • The Department is committed to achieving high standards in both research and teaching, and to become a sought-after destination for highly motivated students and faculty. The Department aspires to lead in the areas of diagnostics and preventives, infectious and non-infectious human diseases, and sustainable agriculture and environment.

    The Outcome of the Degree Programs

    MSc.Biological Sciences

    • By the end of the course, the student becomes well equipped with the knowledge in interdisciplinary subjects to understand the need and impact of biotechnological solutions on environment and societal context keeping in view need for sustainable solution.
    • The student gets hands-on experience in basic biology/molecular biology and related techniques to venture into research world for a good career within country and abroad.
    • With practical hands on exposure and the institutional academic program, student develops a sustainable approach in both academia and corporate sectors.

    ME. Biotechnology

    • The student gets a flavor of advanced research which might ignite his skills and abilities to pursue PhD within country or abroad.
    • In concurrence with the teaching associateship and related activities, the student possesses strength and spirit to motivate students and help them in learning process.
    • The student acquires knowledge about recent technological developments in upcoming areas of biotechnology catering them to different bio-based industries and take up a responsible position.

    Outcomes of PhD Biosciences program

    • Upon successful completion of the doctoral program, the student is transformed from an amateur to professional researcher who is capable of planning and executing projects in his/her area of expertise.
    • The scholar attains an in-depth knowledge on a specific topic of research and related fields and can participate in a healthy discussion on the subject with experts in a forum.
    • Through rigorous training in laboratory courses, the scholar can independently handle certain courses and proves an asset to any institution he/she joins as a faculty in relevant discipline.

  • To maintain high standards of teaching by innovating pedagogy, instilling in students the ability to be lifelong learners, and continually upgrading the program curriculum of both first degree and higher degree courses in line with international standards of biology education and to meet the requirement of industry and research community.
    To provide a flexible curriculum that allows the students to study courses of his/her choice (through Elective courses) that will fulfill their aptitude and professional aspirations.
    To provide a flexible, accommodative and conducive environment for faculty members and doctoral students to flourish in teaching and research.
    To create opportunities and a supporting infrastructure for students – through laboratory courses, projects, dissertations, and possible entrepreneurial ventures in biotechnology to achieve their aspirations.
    To contribute to societal outreach by inviting students from other institutions to work in the Department in an internship programmes and to organize workshops/short-term courses relevant to contemporary expectations in the Biotechnology Industry and R&D facilities.

Programmes Offered

We offer a number of courses ranging from introduction to Bioinformatics to Genetic engineering. The course details...

Research

The department is capable of undertaking contract research projects sponsored by a company, commercial organization or institution with a predefined work scope and schedule. We will act as an extension of the sponsoring company's scientific and engineering expertise, allowing it to leverage resources. We also can work closely with companies to define project goals and tailor the project to meet specific needs. Results will be strictly proprietary to the sponsor, and customer satisfaction quality checks will be conducted immediately following completion of all contract research projects.

Scholars

Facilities

latest update

Achievements

Staff & Scholars

DST Woman Scientist
Name: Monika Sandhu (2017-2020)

Project title: Development of bioinoculant based formulation for enhanced phytoremediation of polychlorinated biphenyl (PCB) contaminated soil Project: DST WOS-B (2017-2020)

Increased industrialization over the last century has led to elevated releases of anthropogenic chemicals into the environment. Polycyclic aromatic hydrocarbons (PAHs), polychlorinated biphenyls (PCBs), phenols, pesticides, herbicides, metals, and salts are some common examples of organic chemicals which have been widely distributed in environment throughout the globe. The contamination of soil with aromatic compounds like PCB‟s is of particular environmental concern as they exhibit carcinogenic and mutagenic properties. Twelve organic compounds have been listed as persistent organic pollutants (POPS) by the Stockholm Convention on Persistent Organic Pollutants, under the United Nations Environment Programme. PCBs are one of the major class of POP, represented by 209 individual derivatives with biphenyl rings chlorinated at different positions. Due to their volatility, chemical stability and ability to enter food chains they constitute a substantial environmental and health risk for plants, animals and humans. PCBs have been found to absorb by humans and animals through their skin, lungs, and gastrointestinal tract, leading to increased risk of developing cancer and developmental disabilities. The removal of PCBs has been a challenge. Although various physicochemical processes have been reported they suffer from the disadvantage of either being difficult in operational aspects, expensive and harmful to the environment. Hence, the development of methodology that would result in safe, economical and maximal degradation of PCBs is the urgent need of time. Thus, with a global demand for sustainable and green bioremediation technologies tackling the menace of toxic synthetic organic compounds in environmental soil, the use of PGPR or the consortia of PCB degraders that exhibit improved biodegradation capabilities and are able to maintain stable relationships with plants is highly recommended. Hence the proposed project focuses on development of formulation of bacterial consortia/consortium capable of degrading PCB to enhance phytoremediation of PCB contaminated soil.

Dr. Jola Dubey (2018-20)

Production and use of indigenous local strains of microbial pesticides through trainings, demonstrations and installation of cost effective production units for the farmers of Rajasthan.

As per the recent survey crop pests are one of the major factor responsible for decrease in crop yield. Chemical pesticides are widely used in controlling these pests. Each year approximately 5.6 billion pounds of chemical pesticides are used worldwide. Extensive and deliberate use of chemical pesticides account for the ecological unbalance. The heavy use of pesticides is causing serious damage to soil, groundwater, ecosystem and human health. Therefore, it is utmost important to find out suitable and sustainable ways to overcome the usage of chemical pesticides for protecting the crops without hampering the agricultural output. In the recent years chemical pesticides are slowly being substituted by biopesticides to control plant pests and plant diseases Microbial pesticides are preparations containing living microorganisms (Bacteria, Fungi, Viruses, Nematodes etc.) which are pathogenic for the insects- pests and plant pathogens. Proposed project is aimed to isolate indigenous effective strains of microbial pesticides i.e. Bacillus thuringenesis(Bt), Psudomonas fluorescence, Trichoderma viride, Beauveria bassiana and Metarhizium anisopliae from the proposed districts of Rajasthan and to characterize them for their disease and insect-pests controlling potential through conducting in vitro and in vivo trials. It is also proposed to organize training and demonstration programmes on production and use of microbial pesticides for the farmers. Field demonstrations on efficacy of various microbial pesticides using indigenous strains shall be conducted in farmers fields. Group of farmers/ individual farmer shall be encouraged to establish their own production unit and produce microbial pesticides for their own use or for the entire group at their respective places. Community centres shall be developed at village or block level for mass production of microbial pesticides taking financial assistance from district administration. It is also proposed to develop organic block / village using microbial pesticides produced at community centres. A part of that, efforts shall also be made to establish more number of production units with the help of department of agriculture and horticulture under the various projects. Objectives of the project shall be implemented in collaboration with state department of agriculture and horticulture as well as other extension agencies i.e. NABARD, NGOs etc.

Dr Prakash Sarwa DST Young Scientist (2016-18)

Removal of toxic metal ions from industrial discharge using microalgae

An increase in environmental contamination due to toxic industrial discharges have become a worldwide problem today. The aqueous discharges emanating from industrial processes such as mining, smelting, metal-plating, textile and dyeing industries contain dissolved heavy metals and other pollutants that can generate signi?cant environmental problems. Conventional methods of heavy metal removal from wastewater are very costly and not eco friendly, also generates huge toxic sludge at the end of process. Therefore, in recent years, the use of microbial biomass for detoxi?cation of industrial e?uents for environmental protection and recovery of valuable metals through biosorption o?ers a potential alternative to existing technologies. Among microbial biosorbents, microalgae can be used as a promising candidate for removal of metal ions from wastewater due to their existence in all habitats, easy cultivation and regeneration in wastewater. The proposed work aims to utilize microalgae as a potential biosorbent for detoxification and removing of toxic heavy metals from industrial discharges. The work includes the isolation of microalgae from contaminated sites of industries and their identification and characterization using standard microbial techniques. Investigation of the isolated microalgae for maximum absorption of heavy metals from simulated and industrial effluent in a batch and continues column system. Recovery of the absorbed metal and regeneration of biosorbent using suitable desorbing agent for its continues use in absorption and desorption cycles.

Dr. Shachi Singh (2014-16)

Enhancing Phytochemical Production by the use of Elicitors

Due to the high and increasing incidents of diseases, there had been concerted efforts to raise public awareness about the advantages of eating a healthy diet. Among food products, fruits and vegetables are especially known to have a high potential for preventing diseases due to their broad range of health promoting phytochemicals. Numerous epidemiological studies have already documented an inverse association between fruit and vegetable consumption and chronic diseases. However, despite of the requirement of a healthy diet, it is observed that the overall fruit and vegetable consumption by the general population is relatively low, and is also well under internationally recommended amounts. The reason for this low fruit and vegetable consumption could be compounded by consumer complacency, low income, and poor educational standards. One way of increasing the consumption of health-promoting phytochemicals in the diet would be by increasing their levels in the fruit and vegetables themselves. Hence, the proposed work aims to enhance the production of these phytochemicals by the use of elicitors. The elicitors are defined as compounds, which can qualitatively and quantitatively alter the content of bioactive secondary metabolites (phytochemicals) and could be biotic or abiotic in nature. Fruits and vegetables enriched with phytochemicals can be used for sale as fresh market products or as raw material for functional foods and supplements.

Dr. Prameela Jha (2013-15)

Endophytic bacteria mediated phytoremediation of organic pollutants

Organic pollutants like polyaromatic hydrocarbons (PAHs), polychlorinated biphenyls (PCBs) among others are known to pose serious environmental problems and potential human health risks being persistent and resistant to natural detoxification or mineralization. Modern life style and increased anthropogenic activities leads to burgeoning accumulation of these compounds in ecosystem. The existing chemical methods to cleanup affected areas are expensive and environmental invasive. Plant and certain associated microbes carry natural detoxification of pollutants by the process named as phyto/rhizoremediation appear to be method of choice for environmental cleanup. This project deals with isolation and identification bacterial genera endowed with the potentials to carry bioremediation. Also, we are focusing on the development of the method/s for detection and quantification of key genes encoding degradative enzymes that can be used to monitor the influence of phytochemicals/secondary plant metabolites/root exudates etc. on the size of population and activity of degraders organism during remediations. We are aiming to increase solubilization of pollutants to increase its bioavailability to either plants degrading microflora through biosurfactant production.

Project title: Development of bioinoculant based formulation for enhanced phytoremediation of polychlorinated biphenyl (PCB) contaminated soil Project: DST WOS-B (2017-2020)

Increased industrialization over the last century has led to elevated releases of anthropogenic chemicals into the environment. Polycyclic aromatic hydrocarbons (PAHs), polychlorinated biphenyls (PCBs), phenols, pesticides, herbicides, metals, and salts are some common examples of organic chemicals which have been widely distributed in environment throughout the globe. The contamination of soil with aromatic compounds like PCB‟s is of particular environmental concern as they exhibit carcinogenic and mutagenic properties. Twelve organic compounds have been listed as persistent organic pollutants (POPS) by the Stockholm Convention on Persistent Organic Pollutants, under the United Nations Environment Programme. PCBs are one of the major class of POP, represented by 209 individual derivatives with biphenyl rings chlorinated at different positions. Due to their volatility, chemical stability and ability to enter food chains they constitute a substantial environmental and health risk for plants, animals and humans. PCBs have been found to absorb by humans and animals through their skin, lungs, and gastrointestinal tract, leading to increased risk of developing cancer and developmental disabilities. The removal of PCBs has been a challenge. Although various physicochemical processes have been reported they suffer from the disadvantage of either being difficult in operational aspects, expensive and harmful to the environment. Hence, the development of methodology that would result in safe, economical and maximal degradation of PCBs is the urgent need of time. Thus, with a global demand for sustainable and green bioremediation technologies tackling the menace of toxic synthetic organic compounds in environmental soil, the use of PGPR or the consortia of PCB degraders that exhibit improved biodegradation capabilities and are able to maintain stable relationships with plants is highly recommended. Hence the proposed project focuses on development of formulation of bacterial consortia/consortium capable of degrading PCB to enhance phytoremediation of PCB contaminated soil.

Dr. Jola Dubey (2018-20)

Production and use of indigenous local strains of microbial pesticides through trainings, demonstrations and installation of cost effective production units for the farmers of Rajasthan.

As per the recent survey crop pests are one of the major factor responsible for decrease in crop yield. Chemical pesticides are widely used in controlling these pests. Each year approximately 5.6 billion pounds of chemical pesticides are used worldwide. Extensive and deliberate use of chemical pesticides account for the ecological unbalance. The heavy use of pesticides is causing serious damage to soil, groundwater, ecosystem and human health. Therefore, it is utmost important to find out suitable and sustainable ways to overcome the usage of chemical pesticides for protecting the crops without hampering the agricultural output. In the recent years chemical pesticides are slowly being substituted by biopesticides to control plant pests and plant diseases Microbial pesticides are preparations containing living microorganisms (Bacteria, Fungi, Viruses, Nematodes etc.) which are pathogenic for the insects- pests and plant pathogens. Proposed project is aimed to isolate indigenous effective strains of microbial pesticides i.e. Bacillus thuringenesis(Bt), Psudomonas fluorescence, Trichoderma viride, Beauveria bassiana and Metarhizium anisopliae from the proposed districts of Rajasthan and to characterize them for their disease and insect-pests controlling potential through conducting in vitro and in vivo trials. It is also proposed to organize training and demonstration programmes on production and use of microbial pesticides for the farmers. Field demonstrations on efficacy of various microbial pesticides using indigenous strains shall be conducted in farmers fields. Group of farmers/ individual farmer shall be encouraged to establish their own production unit and produce microbial pesticides for their own use or for the entire group at their respective places. Community centres shall be developed at village or block level for mass production of microbial pesticides taking financial assistance from district administration. It is also proposed to develop organic block / village using microbial pesticides produced at community centres. A part of that, efforts shall also be made to establish more number of production units with the help of department of agriculture and horticulture under the various projects. Objectives of the project shall be implemented in collaboration with state department of agriculture and horticulture as well as other extension agencies i.e. NABARD, NGOs etc.

Dr Prakash Sarwa DST Young Scientist (2016-18)

Removal of toxic metal ions from industrial discharge using microalgae

An increase in environmental contamination due to toxic industrial discharges have become a worldwide problem today. The aqueous discharges emanating from industrial processes such as mining, smelting, metal-plating, textile and dyeing industries contain dissolved heavy metals and other pollutants that can generate signi?cant environmental problems. Conventional methods of heavy metal removal from wastewater are very costly and not eco friendly, also generates huge toxic sludge at the end of process. Therefore, in recent years, the use of microbial biomass for detoxi?cation of industrial e?uents for environmental protection and recovery of valuable metals through biosorption o?ers a potential alternative to existing technologies. Among microbial biosorbents, microalgae can be used as a promising candidate for removal of metal ions from wastewater due to their existence in all habitats, easy cultivation and regeneration in wastewater. The proposed work aims to utilize microalgae as a potential biosorbent for detoxification and removing of toxic heavy metals from industrial discharges. The work includes the isolation of microalgae from contaminated sites of industries and their identification and characterization using standard microbial techniques. Investigation of the isolated microalgae for maximum absorption of heavy metals from simulated and industrial effluent in a batch and continues column system. Recovery of the absorbed metal and regeneration of biosorbent using suitable desorbing agent for its continues use in absorption and desorption cycles.

Dr. Shachi Singh (2014-16)

Enhancing Phytochemical Production by the use of Elicitors

Due to the high and increasing incidents of diseases, there had been concerted efforts to raise public awareness about the advantages of eating a healthy diet. Among food products, fruits and vegetables are especially known to have a high potential for preventing diseases due to their broad range of health promoting phytochemicals. Numerous epidemiological studies have already documented an inverse association between fruit and vegetable consumption and chronic diseases. However, despite of the requirement of a healthy diet, it is observed that the overall fruit and vegetable consumption by the general population is relatively low, and is also well under internationally recommended amounts. The reason for this low fruit and vegetable consumption could be compounded by consumer complacency, low income, and poor educational standards. One way of increasing the consumption of health-promoting phytochemicals in the diet would be by increasing their levels in the fruit and vegetables themselves. Hence, the proposed work aims to enhance the production of these phytochemicals by the use of elicitors. The elicitors are defined as compounds, which can qualitatively and quantitatively alter the content of bioactive secondary metabolites (phytochemicals) and could be biotic or abiotic in nature. Fruits and vegetables enriched with phytochemicals can be used for sale as fresh market products or as raw material for functional foods and supplements.

Dr. Prameela Jha (2013-15)

Endophytic bacteria mediated phytoremediation of organic pollutants

Organic pollutants like polyaromatic hydrocarbons (PAHs), polychlorinated biphenyls (PCBs) among others are known to pose serious environmental problems and potential human health risks being persistent and resistant to natural detoxification or mineralization. Modern life style and increased anthropogenic activities leads to burgeoning accumulation of these compounds in ecosystem. The existing chemical methods to cleanup affected areas are expensive and environmental invasive. Plant and certain associated microbes carry natural detoxification of pollutants by the process named as phyto/rhizoremediation appear to be method of choice for environmental cleanup. This project deals with isolation and identification bacterial genera endowed with the potentials to carry bioremediation. Also, we are focusing on the development of the method/s for detection and quantification of key genes encoding degradative enzymes that can be used to monitor the influence of phytochemicals/secondary plant metabolites/root exudates etc. on the size of population and activity of degraders organism during remediations. We are aiming to increase solubilization of pollutants to increase its bioavailability to either plants degrading microflora through biosurfactant production.

Office Staff
 Name  Email  Phone
Mr. Kamlesh Kumar Soni kamlesh.soni@pilani.bits-pilani.ac.in  +91-1596-25-5273
Mr. Mukesh Saini mukesh.saini@pilani.bits-pilani.ac.in  +91-1596-25-5273
Mr. Subhash Chander Rohilla subhash.chander@pilani.bits-pilani.ac.in  +91-1596-25-5273
Mr. Naresh Kumar Saini naresh.saini@pilani.bits-pilani.ac.in  +91-1596-25-5273
Mr. Ajay Kumar Yadav ajay.yadav@pilani.bits-pilani.ac.in
 +91-1596-25-5273 
Mrs. Kaushalya Shekhawat kaushalya@pilani.bits-pilani.ac.in
 +91-1596-25-5273 
Dr. Iti Sharma iti.sharma@pilani.bits-pilani.ac.in
 +91-1596-25-5273 
Mr. Prathamesh Rasse prathamesh.rasse@pilani.bits-pilani.ac.in
 +91-1596-25-5273 

MAGAZINE

The Biological Society, Department of Biological Sciences, BITS Pilani organized an online event for pre-launch of the Departmental Magazine “Genesis issue: April 2021” on Saturday, 24th April 2021.

This issue is dedicated to the respectful memory of Dr. Sandhya Mitra, former Professor, Department of Biological Sciences, BITS Pilani. The event was graced by the presence and talks delivered by two eminent BITS Alumni.
 
An informative talk on "The joys and sorrows of any life in science" was given by Professor Purnananda Gupta Sharma, Department of Biological Sciences, IISER Mohali. "Neuron, Neuron, where art thou? " was the title of the talk delivered by Professor Anand Chandrasekhar, Department of Biological Sciences, University of Missouri. Both the speakers enthralled the students and faculty members present at this online event, by sharing their interesting experiences of graduation days at BITS Pilani.
 

Click here for Genesis September 2022 (fliphtml5.com)

Click here for "Genesis issue: April 2021"

Areas for PhD Qualifying Exam

Our current areas of research are:

A: Environmental and Microbial Biotechnology

B: Parasitology and Vector Biology

C: Bioinformatics and Computational Biology

D: Plant Biotechnology

E: Human Diseases and Immunology

F: Biochemistry

G: Molecular Biology and r-DNA technology

H: Animal Biotechnology

General Note:

The Senate of the Institute has approved that Ph.D. qualifying examination will be conducted in two areas from the list of qualifying examination areas of each department. Each student will choose two subareas; one of these must be the sub-discipline in which he/she proposes to undertake research after the consultation with his/her notional supervisor.

As per requirement, each subarea may have several sections with a total of 150/160 marks for theory and 50/40 marks for viva. The duration of each theory examination will be 3.0-4.0 hrs. Viva may be conducted separately for each sub area. A student will get a maximum of two attempts for clearing the qualifying examination (Ref clause 8.05-8.11 of academic regulation).

Environmental and Microbial Biotechnology

A: Environmental and Microbial Biotechnology

Content:

Microbial evolution; Chemical and molecular methods for microbial identification; microbial systematics and molecular taxonomy; Plant growth promoting microorganisms and mechanisms of colonization; Biocontrol; Microbial metabolism, Genetics of microorganisms; Factors determining microbial ecology, culture-dependent & independent analysis of microbial communities, molecular typing & DNA finger-printing, metagenomics& functional metagenomics, secretomics, stable isotope probing; Sociobiology of microorganisms: quorum-sensing, biofilm; Techniques used for study of host-microbe interaction (IVET, STM, DFI); Synthetic microorganism. Molecular biology and biotechnological application of Achaea.
Basic concept of environment and its component; Definitions and facts related to Environmental Biotechnology; Bioremediation; Biosensor technology

Suggested Books:

  1. Tortora, G.J., Funke, B.R. and Case, C.L. 2007. Microbiology: An Introduction, 9th Ed. (First Impression 2008), Pearson Education, India.
  2. Madigan M.T., Martinko, J.M., Dunlap, P.V., Clark, D.P. (2009). Brock Biology of Microorganism, 12th Ed., Pearson International Education
  3. Environmental Biotechnology by Alan Scragg, Pearson Education Limited, UK.2005.
  4. Biotechnology, a comprehensive treatise, ed by Rehm H J and Reed G, VCH Verleg, Germany, 1999.
Parasitology and Vector Biology

B: Parasitology and Vector Biology:

Content:

Life cycle of parasite (Plasmodium, Trypanosoma, Leishmania,Toxoplasma, Entamoeba, Giardia), and their vectors(Mosquitoes, Sandfly, Tsetse fly); Mosquito borne viruses (Dengue, chikungunya). Taxonomy and identification of parasites and vectors; Molecular biology of parasite and vector (with special emphasis to Plasmodium-Anopheles, Dengue-Aedes);Cellular and humoral mechanisms involved in immunity to parasites; Immunomodulation in vectors;Vector parasite interactions and control strategies - Disease symptoms, Molecular approaches to diagnosis, Epidemiology, drug targets, vaccine strategies and proteomic approaches, prophylaxis, treatments to parasitic diseases and vector control measures, mechanisms of drug resistance in parasites or vectors.
Drosophila life cycle & molecular aspects may also be included as a comparative to what is known about the Anophelines & Culicines.

Suggested Books:

  1. Parasitology and Vector Biology: William C. Marquardt, Richard S. Demaree, Robert B. Grieve Publisher Academic Press, 2000
  2. Insect Immunology: Nancy E. Beckage, 1st edition 2008, Elsevier Press.
  3. The Biology of Mosquitoes: Development, Nutrition and Reproduction, Volume 1, Sensory, Reception, and Behaviour Volume 2 and 3: By A. N. Clement (Cabi Publishing)
  4. Malaria Immunology: 2nd edition, Perlmann, P, Troye-Blomberg, M. Karger AG press, Switzerland
  5. Insect Pathology by Vega from Elsevier 2010
Bioinformatics and Computational Biology

C: Bioinformatics and Computational Biology

Content:

Introduction to genomic & Proteomics, Structural genomics and proteomics, Human Genome project and other sequencing projects, Biological databases and data mining, sequence similarity search and sequence alignment, Protein structure predication and structure analysis, use of software package in Bioinformatics. Biomolecular Conformations, protein folding, Forcefield, Simulation, Conformational analysis, ab initio structure prediction, comparative modeling, lattice models, usage of modeling packages,

Suggested Books:

  1. “Introduction to Bioinformatics” by Arther M Lesk, Oxford.
  2. “Bioinformatics Genome and sequence Analysis” by David W Mount, CSHL Press
  3. “Molecular modeling: Principles and Applications” By Andrew R Leach, Pearson Education Lim.
Plant Biotechnology

D: Plant Biotechnology

Content:

Plant tissue culture history; Requirements to grow in vitro plants; Micro propagation, its applications and limitations; Haploid production; Meristem culture; Somaclonal variations; Somatic hybridization: Protoplast isolation and culture; somatic hybrids production; Storing plant genetic resources; Secondary metabolites.
Genetic transformation of plants; Agrobacterium mediated transfer; Ti plasmid technology; Direct gene transfer methods; Vectors for plant transformation; Molecular markers (RFLP, RAPD, AFLP, SNPs, VNTR); Designing of promoters; Stress Biology; Regulation of expression of wheat and rice seed storage protein genes, regulation and evolution of the patatin genes of potato; expression of genes controlling fatty acid biosynthesis; manipulation of cereal protein and oilseed quality, genetic manipulation of pest resistance, plant disease resistance, strategies for engineering stress tolerance, strategies for improvement of crop yield and quality; Starch, polyfructans, bioplastics, the oleosin system, custom made antibodies, edible vaccines; Public concerns over GM crops and government regulations.

Suggested Books:

  1. Bhojwani, S.S. and Razdan, M.K. Plant Tissue Culture: Theory and Practices, A Revised Edition, Elsevier, Reprint 2004.
  2. Narayanaswamy, S. Plant Cell and Tissue Culture, Tata McGraw Hill Publishing Company Limited, 1994 (Ninth Reprint 2008).
  3. Hammond, J. Mc Garvey, P. and Yusibov, Plant Biotechnology. Springer Verlag, Berlin, NY (1999), 2nd Printing 2000.

Adrian Slater, Nigel W. Scott, and Mark R. Fowler: Plant Biotechnology: The Genetic manipulation of plants (Second edition). Oxford University Press (2008).

Human Diseases and Immunology

E: Human Diseases and Immunology

Content:

Basic Understanding of the Cause and Physiological Aspects of Hypertension, Atherosclerosis and Diabetes Type I/II.

Cancer Classification Based on Origin; Mechanisms of Viral Oncogenesis; Proto-oncogenes (src, myc, ras and abl) & Tumor Suppressor Genes (Rb, P53); Receptor Signaling: EGFR, PDGFR, Integrin; Signal Transduction: PI3K-Ras-Akt, Wnt, NFkB, TGFβ; Immuno-evasion Strategies; Molecular Mechanism of EMT and Metastasis; Apoptosis (Extrinsic and Intrinsic), Anti-Cancer Drug Targets.

Cell Mediated and Humoral Immunity, Antigens, Antibodies, MHC, Molecular basis of T and B cell antigen recognition and activation, Hypersensitivity, Immunity to Microbes, Immunological Tolerance, Major Cytokines, Complement system, Autoimmunity (including Type I Diabetes), Immunodeficiency, Transplantation, Basic Concepts in Vaccination.

Suggested Books:

  1. Essentials of Physiology, Lauralee Sherwood, 4th Edition, (2011)
  2. Human Physiology, Stuart Ira Fox, 12th Edition, (2010)
  3. Kuby Immnonology, Thomas J. Krindt, Riachard A. Goldsby and Barbara A. Osborne. 6th edition W.H. Freeman and Company (2007)
  4. Basic Immunology, Abdul K Abbas and Andrew H Lichtman, (2006)
  5. Janeway's Immunobiology, Kenneth Murphy, 8th Edition, Garland Science, (2011)
  6. The Biology of Cancer: Robert A Weinberg. Garland Science Publisher (2007)
Biochemistry

F: Biochemistry

Content:

Organization of cells; Biomolecules (proteins, carbohydrates, lipids, nucleic acids); Enzymes: structure, isolation/purification, kinetics and mechanism of action; Biochemical energetics; Metabolic pathways: Carbohydrate metabolism, Biological oxidations, Lipid metabolism, Photosynthesis, Metabolism of nitrogen.

Physical principles in the biological and biomimetic molecular systems; Conformational and energetical properties of biomolecules like amino acids, proteins, nucleotides, nucleic acids as well as biomimetic systems like monolayers and bilayers; Related physical phenomena in these systems like structural transitions, protein folding, membrane equilibria; Principles of major experimental techniques applied to understand these physical problems.

Suggested Books:

  1. Campbell and Farell, Biochemistry, 5th ed., 2006, Brooks Cole Publishers.
  2. Nelson and Cox, Lehninger’s Principles of Biochemistry, 2008, 5thed, Mac Millan Publishers.
  3. "Biophysical Chemistry, Part I, Part II and Part III", Charles R Cantor and Paul R. Schimmel, W.H. Freeman and Co., New York.
  4. “Principals of Physical Biochemistry” Kensal E. van Holde, W. C. Johnson and P.S. Ho John, 2nd Ed. Pearson Prentice Hall
Molecular Biology and r-DNA technology

G: Molecular Biology and r-DNA technology

Content:

Eukaryotic chromosome and its Organization(Chromosome and chromatin structure the Content of Genome, Clusters and repeats); DNA replication (Prokaryote and eukaryote), Transcription, its control and post-transcriptional modifications; Translation, its control and post-translational modifications; Regulation of gene expression in prokaryotes and eukaryotes (Epigenetic modifications like DNA methylation Histone methylation ,acetylation and phosphorylation, DNA binding domains, Zinc fingers, steroid receptors, leucine zipper, Yeast GAL genes) Eukaryotic cell cycle control and regulation( basic regulation of cell cycle, Signal transduction pathways: MAP-Kinase Jak-Stat, PI3Kinase, Notch, Wnt and Integrin/E-Cadherin); Phage Strategies (Control of lytic cascades in T4, T7 and lambda phage, Maintenance of lysogeny, Repressor synthesis and binding, Balance between lysogeny and lytic cycle); Regulatory RNA Biology (Riboswitch, Regulate gene expression by noncoding RNA, Attenuation and regulation by small RNA molecules, Gene silencing and RNA interference, antisense RNA)

Plasmids as cloning vehicles; plasmid copy number control mechanism, Cosmids; Restriction enzymes, Ligation, Linkers, Adaptors Homo -polymer tailing; Different cloning strategies in gram negative and gram positive bacteria; Screening of Recombinant molecules; Expression vectors and protein purification; PCR, Reverse transcription-PCR (RT-PCR); Site directed mutagenesis; Nucleotide sequencing; Basic Techniques in Recombinant DNA Technology with emphasis on Electrophoresis, Blotting Techniques (Western, Southern, Northern Blotting), DNA and protein microarrays, DNA mediated transformation, viral transduction and electroporation.

Suggested Books:

  1. Lewin’s Genes X: by Jocelyn Krebs, Elliott Goldstein and Stephen Kilpatrick; (10thEd), Jones & Bartlett Publication, 2011
  2. Molecular Biology of Gene: Watson, Baker, Bell, Gann, Lavine&Losick (5th Ed), Pearson Education.
  3. Principle of gene manipulations and genomics, S B Primrose and R.M. Twyman, 7th ed. 2006.
  4. Recombinant DNA Principles & Methodologies, James J. Green &Vengalla B. Rao. Marcel DekkerInc - 1998.
  5. Molecular biology of the Cell, Bruce alberts et al 5th Edition Garland Science.
Animal Biotechnology

H: Animal Biotechnology

Content:

Cell and Tissue Culture: Uses, Advantages and Disadvantages; Primary Cell Culture; Characteristics of Cells in Culture; Sterilization & Media Preparation; Transformation & Immortalization; Cryopreservation; 3D Culture Method; Tissue Engineering; Cell Based Assays (Principle and procedure: Viability, Cyto-toxicity, Staining and Visualization, Flow Cytometry); Scaling Up; Therapeutic & Bio-technological Aspects of Cell Culture.

Basic Characteristic of Embryonic Stem Cells and Adult Stem Cells; IPSCs; Transcriptional and Epigenetic Control of Stem Cells; Therapeutic and Reproductive Cloning Procedure; Cancer Stem Cells, Basics to Culture of Stem Cells; Current Status of Stem Cell Therapy.

Identification of Major Mouse Strains (Congenic, Syngenic and Allogenic); Transgenic Production Basics (Process of pronuclear microinjection and Blastocyst injection); Mouse Knock-out (homologous recombination / dominant negative strategy), Gene Trap, Hypomorphic and Conditional Knockout Strategies (Cre-loxP and FLP/FRT).

Suggested Books:

  1. Culture of Animal Cells: A Manual of Basic Technique and Specialized Applications, Freshney, R.I., Willey-Blackwell Press, 6th Edition (2010)
  2. Animal Cell Culture – Concept and application, Sheelendra M. Bhatt, Narosa Publishing House, New Delhi, (2011)
  3. Animal Cell Technology, Asok Mukhopadhyay. I. K. International Publishing House Pvt. Ltd. (2009)
  4. Essentials of Stem Cell Biology, Robert Lanza, 2nd Edition, Academic Press, (2009)
  5. Stem Cells: Basics and Applications, Deb & Totey, Tata McGraw Hill. (2009)
  6. Principles of Gene Manipulation and Genomics, Sandy B. Primrose, Richard Twyman, (2009)
  7. Gene Targeting & Embryonic Stem Cells, Edited by Thomson & McWhir, Taylor & Francis, (2008)

Transgenic Animal Technology: A Laboratory Handbook, Carl A Pinkert. 2nd Edition, (2002)

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