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- •Preface
- •About the Authors
- •Environmental Biotechnology
- •Microbial Biotechnology
- •Advances in Biotechnology
- •Significant Milestones in Biotechnological Research
- •Historical Contributions of some Leading Scientists
- •Contents
- •Introduction
- •Discovery of Cell and Chromosome Theory of Inheritance
- •Major Branches of Biotechnology
- •Agricultural Biotechnology
- •Medical Biotechnology
- •Pharmaceutical Biotechnology
- •Genetic Evaluation
- •Historical Perspective
- •QUESTIONS
- •Gene Cloning
- •Gene Therapy
- •Protein Biosynthesis
- •DNA Replication
- •Historical Perspectives of Plant tissue Culture
- •Introduction
- •Immune System
- •How the Immune System Works
- •Organs of Immune System
- •Lymphoid System
- •Cells of the Immune System (Fig. 2.3)
- •Principles
- •Innate Immunity
- •Adaptive Immunity
- •Types of Immunity
- •Natural Immunity
- •Acquired Immunity
- •Immune Tolerance
- •Hypersensitivity
- •Antigen
- •Antibodies
- •Haptens
- •Hapten Inhibition
- •Immunomodulators
- •Applications of Immunomodulators
- •Vaccines
- •Formulation of Vaccines
- •Standardization and Evaluation of Vaccines: WHO Approach
- •From Standards to Vaccines of Assured Quality
- •Standards for Different Stages of Vaccine Development
- •Principles for Biological Standardization
- •Vaccine Storage
- •Vaccine Storage Checklist
- •Vaccine Cold Storage
- •Introduction
- •Bioremediation
- •Ex-Situ Bioremediation
- •In-Situ Bioremediation
- •Natural Bioremediation
- •Engineered In-Situ Bioremediation
- •Management of Environmental Pollution
- •Photosynthesis
- •Biological Classification
- •Sewage Treatment by Bacteria and Algae
- •Eutrophication and Phosphorus Pollution
- •Management of Metal Pollution
- •Immobilized Cells in Management of Pollution
- •Management of Air, Waste Gases and Water Pollution
- •Bioreactors
- •Biocatalysts
- •Batch Experiments
- •Management of Water Pollution
- •Aerobic Biotreatment of Wastewater Pollution
- •Introduction
- •Proteins
- •Structure of Proteins
- •Simple proteins
- •Conjugated proteins
- •Primary Structure of Proteins
- •Secondary Structure of Proteins
- •Tertiary Structure of Proteins
- •Quaternary Structure of Proteins
- •Methods of Studying Proteins
- •Proteomics
- •Clinical Applications of Proteomics
- •Proteomics in Lab Diagnosis
- •Proteomics in the Discovery of Protein Biomarkers
- •Proteomics in Neurology
- •Proteomics in Diagnosis
- •Proteomics in the Study of Tumour Metastasis
- •Proteomics in Neurotrauma
- •Proteomics in Urological Cancer Research
- •Proteomics in the Study and Treatment of Autoimmune System
- •Proteomics in Diabetes Research
- •Proteomics in Cardiovascular Research
- •Proteomics in Investigating Plants
- •Established Cell Lines
- •Lag Phase
- •Log Phase
- •Stationary Phase
- •Primary Cell Lines
- •Interaction of Cells
- •Metabolism of Cultured Cells
- •Genetics of Cultured Cells
- •Applications of Cell Cultures
- •Mechanical
- •Biochemical
- •Animal Tissue Culture: Media Requirements
- •Culture Medium
- •Blood Plasma
- •Blood Serum
- •Preparation of Chicken Serum
- •Preparation of Mammalian Serum
- •Serum-Free Medium
- •Tissue Extracts
- •Complex Natural Medium
- •Supplemented Bovine Amniotic Fluid Medium
- •Serum-Supplemented Yeast Extract Medium
- •Serum-Supplemented Lactalbumin Hydrolysate Medium
- •Other Tissue Culture Media
- •Medium no. 612
- •Medium no. 635
- •Medium no. 858
- •Medium no. 866
- •Substrate Surfaces and Treatments
- •Disposable Plastic as a Substrate
- •Palladium and Metallic Surface as Substrates
- •Treatment of Substrate Surfaces
- •Introduction
- •Advantages and Limitations of Tissue Culture Methods
- •Primary and Established Cell Lines
- •Primary Cell Lines
- •Established Cell Lines
- •Kinetics of Cell Growth
- •Feeder Layers on Substrate
- •Gas Phase for Tissue Culture
- •Processing of Culture
- •Glassware and Apparatus
- •Reagents and Media
- •Preparation of Animal Material
- •Disaggregation of Culture
- •Physical Disruption
- •Enzymatic Digestion
- •Treatment with Chelating agents
- •Isolation of Tissue
- •Enzymatic Disaggregation
- •Mechanical Disaggregation
- •Separation of Cells
- •Somatic Cell Fusion
- •Tissue Culture
- •Primary Techniques
- •Slide or Coverslip Cultures
- •Carrel Flask Cultures
- •Test Tube Culture
- •Organ Culture
- •Culture of Embryonic Organs
- •Whole-Embryo Culture
- •Tissue Cultures in Biomedical Research
- •In Karyological Studies
- •In Identification and Hereditary Metabolic Disorders
- •In Somatic-Cell Genetics
- •In Biomedicine
- •Genetics as Applied to Medicinal Herbs
- •Mutation
- •Radiation Mutations
- •Chemical Mutations
- •Polyploidy
- •Chemodemes (Chemical Races)
- •Hybridization
- •Transgenic Plants
- •Gene Transfer
- •Transgenic Plants as Sources of Vaccines
- •Plant Tissue Cultures as Sources of Biomedicinals
- •Historical Development
- •Types of Cultures
- •Culture Medium
- •Inorganic Salts
- •Vitamins
- •Carbon Source
- •Growth Regulators
- •Organic Supplements
- •Preparation of Medium
- •Surface Sterilization of Explants
- •Establishment of Cultures
- •Callus Cultures
- •Suspension Cultures
- •Growth Measurement
- •Organogenesis
- •Phytopharmaceuticals In Plant Tissue Cultures
- •Immobilized Cell Systems
- •QUESTIONS
- •Introduction
- •Microorganisms
- •Types
- •Microbial Culture
- •Principle of Microbial Growth and Culture System
- •Culture Ingredients and Preparation
- •Types of Cultures
- •Solid or Semisolid Culture
- •Batch Culture
- •Lag Phase
- •Acceleration Phase
- •Log Phase
- •Deceleration Phase
- •Stationary Phase
- •Death Phase
- •Fed-Batch Culture
- •Variable Volume Fed-Batch
- •Advantages of Fed-Batch Reactors
- •Limitations of Fed-Batch Reactors
- •Continuous Culture
- •Homogeneously Mixed Bioreactor
- •Plug Flow Bioreactor
- •Advantage of Continuous Cultures
- •Limitation of Continuous Cultures
- •Choice of Fermenter
- •Quality Control of Microbial Culture Media
- •Raw Materials
- •Sterilization Parameter
- •Physical Parameter
- •Microbiological Parameter
- •Econometric Method
- •Productivity Ratio
- •Detection of Contamination
- •Gel Strength Parameters
- •QUESTIONS
- •Introduction
- •History of Genetics
- •Important Contributions
- •Problems and Limitations of Genetics
- •Evaluation and Molecular Biology of Plants
- •DNA as Segment of Molecular Heredity
- •Structure of DNA
- •Nucleotide
- •Double Helix
- •DNA Replication and Inheritance
- •Genes
- •Chromosomes
- •Gene Expression
- •Transcription
- •Analysis of transcription
- •Translation
- •Genetic Code
- •Mutations
- •Induced Mutation
- •Physical agents
- •Chemical agents
- •Spontaneous Mutation
- •Molecular Biotechnology
- •Techniques of Molecular Biology
- •Expression Cloning
- •Polymerase Chain Reaction
- •Gel Electrophoresis
- •Macromolecule Blotting and Probing
- •QUESTIONS
- •Introduction
- •Outline of Recombinant DNA Technology
- •Principle of Gene Cloning
- •Genomic DNA Libraries
- •Construction
- •Preparation
- •Isolation of Gene Sequence from the Libraries
- •Plasmid as Cloning Vector
- •Role of DNA Ligase
- •Applications of Recombinant Dna Technology
- •Production of Biologicals
- •Insulin
- •Production of Interferons (Fig. 9.3)
- •Growth Hormones
- •Erythropoietin
- •Cytokines
- •Interleukins
- •Tumour Necrosis Factor and Lymphotoxin
- •Vaccines
- •Live vaccines
- •Killed vaccines
- •Production of Human Follicle-Stimulating Hormone
- •Disease Diagnosis by Recombinant Dna Methods
- •Applications in the Pulp and Paper Industry
- •Applications in Antibiotic-Producing Microorganisms
- •QUESTIONS
- •Introduction
- •Transformation: Discovery and Types
- •Natural Transformation
- •Artificial Transformation
- •Types of Reactions Mediated by Microorganisms
- •Oxidative Biotransformations
- •Hydrolysis of Oxiranes, Nitriles and Amides
- •Design for Biotransformation
- •Biotransformation of Steroids
- •Microbial Transformation of Triterpenoids
- •Biotransformation of Pentacyclic Triterpenoids
- •Microbial Transformation of Cholesterol by Mycobacterium Smegmatis
- •Microbial Transformation of Progesterone in Vitro
- •QUESTIONS
- •Introduction
- •Principle for Creation of Hybridoma Cells
- •Immunization
- •Cell Fusion
- •Formation and Selection of Hybrid Cells
- •Screening of Products
- •Cloning and Propagation
- •Characterization and Storage
- •Large-Scale Production of Monoclonal Antibodies
- •Human mAbs
- •Advantages and Limitations of mAbs
- •Advantages
- •Limitations
- •Fusion and Culture of Hybridomas
- •Cloning of Preservation of Hybridomas
- •Applications of Monoclonal Antibodies
- •Diagnostic Applications
- •Investigational and Analytical Applications
- •Identification and Isolation of Lymphocytes Phenotyping
- •Purification of Proteins
- •Miscellaneous Applications
- •Application of Catalytic mAbs
- •mAbs in Drug Targeting
- •QUESTIONS
- •Historical Development of Antibiotics
- •Discovery of Penicillin and Other Antibiotics
- •Antimicrobial Spectrum
- •Standardization of Antibiotics
- •Minimal Inhibitory Concentration (MIC)
- •Agar Diffusion Tests
- •MIC Determination by Broth Dilution (Using Sensititre)
- •Screening of Soil for Organisms Producing Antibiotics
- •Isolation of Microorganisms
- •Fermenter or Bioreactor
- •Types of End Products of Fermentation
- •Design of Industrial Fermentation Process
- •Solid-State Fermentation
- •Submerged Fermentation
- •Batch Fermentation
- •Other Fermenters
- •Fermenter Design and Control
- •Isolation of Mutants
- •Factors Influencing Rate of Mutation
- •Isolation of Fermentation Products
- •Production of Penicillin
- •Bioproduction of Streptomycin
- •Bioproduction
- •Tetracycline Production with Sweet Potato Residue by SSF
- •Materials and Methods
- •QUESTIONS
- •Introduction
- •Methods of Gene Transfer in Plants
- •Vector-Mediated Gene Transfer
- •Vector-Free DNA-Mediated (Direct) Gene Transfer
- •Physical Method
- •Chemical Method
- •Vector-Mediated Gene Transfer
- •Using Vector of Agrobacterium
- •Vector-Free DNA-Mediated (Direct) Gene Transfer
- •Physical Methods
- •Electroporation
- •Microinjection
- •Macroinjection
- •Biolistics or Microprojectiles for DNA Transfer
- •Liposome-Mediated Gene Transfer
- •Some Other Techniques Used for Liposomes
- •Chemical Methods
- •PEG-Mediated Transfection
- •Calcium Phosphate-Mediated DNA Transfer
- •Transfer of DNA by Polycation-DMSO
- •DNA Transfer by DEAE-D
- •Use of Polybrene
- •Gene Transfer through Peptide
- •Horizontal Gene Transfer Technology
- •Transformation
- •Mechanism of Transformation
- •Transduction
- •Conjugation
- •Mechanism of Conjugation
- •Specialized Transduction
- •HGT in Prokaryotes
- •Protoplast Fusion
- •Enzymes Used for Breaking of Cell Walls
- •Methods of Protoplast Fusion
- •Protoplast Fusion in Plants
- •Protoplast Fusion in Fungi
- •Protoplast Technology for Streptomyces spp.
- •Protoplast Fusion in Bacteria
- •Gene Cloning
- •Cloning
- •Gene Targeting
- •Stem Cells
- •Development of Hybridoma by Monoclonal Antibodies
- •Hybridoma Technology
- •Hybridomas
- •Hybridization Techniques
- •Southern Blot
- •Northern Blot
- •Western Blot
- •Some Important Medicines Produced by Biotechnology
- •Humulin
- •Activase
- •Humatrope
- •Hepatitis B Vaccine (Recombinant)
- •Gene Transfer in Humans
- •Techniques of Gene Transfer in Human Cells
- •Adenoviruses
- •Applications of Gene Transfer
- •Role of Gene Transfer in Human Diseases
- •Gene Transfer Technology in Other Areas
- •QUESTIONS
- •Introduction
- •Public Health
- •Basic Sciences of Medicine
- •Edible Vaccines
- •Important Steps in the Production of Edible Vaccines
- •Challenges in the Production of Edible Vaccines
- •Nonscientific Challenge
- •Regulatory Issues
- •Clinical Trials
- •Some Edible Vaccines Produced by Plants
- •Advantages and Limitations of Edible Vaccines
- •QUESTIONS
- •Introduction
- •Production of Antibiotics
- •Production of Vaccines
- •New Generation of Vaccines
- •Human Therapeutics from Recombinant DNA Technology
- •Production in Lactic Acid
- •Plant Tissue Culture for Production of Plant Secondary Metabolites
- •Applications of Biotechnology in the Diagnosis of Diseases
- •Applications of Biotechnology in Agriculture
- •Reduced Vulnerability of Crops to Environmental Stresses
- •Reduced Dependence on Fertilizers, Pesticides and Other Agrochemicals
- •Production of Novel Substances in Crop Plants
- •Applications of Ultrasound to Biotechnology
- •Testing of Pharmaceuticals
- •QUESTIONS
- •Introduction
- •Natural Product Drug Discovery
- •Screening of Natural Products
- •Structural Elucidation
- •QUESTIONS
- •Introduction
- •History of Enzymes
- •Enzyme Structure
- •Enzyme Kinetic
- •Importance of Enzyme Kinetics
- •Factors Affecting Enzyme Reaction Velocity
- •Bioproduction of Enzymes
- •Microorganisms
- •Enzyme Properties
- •Enzyme Production
- •Enzyme Immobilization
- •Advantages of Immobilized Enzymes
- •Techniques of Enzyme Immobilization (Fig. 17.4)
- •Physical Immobilization
- •Chemical Immobilization
- •Adsorption
- •Cell Immobilization
- •Immobilization of Plant Cells
- •Method of Immobilization
- •Immobilized Plant Cell Reactors
- •Immobilization of Bacterial Cell
- •Procedural Details
- •Immobilized Cell Preparation
- •Immobilized Cell Reactor Construction and Operation
- •Some Important Enzymes
- •Amylase
- •Hyaluronidases
- •Protease
- •Streptokinase
- •Penicillinase
- •Enzyme Engineering
- •Applications of Enzymes
- •Biosensors
- •Types of Biosensors
- •Applications of Biosensors
- •QUESTIONS
- •Introduction
- •Computational Gene
- •Application in Therapy of Cancer
- •Challenges
- •Nanolithography
- •Optical Lithography
- •Other Nanolithography Techniques
- •Bottom-up Methods
- •Nanomedicine and Nanodevices
- •Medical Uses of Nanomaterials
- •In Drug Delivery
- •Protein and Peptide Delivery
- •Neuroelectronic Interfaces
- •In Cancer
- •In Surgery
- •Medical Applications of Molecular Nanotechnology
- •Nanorobots
- •Cell Repair Machines
- •Nanonephrology
- •Nanosensor
- •Predicted Applications
- •Existing Nanosensors
- •Production Methods
- •Economic Impact
- •Social Impact
- •Nanoparticles
- •Background
- •Properties
- •Synthesis
- •Colloids
- •Morphology
- •Characterization
- •Functionalization
- •Safety
- •Synthetic Biology
- •QUESTIONS
- •Introduction
- •Biopharmaceuticals of Animal Origin
- •Sex Hormones
- •Androgens
- •Oestrogen
- •Progesterones and Progestogens
- •Biopharmaceuticals of Plant Origin
- •Recombinant Proteins
- •Plant-Derived Therapeutics
- •Alternative Plant-Based Expression System
- •Pharmaceutical Substances of Microbial Origin
- •Major Families of Antibiotics
- •Recent Advancs in Biopharmaceuticals
- •Applications of Carrier Erythrocytes in the Delivery of Biopharmaceuticals
- •Important Features of Carrier Erythrocytes
- •Research Advances on Transgenic Plant Vaccines
- •Recent Advances in Analysis of Peptides and Proteins by Mass Spectrometry
- •Advances in Chloroplast Engineering
- •QUESTIONS
- •Appendix
- •Glossary
- •Bibliography
- •Index



Textbook of Pharmaceutical Biotechnology

7KLVSDJHLQWHQWLRQDOO\OHIWEODQN

Textbook of
Pharmaceutical Biotechnology
Prof. Chandrakant Kokate MPharm, PhD, FGAES (Germany)
Vice-Chancellor
KLE University, Belgaum, Karnataka
Former Vice-Chancellor, Kakatiya University, Warangal, AP
Former President, Pharmacy Council of India
Prof. Sunil S. Jalalpure MPharm, PhD
Professor
Department of Pharmacognosy
College of Pharmacy, KLE University
Belgaum, Karnataka
Dr Pramod J. Hurakadle MPharm, PhD
Associate Professor and Head
Department of Pharmaceutical Biotechnology
College of Pharmacy, KLE University
Belgaum, Karnataka
A division of Reed Elsevier India Private Limited

Textbook of Pharmaceutical Biotechnology
Kokate, Jalalpure and Hurakadle
ELSEVIER
A division of Reed Elsevier India Private Limited
Mosby, Saunders, Churchill Livingstone, Butterworth Heinemann and
Hanley & Belfus are the Health Science imprints of Elsevier.
© 2011 Elsevier
All rights reserved. No part of this publication may be reproduced or transmitted in any form or by any
means—electronic or mechanical, including photocopy, recording, or any information storage and retrieval
system—without permission in writing from the publisher.
ISBN: 978-81-312-2828-9
Notice
Knowledge and best practice in this field are constantly changing. As new research and experience broaden our
knowledge, changes in practice, treatment and drug therapy may become necessary or appropriate. Readers are
advised to check the most current information provided (1) on procedures featured or (2) by the manufacturer
of each product to be administered, to verify the recommended dose or formula, the method and the duration of
administration, and the contraindications. It is the responsibility of the practitioners, relying on their own experience
and knowledge of the patient, to take diagnoses, determine dosages and the best treatment for each individual
patient, and take all appropriate safety precautions. To the fullest extent of the law, neither the Publisher nor the
Authors assume any liability for any injury and/or damage to persons or property arising out of or related to any use
of the material contained in this book.
The Publisher
Published by Elsevier, a division of Reed Elsevier India Private Limited.
Registered Office: 622, Indraprakash Building, 21 Barakhamba Road, New Delhi–110 001.
Corporate Office: 14th Floor, Building No. 10B, DLF Cyber City, Phase II, Gurgaon-122 002, Haryana, India.
Publishing Manager: Ritu Sharma
Development Editor: Subodh K. Chauhan
Copy Editor: Saroj Sahu
Manager Publishing Operations: Sunil Kumar
Production Executive: Arvind Booni
Cover Designer: Raman Kumar
Typeset by Chitra Computers, New Delhi.
Printed and bound at Rajkamal Electric Press, Kundli, Haryana, India.

Preface
Last two decades have witnessed rapid change in our understanding of biotechnology. The substantial
scientific work that has been accomplished in recent years in this branch of biosciences has revolutionized
the entire concept of biotechnology related to pharmacy. The basic and applied biotechnology has
facilitated the emergence of novel drug moieties of biological origin that are capable of combating a
wide spectrum of human ailments. The ultimate biomedical objective of biotechnology is to contribute
a rational relationship between biochemical moieties and spectrum of therapeutic effects they generate.
Keeping in view the past, present and future projections of pharmaceutical biotechnology, it is our
sincere attempt to provide comprehensive text of the subject covering different facets of biotechnology
for the benefit of the students of different disciplines of biosciences. The chapters on medicinal plant
biotechnology, genetics and molecular biotechnology, recombinant DNA technology, hybridoma
technology and monoclonal antibodies, antibiotics, applications of pharmaceutical biotechnology,
immobilization of enzymes, nanobiotechnology, recent advances in biopharmaceuticals, and list of
pharma–biotech industries in India and their products are important added features of this book.
We hope that the students of degree and postgraduate courses of pharmacy, biotechnology and other
branches of biosciences shall be benefited by our efforts. We have enriched the text by using diagrams,
figures and tables, with greater emphasis on simple and understandable language.
– Kokate, C.K.
– Jalalpure, S.S.
– Hurakadle, P.J.

7KLVSDJHLQWHQWLRQDOO\OHIWEODQN

About the Authors
Prof. Chandrakant Kokate
Prof. Chandrakant Kokate is currently the Vice-Chancellor of KLE University, Belgaum, Karnataka.
He completed his BPharm in first class from Nagpur University in 1967, obtained his MPharm degree
in first class and with gold medal from University of Saugar in 1969. He was awarded his PhD in 1972
and postdoctoral research fellowship in Germany (1977–78). He continued his research as a visiting
scientist in Germany (1986).
He was the President of Pharmacy Council of India (constituted under the Act of Parliament –
Pharmacy Act, 1948) for a decade, simultaneously also officiating President of the Council. He was also
the President of Indian Pharmaceutical Association (2000–02). He was the Chairman of All India Board
for Pharmacy Education of All India Council for Technical Education (AICTE) and also served in the
Executive Committee of AICTE.
Prof. Kokate has the honour of being the first pharmacist in the country to be appointed as the Vice-
Chancellor of Indian Universities—the Kakatiya University, Acharya Nagarjuna University (additional
charge) and currently at KLE University. He has served as the Chairman of the Southern Regional
Committee of AICTE and Chairman of the Recruitment Board of Regional Selection Committee for
Defence Research and Development Organization (DRDO). He is serving as the Chairman of National
Assessment and Accreditation Council (NAAC)/University Grants Commission (UGC) peer teams.
He is the recipient of several awards/recognitions at the national/international and provincial levels
in the profession of pharmacy. These include Eminent Pharmacist Award of Indian Pharmaceutical
Association (IPA); Lifetime Achievement Award of Association of Pharmaceutical Teachers of
India (APTI); Prof. M.L. Schroff Memorial Award of Indian Hospital Pharmacists Association
(IHPA); Acharya P.C. Ray Memorial Award; National Herbal Academy Award; Indira Priyadarshini
National Award; Dr K.M. Parikh Memorial Award; Best Teacher Award of Govt. of Andhra Pradesh;
Distinguished Alumnus and Lifetime Achievement Award of University of Saugar; Shikshak Bhushan
Award of Goa; Sivananda Eminent Citizen Distinguished Service Award, Andhra Pradesh; Fellowship
of German Academic Exchange service (DAAD), Indian Pharmaceutical Association, Indian Society
for Technical Education (ISTE), National Herbal Academy, Andhra Pradesh Akademi of Sciences,
and many others. He was the Leader of Indian Delegation of Pharmacists to 18th Federation of Asian
Pharmaceutical Association (FAPA) at Sydney, Australia, and International Pharmaceutical Federation
(FIP) Conference at Bangkok. He has successfully supervised 17 students for PhD and 40 students
for master’s programme in pharmacy. He has authored 6 books and published 115 research papers
in national and international journals. He has also served as an expert on the panels of Union Public
Service Commission (UPSC), UGC, AICTE, Pharmacy Council of India, Department of Biotechnology
(DBT), Department of Science and Technology (DST), Council for Scientific and Industrial Research
(CSIR), Indian Drug Manufacturers’ Association (IDMA), Indian Council for Agriculture Research

About the Authors
viii
(ICAR), Indian Society for Technical Education (ISTE), Indian Council for Medical Research (ICMR)
and Public Service Commission (PSC) of states.
Prof. Sunil S. Jalalpure
Prof. Sunil S. Jalalpure is Professor, Department of Pharmacognosy, College of Pharmacy, KLE
University, Belgaum. He completed his BPharm from Karnataka University, Dharwad, and obtained his
MPharm and PhD degrees from Rajiv Gandhi University of Health Sciences, Bangalore, Karnataka. He
has undergone research training at Rhodes University, Grahamstown, South Africa, on Sophisticated
Analytical Instruments.
He received travel grant from AICTE under Young Scientist Category to present research paper in
World Congress on Medicinal Plants at Cape Town, South Africa. He has received financial support
from various funding agencies like UGC, AICTE, DST and ICMR for research projects. He is member
of several pharmacy professional societies and has chaired several scientific sessions at national and
International conferences. He has worked as organising secretary for several national and International
conventions. He has been invited to visit Australia, Thailand, Malaysia and South Africa to attend and
present research papers at conferences.
His areas of research interests include isolation/characterization of active principles from medicinal
plants and their pharmacological screening for various biological activities, and training the research
students in Pharmacognosy, Phytochemistry and Biotechnological aspects with modern tools and
techniques.
Prof. Jalalpure has published over 46 scientific papers in national and international journals and
presented 67 papers at national and international conferences. He has 2 intellectual property rights to
his credit. He has successfully guided 34 MPharm and 1 PhD students towards successful completion
of their courses.
Dr Pramod J. Hurakadle
Dr Pramod J. Hurakadle is currently Associate Professor and Head, Department of Pharmaceutical
Biotechnology, College of Pharmacy, KLE University, Belgaum. He completed his BPharm degree from
Kuvempu University, Shimoga, and obtained his MPharm degree with distinction from Rajiv Gandhi
University of Health Sciences, Bangalore. He was awarded his PhD in Pharmacy from Rajiv Gandhi
University of Health Sciences, Bangalore, under AICTE-sponsored quality improvement programme.
He also received a Diploma in Clinical Research from Catalyst Clinical Services Ltd, New Delhi.
He has been awarded Batch of the Best Award from Zydus-Indon Cadila Health Care Ltd,
Ahmedabad. He is also a member for various professional bodies, e.g. APTI, ISP, KSPC, etc., and is
working as General Secretary, IPA, Belgaum branch. He has also worked as joint secretary to several
national and international workshops/conferences, sponsored by ICMR, AICTE, UGC, IPA, etc.
His areas of research interest include herbal formulations/excipients, biosurfactants and screening
of herbal extracts for various pharmacological activities. Since recently he is working jointly with
Regional Medical Research Centre, ICMR, Belgaum, on tissue culture studies of medicinal plants from
Western Ghats region.
Dr Hurakadle is guiding 5 students for PhD and has supervised 12 students for master’s programme
in pharmacy. He has published several research papers in national and international journals and has
presented at national and international conferences. He has also been invited as speaker for international
conferences at Malaysia and South Africa.
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