PG Biochemistry
PG Biochemistry
BIOCHEMISTRY
 UG PROGRAMMES
 Arts & Humanities                 :   History (E.M. & T.M.), English, Tamil
PG PROGRAMMES
   Arts & Humanities              :   History, English, Tamil
   Physical & Life Sciences       :   Mathematics, Physics, Biochemistry, Home Science
                                      - Nutrition and Dietetics, Chemistry, Zoology,
                                      Computer     Science,    Information   Technology,
                                      Computer Applications (MCA*)
   Commerce & Management          :   Commerce, Business Administration (MBA*)
                                      * AICTE approved Programmes
  PG PROGRAMMES
            Name of the Course          Semester              Department
 History of Freedom Movement in India      III   History
 (A.D. 1885 - 1947)
 English for Job Aspirants                 III   English
 jkpOk gpwJiwfSk                           III   Tamil
 Taxation Concepts and Assessment          III   Commerce
 Entrepreneurship                          III   Business Administration
 Mathematics for Competitive               III   Mathematics
 Examinations
 Digital Electronics                       III   Physics
 Chemistry for Competitive Examinations    III   Chemistry
 Apiculture                                III   Zoology
 Nutrition and Health                      III   Home Science - Nutrition and Dietetics
 Clinical Biochemistry                     III   Biochemistry
 Web Programming                           III   Computer Science
 Fundamentals of Information Technology    III   Information Technology
 Web Technology                            III   Computer Applications
       The core philosophy of Outcome Based Education rests in employing a student - centric
learning approach to measure the performance of students based on a set of pre-determined
outcomes. The significant advantage of OBE is that it enables a revamp of the curriculum based
on the learning outcomes, upgrade of academic resources, quality enhancement in research and
integration of technology in the teaching-learning process. It also helps in bringing clarity among
students as to what is expected of them after completion of the Programme in general and the
Course in particular. The OBE directs the teachers to channelize their teaching methodologies
and evaluation strategies to attain the Programme Educational Objectives (PEOs) and fulfill the
Vision and Mission of the Institution.
Vision of the Institution
       The founding vision of the Institution is to impart Quality Education to the rural
womenfolk and to empower them with knowledge and leadership quality.
Mission of the Institution
       The mission of the Institution is to impart liberal education committed to quality and
excellence. Its quest is to mould learners into globally competent individuals instilling in them
life-oriented skills, personal integrity, leadership qualities and service mindedness.
B.1 Programme Educational Objectives, Programme Outcomes and Programme Specific
                                      Outcomes
          It is imperative for the Institution to set the Programme Educational Objectives (PEOs),
Programme Outcomes (POs) and Course Outcomes (COs), consistent with its Vision and
Mission statements. The PEOs and the POs should be driven by the Mission of the Institution
and should provide distinctive paths to achieve the stated goals. The PEOs for each Programme
have to fulfill the Vision and Mission of the Department offering the Programme.
Vision of the Department of M.Sc. BIOCHEMISTRY
To empower our students with scientific knowledge and skills and to mold them with pioneering
spirit, forward thinking, leadership and collaborative approach.
Mission of the Department of M.Sc. BIOCHEMISTRY
•To handle scientific and research faculty of students through deep learning of Biochemistry for
 employability in research, academia and pharmaceutical fields,
 •To advance traditional boundaries, to motivate for research and entrepreneurship
 •Committed to improving the scientific world today.
   3 identify, formulate and solve problems in a consistent and systematic way with updated
       skills using modern tools and techniques. (Scientific Reasoning and Problem Solving)
   4 analyze the data, synthesize the findings and provide valid conclusion by critical
       evaluation of theories, policies and practices for the betterment of society. (Critical Thinking
       and Analytical Reasoning)
   5 explore and evaluate globally competent research methodologies to apply appropriately in
       interdisciplinary research; Develop and sustain the research capabilities to meet the
       emerging needs for the welfare of the society. (Research Related Skills)
   6 use ICT to mould themselves for lifelong learning activities to face career challenges in
       the changing environment. (Digital Literacy, Self - Directed and Lifelong Learning)
   7 self-manage and function efficiently as a member or a leader in diverse teams in a
       multicultural society for nation building. (Co-operation/Team Work and Multicultural
       Competence)
   8 uphold the imbibed ethical and moral values in personal, professional and social life for
       sustainable environment. (Moral and Ethical Awareness)
B.1.3 Programme Specific Outcomes (PSOs)
       Based on the Programme Outcomes, Programme Specific Outcomes are framed for each
PG Programme. Programme Specific Outcomes denote what the students would be able to do at
the time of graduation. They are Programme-specific and it is mandatory that each PO should be
mapped to the respective PSO.
On successful completion of M.Sc. BIOCHEMISTRY Programme, the students will be able to
PO 1: Disciplinary Knowledge
       PSO 1.a : Apply the knowledge of theoretical and experimental approaches in
Biochemistry in research oriented Endeavour to unravel problems in health care with a scientific
basis of life process and will have an ability to provide solution to new problems.
       PSO 1.b : Recognize the importance of bioethics, entrepreneurship and career oriented
skills, thus providing a strong foundation for both academic / industrial placements across the
country and globe as well as setting up entrepreneurial ventures.
PO 2: Communication Skills
       PSO 2 : Communicate the knowledge of Biochemistry to address environmental,
intellectual, societal and ethical issues through case studies with effective communication.
       PSO 7: Develop leadership qualities, team spirit and good interpersonal skills to work
effectively in diverse fields individually or as a team
PO 8: Moral and Ethical Awareness
       PSO 8 : Follow the global standards of codes of conduct in Life science community and
practice the imbibed moral values in their profession and society to maintain sustainable
environment.
PO-PEO Mapping Matrix
       Attainment of PEOs can be measured by a PO-PEO matrix. PEOs should evolve through
constant feedback from alumnae, students, industry, management, etc.            It is mandatory that each
PEO should be mapped to at least one of the POs.
POs/PSOs
             PO1/PSO1                   ✔             ✔           ✔
             PO2/PSO2                   ✔             ✔            ✔
             PO3/PSO3                   ✔             ✔            ✔
             PO4/PSO4               ✔                 ✔            ✔
             PO5/PSO5                   ✔             ✔            ✔
             PO6/PSO6                   -             ✔
                                                                  ✔
             PO7/PSO7                   -             ✔           ✔
             PO8/PSO8                   ✔             ✔            ✔
BLOOM’S TAXONOMY
CO - PO Mapping of Courses
         After framing the CO statements, the COs framed for each course is mapped with POs
 based on the relationship that exists between them. The COs which are not related toany of the
 POs is indicated with (-), signifying Nil. Measurement Mapping is based on Four Points Scale
[High (H), Medium (M), Low (L) and NilT(-)]. For calculating weighted percentage of contribution
of each Course in the attainment of the respective POs, the weights assigned for H, M and L are 3,
2 and 1 respectively.
CO2
CO3
CO4
CO5
  B.2.1 Core Courses, Discipline Specific Elective Courses & Non Major Elective Course
  INTERNAL ASSESSMENT
  Distribution of Marks Theory
                             Mode of Evaluation                                       Marks
       Periodic Test                                                            :      25
       Assignment                   K5 Level                                    :       5
       Seminar                                                                  :      10
                                     Total                                      :        40
  Three Periodic Tests - Average of the best two will be considered
  Two Assignments      - Better of the two will be considered
Practical
                  Mode of Evaluation                                                Marks
   Test                                                      :                       15
  Model Examination                                                                  15
  Performance                                                :                       10
                                  Total                      :                       40
   Test                 - Better of two will be considered Model
   Examination - Better of two will be considered Performance
   - Attendance and Record
One Periodic Test      Project      Pre-Submission         One Open online            Project              Viva Voce
                       Report        Presentation          Course related to        Presentation
      (20)              (20)                               the Project (10)             (30)                   (10)
                                          (10)
      B.2.3Online Course
      Practice for CSIR NET - General Paper
      Internal Examination only
             -      Online Test with Multiple Choice Questions will be conducted in III Semester.
             -      Model Examination will be conducted after two periodic tests.
      Distribution of Marks
                                 Mode of Evaluation                                                   Marks
      Periodic Test                                                                    :               40
      Model Examination                                                                :               60
                                                         Total                         :               100
      Two Periodic Tests         - Better of the two will be considered
*The total marks obtained in the Test will be converted in to 100 Marks
Courses, Discipline Specific Elective Courses and Non Major Elective Course.
ATTENDANCE
   The students who have attended the classes for 76 days (85%) and above are
      permitted to appear for the Summative Examinations without any condition.
   The students who have only 60-75 days (66% - 84%) of attendance are permitted to
         appear for the Summative Examinations after paying the required fine amount
         and fulfilling other conditions according to the respective cases.
   The students who have attended the classes for 59 days and less – upto 45 days (50% -
         65%) can appear for the Summative Examinations only after getting special permission
         from the Principal.
   The students who have attended the classes for 44 days or less (<50%) cannot appear for the
    Summative Examinations and have to repeat the whole semester.
         These rules are applicable to UG, PG and M.Phil. Programmes and come in
                    effect from 2020-2021 onwards.
          An Assessment Management Plan that details the assessment strategy both at the
Programme and the Course levels is prepared. The continuous assessment is implemented using
an assessment rubric to interpret and grade students.
B.3.1 Assessment Process for CO Attainment
       Assessment is one or more processes carried out by the institution that identify, collect and
prepare data to evaluate the achievement of Course Outcomes and Programme Outcomes. Course
Outcome is evaluated based on the performance of students in the Continuous Internal
Assessments and in End Semester Examination of a course. Target levels of attainment shall be
fixed by the Course teacher and Heads of the respective departments.
Direct Assessment (Rubric based) - Conventional assessment tools such as Term
Test, Assignment, Quiz and End Semester Summative Examination are used.
Indirect Assessment - Done through Course Exit Survey.
CO Assessment Rubrics
        For the     evaluation   and assessment of COs and POs, rubrics are used.                     Internal
assessment contributes 40% and End Semester assessment contributes 60% to the total
attainment of a CO for the theory courses. For the practical courses, internal assessment
contributes 50% and Semester assessment contributes 50% to the total attainment of a CO. Once
the Course Outcome is measured, the PO can be measured using a CO-PO matrix.
CO Attainment
Direct CO Attainment
        Course Outcomes of all courses are assessed and the CO - wise marks obtained by all the
students are recorded for all the assessment tools. The respective CO attainment level is
evaluated
based on set attainment rubrics.
Attainment = Percentage of students who have scored more than the target marks
      In each Course, the level of attainment of each CO is compared with the predefined targets. If
the target is not reached, the Course teacher takes necessary steps for the improvement to
reach the
target.
          For continuous improvement, if the target is reached, the Course teacher can set the target as
a value greater than the CO attainment of the previous year.
B.3.2 Assessment Process for Overall PO Attainment
PO Assessment Tools
Course Code Course Title PO1 PO2 PO3 PO4 PO5 PO6 PO7 PO8
            The curriculum is designed so that all the courses contribute to the achievement of
  PEOs. The attainment of PEOs is measured after 3 years of completion of the Programme
  only through Indirect methods.
  Attainment of PEOs
                  Assessment Criteria & Tool                                   Weightage
   Record of Employment                                                               10
   Progression to Higher Education                                                    20
   Record of Entrepreneurship                                                         10
   Feedback from Alumnae                                                              30
   Feedback from Parents                                                              10
   Feedback from Employers                                                            20
                      Total Attainment                                                100
                                                              Semester                            Total
                                                                                               Number of
              Components
                                            I            II          III           IV            Hours
                                                                                                (Credits)
Core Course                               6 (5)         5 (4)        6 (5)        6 (5)          23 (19)
Core Course                               6 (5)         5 (4)        6 (5)        6 (5)          23 (19)
Core Course                               6 (5)         5 (4)        6 (5)        6 (5)           23 (19)
Core Course Practical                     6 (3)         6 (3)        6 (3)           -            18 (9)
Core Course Practical                       -           4(2)           -             -              4(2)
Project                                     -             -            -          12 (8)           12(8)
Discipline Specific Elective Course       6 (5)         5 (4)          -             -             11 (9)
Non Major Elective Course                   -             -          5 (4)           -              5 (4)
Online Course                               -             -          1 (1)           -             1 (1)
                                   Total 30 (23)    30 (21)      30 (23)      30 (23)            120 (90)
Extra Credit Course (Optional) -            -             -      -            -               Limited to a
                      MOOC                                                                    maximum of
                                                                                               15 credits
Extra Credit Course (Optional)                           2                                         2
                                MASTER OF BIOCHEMISTRY
                           Programme Code – 7015
                                 PROGRAMME CONTENT
                                 M.Sc. BIOCHEMISTRY - SEMESTER I
S. No   Components    Title of the Course      Course    Hours Credits     Exam.                     Marks
                                                Code     per               Hours
                                                         Week                                              Total
                                                                                        Int.       Ext.
 1      Core Course-1 Chemistry of           20PBCC11     6        5           3           40       60      100
                      Biopolymers
 2      Core Course-2 Principles of          20PBCC12     6        5           3           40       60      100
                      Biochemical and
                      Biophysical
                      Techniques
 3      Core Course-3 Biochemical and        20PBCC13     6        5           3           40       60      100
                      Environmental
                      Toxicology
 4      Core          Biochemical            20PBCC11P    6        3           6           40        60     100
        Practical-1   Techniques and
                      Analysis Lab
 5      DSEC-1        DSCE-Cellular                       6        5           3           40       60      100
                      Biochemistry and       20PBCE11/
                      Virology/
                      Enzymes and Enzyme     20PBCE12/
                      Technology/
                      Dairy Biochemistry     20PBCE13
                                                         30       23                                        500
 DSEC- Discipline Specific Elective Course
S.No   Components        Title of the Course   Course        Hours       Credits     Exam.          Marks
   .                                           Code          per                     Hours
                                                             Week                                 Int.    Ext.      Total
                                     MASTER OF BIOCHEMISTRY
                                        Programme Code - 7015
                                 REVISED PROGRAMME CONTENT M.Sc.
                                    BIOCHEMISTRY -SEMESTER I
                                                      M.Sc. BIOCHEMISTRY
                                                          SEMESTER II
S.No       Components        Title of the Course          Course    Hours     Cred      Exam                     Marks
    .                                                     Code       per        its     .Hours
                                                                    Week                             Int.    Ext.     Total
                                              M.Sc.
                                         BIOCHEMISTRY -
                                           SEMESTER IV
                                     M.SC. BIOCHEMISTRY
                                           (2020 -2021 onwards)
            Semester I                                                     Hours/Week: 6
            Core Course-1                  CHEMISTRY OF                    Credits: 5
            Course Code                    BIOPOLYMERS                      Internal      External
            20PBCC11                                                           40             60
COURSE OUTCOMES
On completion of the course, the students will be able to
       CO1: describe the composition, classification of biomolecules and its essential role
              in the biological system. [K2]
       CO2: sketch the structure of biomolecules and its properties. [K3]
       CO3: identify the mechanism of action of biomolecules along with their structural
              relationship. [K3]
       CO4: evaluate the methods involved in the isolation and purification of
              macromolecules. [K4]
       CO5: compile the structural difference in biomolecules and techniques involved in
             biomolecules structure identification. [K5]
UNIT I
Introduction to Biomolecules: Chemistry of monomeric units, polysaccharides, proteins and
nucleic acids [structure and function only]. Isolation and purification of polysaccharides, proteins
and nucleic acids. Determination of molecular weight and shape of polysaccharides, proteins and
nucleic acids. Protein- nucleic acid interaction and protein- other biological polymers interaction.
(15 Hours)
UNIT II
UNIT III
Properties of Proteins:     Terminology- peptide bond, peptide, polypeptide and protein, functions
of protein. Structures- levels of structures of protein [primary structure, secondary, tertiary and
quaternary] conformation of protein structure, their analysis and forces, molecular modeling.
Properties of proteins in aqueous solutions: Isoelectric pH, acid base properties, electrophoretic
mobility, influence of ionic concentration on the protein solubility, hydrolysis of proteins,
denaturation and renaturation of proteins .                                               (20 Hours)
UNIT IV
UNIT V
Nucleic acid Analysis: Structure of nucleic acid, chemical and enzymatic methods of sequence
analysis, properties of DNA in aqueous solution- sedimentation behavior, viscosity, hyperchromic
effect, melting point of DNA and hydrolysis of nucleic acids, Hybridization techniques and
chemical synthesis of nucleic acids.                                                            (20 Hours)
1.   West E. S. & Todd W. R. (1974), Text book of Biochemistry, 4th Edition. New
      York: MacMillan Publishing Company.
2.   Lehninger. (2012), Principles of Biochemistry, 5thEdition, W H Freeman & Co.
REFERENCE BOOKS
2. Charles R. Cantor, Paul R. Schimmel. (1989) ,Biophysical Chemistry, San Francisco: W.H.
     Freeman and Company.
3. Geoffrey L.Zubay. (1998). Biochemistry, 4th edition, USA: Wm.C. Brown Publishers.
4. Ward Pigmann. (1977). The carbohydrates, 2nd Edition, Academic Press.
5. Ronald Voet& Judith G.Voet. (2006). Biochemistry, 2nd Edition. U.S.A: John Wiley & Sons.
6. Adams. (1986). Biochemistry of the Nucleic acid–, 10th Edition. Springer.
         Course Code    PO1          PO2 PO3               PO4 PO5          PO6       PO7       PO8
          20PBCC11      PSO   PSO    PSO    PSO     PSO    PSO     PSO       PSO       PSO       PSO
                         1a    1b     2      3a      3b     4       5         6         7         8
             CO1         H     H      M      H       M      H       H         M         -         -
             CO2          H     H     M      M       L       H      M          H         -         -
             CO3          H     H      H     M       L       H      H          M         L         H
             CO4          H     H     M       H      M       H      M          M         H         L
             CO5          H     H     M       H      M       H      M          M         H         H
Dr.P.Annapoorani                                                                    Dr.R.Salini
Head of the Department                                                             Course Designer
                                          M.SC. BIOCHEMISTRY
                                            (2020 -2021 onwards)
     Semester I                                                                     Hours/Week: 6
     Core Course-2                                                                  Credits: 5
                             PRINCIPLES OF BIOCHEMICAL AND
     Course Code                                                                     Internal        External
                                  BIOPHYSICAL TECHNIQUES
   20PBCC12                                                                              40              60
 COURSE OUTCOMES
 On completion of the course, the students will be able to
    CO1: understand the Biophysical, Biochemical and Molecular Biology
            techniques. [K2]
    CO2: apply the separation procedures such as Centrifugation, Chromatography
            and Eletrophoretic techniques in biological investigations. [K3]
     CO3: determine the Biochemical and Biophysical characterization of macromolecules and their
           complexes for structural biology experiments. [K3]
    CO4: analyze the practical and data handling skills required to undertake the Bio Technical
            research. [K4]
     CO5: evaluate the principles and techniques of Biochemistry that motivates the students for
            higher education, acquiring skills in separation techniques to identify different
            biomolecules, undertaking research, and for becoming health professionals. [K5]
UNIT I
 Stoichiometry: Normality, Molarity, Molality and Milliosmoles. Ionic strength. pH. pOH, Henderson-
 Hesselbach equation, Buffers, pH of body fluids. Measurement of pH by indicators, Zwitterions. pH
 dependent ionization of amino acids and proteins. Colloids and their applications, Viscosity, Surface
 tension and Donnan membrane equilibrium. Principles of electrochemical techniques-measurement of pH
 by glass electrode and hydrogen electrode Oxygen electrode-principles, operation of a Clarke electrode
 and its applications.
                                                                                                         (20 Hours)
UNIT II
UNIT IV
Spectroscopy: Spectroscopy- X-ray crystallography, X-ray fiber diffraction, X-ray scattering. NMR,
ESR, Spectro fluorimetry, Flame photometry, UV Spectroscopy, FTIR, Biochips (DNA chips, Protein
chips, Sensor chips) Atomic Absorption Spectroscopy, and Raman Spectroscopy
                                                                                                    (20 Hours)
UNIT V
TEXT BOOK
1. V.Kumaresan (2012), Biotechnology , 6th edition, Saras Publication
 REFERENCE BOOKS
1. Keith Wilson & John Walker (1995), Practical Biochemistry, Principles & Techniques,
  Code
            PSO PSO          PSO   PSO        PSO   PSO   PSO       PSO        PSO       PSO
20PBCC12     1a         1b    2    3a         3b     4      5          6         7         8
  CO1        H          H     L    M          M     M        -        M         M           -
  CO2        H          H    H     H          H     H        -        M         M           -
  CO3        H          H    H     H          H     H       M         M         M           -
  CO4        H          H    M     H          H     H       M         M         M          M
  CO5        H          H    H     M          H     H       M         M         M          M
                                                                   Dr.R.Mallika
                                                                 Mrs. M. Rajakumari
   Dr.P.Annapoorani                                              Course Designers
Head of the Department
                                        M.SC. BIOCHEMISTRY
                                           (2020 -21 onwards)
    Semester I                                                                       Hours/Week: 6
    Core Course-3            BIOCHEMICAL AND ENVIRONMENTAL                           Credits: 5
    Course Code                             TOXICOLOGY                                Internal       External
    20PBCC13                                                                             40              60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: describe the terms and basic principles of toxicology, mechanism of toxic effects of
          toxicants and factors affecting disposition of toxicants. [K2]
   CO2: identify health conditions linked to selected toxic exposures from food, lifestyle,
         environment, workplace and home. [K3]
   CO3: apply pharmacokinetic and pharmacodynamic principles that impact administration,
          ADME, efficacy, potency, effectiveness and biological activity of drugs and
          toxins. [K3]
   CO4: analyze the types of toxicology, toxicants, metals and its disposition, responses in
         target organ, non-organ directed toxicity. [K4]
   CO5: assess the techniques and methods of toxicity and fate of toxicants in humans. [K5]
UNIT I
General principles of Toxicology -Definition, Toxicologic terms and definitions- Toxin, Toxicant,
Toxicity, Hazard, Risk, Acute exposure, Chronic exposure, Synergism, Additive effect, Potentiation
effect, Antagonism. classification of toxicology, Classification of toxic agents. Desired and undesired
effects. Principles of selective toxicity: cooperative morphology, comparative biochemistry, comparative
cytology. Toxicity assessment: acute, subchronic, chronic exposure, determination of ED50 and LD50
values, tests for mutagencity, carcinogenicity, genotoxicity, Ames test.                                (20 Hours)
UNIT II
UNIT III
UNIT IV
Target organ toxicity: Skin: skin as a barrier, dermatitis, acne, urticaria. Toxic responses of the
blood: blood as a target organ, toxicology of erythron, leucon and platelets. Toxic responses of
the liver: physiology and pathophysiology, factors in liver injury, mechanism of liver injury.
Toxic responses of the respiratory systems: lungs structure and functions, pulmonotoxic
agents,     pathogenesis   of   chemical induced damage, acute and chronic responses of lungs to
injury.                                                                                (20 Hours)
UNIT V
TEXT BOOKS
REFERENCE BOOKS
1. Marrs and Turner (1995), General and applied toxicology, Macmillan Press Ltd.
2. Williams RT (1947), Detoxification mechanisms, J.Wiley & Sons, New York.
3. Albert A.( 1979), Selective Toxicity ,Springer Link
                                      M.SC. BIOCHEMISTRY
                                        (2020 -21onwards)
     Semester: I                                                                 Hours/Week: 6
     Core Practical-1          BIOCHEMICAL TECHNIQUES AND                        Credits: 3
     Course Code                           ANALYSIS LAB                           Internal       External
     20PBCC11P                                                                        40             60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: apply the principles and methodologies of partial enzyme purification,
          spectrophotometry and chromatographic techniques in biomolecules
          analysis.[K3]
   CO2: sketch flowcharts for the partial enzyme purification, spectrophotometry and
          Chromatographic techniques of various bioanalytes. [K3]
   CO3: observe and calculate the results for the spectrophotometry, chromatographic
          techniques of biological samples and complete the record work. [K3]
   CO4: infer the normal and abnormal parameters of biological samples
          analyzed by spectrophotometry, chromatographic techniques. [K4]
   CO5: evaluate the outcomes of the modifications in sample
         analysis    using     spectrophotometry,        chromatographic
         Techniques. [K5]
Experiments
1. Buffer preparation, pka value
2. Spectrometric estimation
   2. Sadasivam .S& A. Manickam (1996), Biochemical Methods, 2nd edition. New Delhi:
      India NewAge International Publishers.
                                    M.SC. BIOCHEMISTRY
                                       (2020 -2021 onwards)
     Semester I                                                              Hours/Week: 6
     DSEC-1                   CELLULAR BIOCHEMISTRY AND                      Credits: 5
     Course Code                           VIROLOGY                            Internal         External
     20PBCE11                                                                     40                60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: comprehend the chemical composition of cell membrane, cellular processes on the
         plasma membrane, regulated and unregulated events inside and outside the cell.
         [K2]
   CO2: identify the occurrence of cellular mechanisms at molecular level based on ionic
          transport, ATP synthesis, cell signaling and cell division process. [K3]
   CO3: apply the knowledge about plasma membrane on various cellular events & infer
          the link between the life cycle of viruses and oncogenesis mechanism. [K3]
   CO4: dissect a cellular problem into its key features by thinking in an integrated
          manner and examining the problems from a different perspective. [K4]
   CO5: interpret the cell biological principles based on sound scientific principles and correlating
          them with the modern cell biology research. [K5]
UNIT I
Molecular organization: Freeze fracture and fluid mosaic model. Composition: membrane lipids,
membrane protein, membrane fluidity and molecular mobility of lipids and proteins. Model
membrane isolation: Techniques of making multilamellar vesicles, bilayer reconstitution of
proteins into vesicles, liposomes.     Isolation and characterization of plasma membrane.
Membrane fusion in exocytosis and endocytosis.                                             (20 Hours)
UNIT II
UNIT III
Membrane transport: Small molecules- simple diffusion, Facilitated diffusion- pores, channels,
properties. Carriers- specific ionophores. Active transport- Na pump, Ca2+ pump. Secondary
active transport-Na dependent active transport.                                             (12 Hours)
UNIT IV
Cell junctions: Desmosomes, tight junction, gap junctions. Extracellular matrix- Collagen,
chemistry and assembly. Organization and role in cell adhesion- proteoglycans and
glycosaminoglycans, elastin. Molecular aspects of cell division- Cell cycle. Membrane receptors,
communications: chemical signaling between cells- hormones and neurotransmitters. Signal
transduction: cAMP, G protein, IP. Structure and organization of the nervous system.
                                                                                             (27 Hours)
UNIT V
Bacteriophages & Cancer Biology: Tumor viruses: DNA virus- SV40 replication, RNA viruses
- RSV replication. Cancer Biology- cell cultures, cell lines, and cell transformation. Chemical
differences between normal and cancer cells, surface changes in cancer cells. Agents that cause
cancer in animals. Chemical carcinogens and radiation. Oncogenesis mechanism. MTT assay.
Comet assay.                                                                           (18 Hours)
TEXT BOOKS
1.   Powar C.B. (1992), General Microbiology, Vol–II ,2nd Edition, Himalaya Pub.
     House, Mumbai.
2.   Gerald Karp (1999), Cell & Molecular Biology, John Wiley &sons, Newyork.
3.    Becker, Kleinsmith, Hardin (2002). The world of the cell, 4th Edition, Benjamin
      Cummings.
REFERENCE BOOKS
   1. Ronald Voet & Judith G.Voet (2006), Biochemistry, 2nd Edition, John Wiley & Sons,
         U.S.A.
   2. Benjamin Lewin (2004), Genes VIII, Oxford University Press, New York.
   3. S.C.Rastogi (1986), Cell and Molecular biology, 3rd edition, New Age international Pvt
      Ltd, NewDelhi.
   4. De Robertis (2005), Cell and Molecular Biology, 8th Edition, B.I.Waverly Pvt Ltd,
      New Delhi.
Course Code       PO1          PO2     PO3             PO4        PO5      PO6        PO7         PO8
 20PBCE11
                  PSO   PSO    PSO      PSO    PSO      PSO       PSO       PSO         PSO        PSO
                   1a    1b     2        3a     3b       4         5         6           7          8
   CO1             M      M      M       L         L      -         H          -          -             L
CO2 M L L M M M H M - L
CO3 H H H H H M H M - -
CO4 H H H H H H H H L H
CO5 H H H H H H H H L H
                                    M.SC. BIOCHEMISTRY
                                      (2020 -2021 onwards)
         Semester I                                                       Hours/Week: 6
         DSEC-1                   ENZYMES AND ENZYME                      Credits: 5
         Course Code                    TECHNOLOGY                            Internal         External
     20PBCE12                                                                    40               60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: describe the structure, functions, mechanism of action of enzymes, kinetics of
         enzyme catalyzed reactions, enzyme inhibitions, regulatory process and their
         application in commercial production. [K2]
   CO2: apply their knowledge in the commercial synthesis of novel products
          using the enzyme kinetics in living systems. [K3]
   CO3: compare and contrast the uses of enzyme technology with current
          applications in a diverse range of industries. [K3]
   CO4: evaluate the function of cofactors in enzyme catalyzed reactions,
         immobilization of enzymes, exposure of wide applications of enzymes and
         future potential. [K4]
   CO5: detect the immobilization of enzymes, commercial enzyme production and the
          presence of aminoacids in the active sites. [K5]
UNIT I
Introduction: Active site-definition, salient features, list of functional groups, Identification of
amino acids present in the active site by chemical modification, affinity labeling and site directed
mutagenesis. Specificity of enzymes. Cofactor as carriers: Redox carriers (NAD/NADP,
flavoprotein, lipoate, glutathione, ascorbic acid, quinines, cytochromes). Carriers of one
carbon group - (Tetrahydrofolate, Homocysteine, Biotin), Phosphate carrier (ATP), Glycosyl
carrier (UTP).                                                                             (15 Hours)
UNIT II
UNIT III
UNIT IV
Mechanism Enzyme action: Activation energy, Fischer‟s Lock and Key hypothesis and
Koshland‟s induced fit model. Proximity and orientation effect, Strain & distortion theory. Acid –
base catalysis - Ribonuclease, Lysozyme. Covalent catalysis – Chymotrysin, Carboxy peptidase.
Multienzyme complex.
                                                                                            (25 Hours)
UNIT V
REFERENCE BOOKS
5. Martin Chaplin and Christopher Bucke (1990). Enzyme Technology, Cambridge University
     Press.
                                    M.SC. BIOCHEMISTRY
                                      (2020 -2021 onwards)
         Semester I                                                           Hours/Week: 6
         DSEC-1                                                                  Credits: 5
      Course Code                 DAIRY BIOCHEMISTRY                         Internal         External
      20PBCE13                                                                  40              60
 COURSE OUTCOMES
 On completion of the course, the students will be able to
    CO1: understand the composition and physicochemical characteristics of the main components
           of milk. [K2]
    CO2: apply the knowledge of chemistry of dairy components and find the impacts of processing
           conditions on milk and dairy products. [K3]
    CO3: identify the dairy products manufacturing and key functions of the processing steps
           involved. [K3]
    CO4: analyze the food adulteration and contamination of food, food laws and standards. [K4]
    CO5: design methods of dairy production, and refrigeration and storage techniques. [K5]
Unit I
 Composition of Milk, Food and Nutritive Value of Milk, Classification, Colostrums and its
 properties and difference from normal milk, Correlations amongst Compositional parameters,
 Legal standards of milk, Chemical test.
                                                                                             (20 Hours)
 UNIT II
 Reception & Treatment of Milk at the Dairy Plant: Reception, Chilling, Clarification and
 Storage Coagulation and heat stabilizing milk.
                                                                                (15 Hours)
 UNIT III
 Homogenization – Definition, Effect of Homogenization on Physical properties of Milk.
 Elementary knowledge about indigenous and modern dairy products.
                                                                                             (15 Hours)
UNITV
Adulteration in milk & their detection, Defects in Market Milk, Standardized Milk,
Manufacturing of Special Milk – Toned, Doubled Toned, Reconstituted, Recombined, Flavored
Milk                                                                                        (20 Hours)
TEXT BOOKS
1. Dubey R.C, (2000). Text book on Microbiology,1st edition. S.Chand & Co., New Delhi.
2 .John Wiley and sons , Dairy Chemistry and Physics. New York,
REFERENCE BOOKS
1. S.K.DEY, Outlines of Dairy Technology, Oxford IBH Pub. NDRI Market milk.
2. Pelczar, M.J., Chan,E.C.S and Kreig,N.R (1993).Microbiology,5th Edition, Tata Publishing
  Co., Ltd., New Delhi.
CO2 H H M H H M M M - -
CO3 H M H M M H M - - M
CO4 H H M H H M H M M -
CO5 H H H H H H H - - -
   Dr.P.Annapoorani                                                                 M.Rajakumari
   Head of the Department                                                         Course Designer
                                         M.SC. BIOCHEMISTRY
                                           (2020 -2021 onwards)
      Semester II                                                            Hours/Week: 5
      Core Course-4          ENDOCRINOLOGY & METABOLIC                       Credits: 4
      Course Code                         REGULATION                            Internal         External
      20PBCC21                                                                      40               60
COURSE OUTCOMES
On completion of the course, the students will be able to
    CO1: demonstrate various metabolic pathways of various biomolecules, hormones of endocrine
          glands and their mechanism of action. [K2]
    CO2: apply the crucial role of hormones with regard to the integration of metabolic
          Pathways. [K3]
    CO3: find the integrated approach of anabolic and catabolic pathways of various biomolecules
          mediated by hormones. [K3]
    CO4: analyze the role of hormones and key enzymes that regulate various metabolic
          Pathways. [K4]
    CO5: assess the involvement of hormones and organs in the metabolic pathways of the living
          System. [K5]
UNIT I
Introduction to Hormones: Characteristics of hormone system, functions & mechanism of action of
hormones.    Growth factors: somatomedin & erythropoietin, Nerve growth factor, epidermal growth
factor, fibroblast growth factor, GI tract hormones. Chemistry, biosynthesis, secretion, biochemical
actions of pituitary, thyroid, parathyroid, adrenal & gonadal hormones.                               (15 Hours)
UNIT III
Glycogen metabolism: Glycogen as an efficient storage form of glucose, cAMP& coordinated control
of Glycogenesis & Glycogenolysis. Phosphorylase activation & inactivation. Effect of phosphorylation
of synthase. Action of phosphatases. HMP shunt - glucose – 6- phosphate dehydrogenase as a
regulatory enzyme – role of NADPH in metabolism.             TCA cycle, Citrate synthase, Isocitrate
dehydrogenases & α- Ketoglutarate dehydrogenase as regulatory site in TCA cycle. Transport of
NADH into mitochondria.                                                                           (15 Hours)
UNIT IV
Fatty acid and Amino acid Metabolism: Control of Acetyl-coA carboxylase, role of hormones,
effect of diet on fatty acid synthesis. Regulation of biosynthesis of Triacylglycerol, cholesterol,
phosphatidyl ethanolamine sphingomyelin. Metabolism of triacylglycerol during stress. Fatty acid
oxidation, role of carnitine control of oxidation, regulation of         ketogenesis, Metabolism of
aromatic amino acids, prostaglandins & thromboxanes.                                              (15 Hours)
UNIT V
Urea Cycle & Nucleic Acid Metabolism: Regulation of glutamate dehydrogenase & Urea
cycle. Regulation of purine & pyrimidine nucleotide biosynthesis.      Integration of metabolism: Key
junction in metabolism:    Glucose- 6- PO4, Pyruvate & Acetyl coA.          Metabolic profiles of major
organs – Brain, muscle, liver and adipose tissue.                                              (15 Hours)
TEXT BOOKS
1. Stryer L (2003). Biochemistry 2nd Edition, W.H. Freeman and Company, NY.
2. Chatterjee (2011), Text book of Medical Biochemistry, 8th edition, Jaypee Brothers Medical
   (P) Ltd. New Delhi.
3. Lehninger A.L. (2008). Principles of Biochemistry , 5th edition, Palgrave Macmillan UK.
4. Voet D & Voet J.G (1990). Biochemistry, John Wiley & Sons, NY.
      Course Code             PO1        PO2   PO3              PO4      PO5       PO6        PO7       PO8
      20PBCC21
                      PSO       PSO      PSO   PSO        PSO   PSO       PSO        PSO       PSO        PSO
                         1a         1b    2     3a        3b     4          5          6         7            8
CO1 M M M L L L M - - -
CO2 H H L M M M M - - H
CO3 H H M H H M H M - H
CO4 H H H H H H H M L H
CO5 H H H H H H H H L H
                                         M.Sc. BIOCHEMISTRY
                                          (2022 -2023 onwards)
Semester II                                                         Hours/Week: 5
Core Course-4          ENDOCRINOLOGY & METABOLIC                    Credits: 4
Course Code                        REGULATION                          Internal         External
20PBCC21N                                                                 40                60
COURSE
OUTCOMES
On completion of the course, the students will be able to
CO1: demonstrate various metabolic pathways of various biomolecules, hormones of endocrine
     glands and their mechanism of action [K2]
CO2: apply the crucial role of hormones with regard to the integration of metabolic Pathways [K3]
CO3: find the integrated approach of anabolic and catabolic pathways of various biomolecules
     mediated by hormones. [K3]
CO4: analyze the role of hormones and key enzymes that regulate various metabolic
     pathways [K4]
CO5: assess the involvement of hormones and organs in the metabolic pathways of the living
     system [K5]
UNIT I
Introduction to Hormones: Characteristics of Hormone System, Functions & Mechanism of Action of
Hormones. Growth Factors: Somatomedin & Erythropoietin, Nerve Growth Factor, Epidermal Growth
Factor, Fibroblast Growth Factor, GI Tract Hormones. Chemistry, Biosynthesis, Secretion, Biochemical
Actions of Pituitary, Thyroid, Parathyroid, Adrenal & Gonadal Hormones               (15 Hours)
UNIT II
Hormonal      Regulation     of   Carbohydrate       Metabolism:      Glycolysis       &      Gluconeogenesis:
Phosphofructokinase As The Key Enzyme in Glycolysis; Role of Fructose 2, 6 Diphosphate in Liver &
Muscle; Hexokinase and Pyruvate Kinase as Regulatory Enzymes in Glycolysis, Pyruvate
Dehydrogenase Complex & its Regulation. Reciprocal of Glycolysis & Gluconeogenesis. (15 Hours)
Glycogen metabolism: Glycogen as an efficient storage form of glucose, cAMP& coordinated control of
Glycogenesis & Glycogenolysis. Phosphorylase activation & inactivation. Effect of phosphorylation of
synthase. Action of Phosphatases. HMP shunt-Glucose-6-phosphate dehydrogenase as a Regulatory
enzyme, Role of NADPH in metabolism. TCA cycle, Citrate synthase, Isocitrate dehydrogenases & α-
Ketoglutarate dehydrogenase as Regulatory site in TCA cycle. Transport of NADH into mitochondria.
Heme metabolism : Biosynthesis, catabolism (porphyrins and bilirubin metabolism)                (15 Hours)
UNIT IV
Fatty acid and Amino acid Metabolism: Control of Acetyl-Coa Carboxylase, Role of Hormones, Effect
of Diet On Fatty Acid Synthesis. Biosynthesis of Triacyl Glycerol, Cholesterol, Phosphatidyl
Ethanolamine & Sphingomyelin. Metabolism of Triacylglycerol during Stress. Fatty Acid Oxidation,
Role of Carnitine Control of Oxidation, Regulation of Ketogenesis, Metabolism of Aromatic Amino
Acids, Prostaglandins & Thrombaxanes.                                                         (15 Hours)
UNIT V
Urea Cycle & Nucleic Acid Metabolism: Regulation of Glutamate Dehydrogenase & Urea Cycle.
Regulation of Purine & Pyrimidine Nucleotide Biosynthesis. Integration of Metabolism: Key Junction in
Metabolism: Glucose- 6- PO4, Pyruvate & Acetyl CoA. Metabolic Profiles of Major Organs - Brain,
Muscle, Liver and Adipose Tissue.                                                             (15 Hours)
TEXT BOOKS
1. Stryer L (2003). Biochemistry 2nd Edition, W.H. Freeman and Company, NY.
2. Chatterjee (2011), Text book of Medical Biochemistry, 8th edition, Jaypee Brothers. New Delhi.
3. Lehninger A.L. (2008). Principles of Biochemistry , 5th edition, Palgrave Macmillan UK.
REFERENCE BOOKS
1.   Ronald Voet& Judith G.Voet (2006), Biochemistry, 2nd Edition, John Wiley & Sons, U.S.A
2. Geoffrey L.Zubay (1998), Biochemistry, 4th edition, Wm.C. Brown Publishers, USA.
3.   Conn E.E., Stumpf P.K ,Bruening G (1987). Outlines of Biochemistry 5/e –R.H, John Wiley
      & Sons, USA.
4. Voet D &Voet J.G (1990). Biochemistry, John Wiley & Sons, NY.
Course Code
                   PO1        PO2        PO3        PO4   PO5       PO6         PO7          PO8
(20PBCC21N)
              1a         1b    2    3a         3b    4     5          6           7           8
  CO 1        H          M    M     M          M    M     H          M          M            M
  CO 2        H          M    M     H          H    H     H          M          M            M
  CO 3        M          M    H     H          M    H     H          M          M            M
  CO 4        M          M    H     H          M    H     H          M          M            M
  CO 5        M          M    H     H          M    H     H          M          M            M
                                    M.SC. BIOCHEMISTRY
                                        (2020 -2021 onwards)
            Semester II                                                  Hours/Week: 5
                                 MICROBIAL BIOCHEMISTRY
            Core Course-5                                                Credits: 4
                                    AND FERMENTATION
            Course Code               TECHNOLOGY                          Internal      External
            20PBCC22                                                         40           60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: understand how microbes are relevant in technological developments for
          industries related to food and fermentation and their various, metabolic energy
          yielding pathways. [K2]
   CO2: develop knowledge about microbial metabolism, growth, energy generation, various
          fermentation pathways, energetic its role in science and industry today. [K3]
    CO3: apply the knowledge of microbial biochemistry and fermentation technology
          Including areas such as energy metabolism, microbial biosynthesis and
          industrial production, purification of compounds and their application to
          research, development and societal needs. [K3]
   CO4: analyze different fermentation techniques, bioreactor design, inoculum
          development for industrial fermentation, the use of microorganisms for the
          value-added products through fermentation processes, the production of
          secondary metabolites. [K4]
   CO5: assess fermentation technology and requirements; production of commercially
          important microbial products and various metabolic activities in
          microorganisms. [K5]
UNIT I
Metabolic and energy yielding reactions of sugars: Transport of sugars into the bacterial cell-
The phosphotransferase system, Transport of non-PTS sugars. Membrane bound transport systems
– E.coli lactose permease, ß-methyl galactoside system. Pathways of glucose degradation: EMP,
HMP, ED pathways,        and    Phosphoketolase     pathways.    Aerobic      pathways       of     pyruvate
metabolism-TCA cycle, electron transport and glyoxylate cycle, anaplerosis. Utilization of
one carbon and two carbon compounds-Glycerate pathway and serine pathway. Interrelationship
of EMP, HMP and ED pathways.
                                                                                               (15 Hours)
UNIT II
Metabolism of lipids: Oxidation of fatty acids in microbes, Oxidation of fatty acids with odd
number of carbon atoms, oxidation of branched chain fatty acids, Oxidation of aliphatic and
aromatic hydrocarbons. Biosynthesis of straight chain , branched chain fatty acids, biosynthesis of
superchain fatty acids, glycerol dissimilation, synthesis of triglycerides, phospholipids and
glycolipids. Catabolism of phospholipids, poly isoprenoid biosynthesis.
                                                                                                  (15 Hours)
UNIT III
Microbial Biosynthesis: Synthesis of storage polymers- Poly Beta hydroxybutyrate and poly
phosphate. Secondary metabolites - Biosynthesis of patulin as an example. Extracellular enzymes.
Photosynthesis: Photosynthetic structures, types of bacterial photosynthesis, photosynthetic
pigments, photosynthetic electron transport, photophosphorylation. Co2 fixation - Calvin cycle and
reductive carboxylic acid cycle. Distinction between prokaryotic and eukaryotic photosynthesis.
                                                                                                  (15 Hours)
UNIT IV
Fermentation technology:        Fermentation - definition, Types of fermentation- Homolactic and
hetero lactic fermentation, propionic fermentation and formic acid fermentation. Surface,
submerged fermentation and solid state fermentation. Design and operation of Fermentor -
Basic concepts for selection of a reactor, Packed bed reactor, Fluidized bed reactor, Trickle bed
reactor, Bubble column reactor.        Downstream        processing-precipitation,        Centrifugation,
filtration,   solvent   extraction, chromatographic purification and affinity purification.
                                                                                                  (15 Hours)
UN
IT
V
TEXT BOOKS
                                     M.Sc. BIOCHEMISTRY
                                       (2022 -2023 onwards)
        Semester II                                                     Hours/Week: 5
        Core Course-5          MICROBIAL BIOCHEMISTRY                   Credits: 4
                                  AND FERMENTATION
        Course Code                 TECHNOLOGY                             Internal     External
        20PBCC22N                                                             40          60
  COURSE OUTCOMES
  On completion of the course, the students will be able to
CO1: understand how microbes are relevant in technological developments for industries
       related to food and fermentation and their various, metabolic energy yielding
       pathways. [K2]
CO2: develop knowledge about microbial metabolism, growth, energy generation,
       various fermentation pathways, energetic its role in science and industry today. [K3]
CO3: apply the knowledge of microbial biochemistry and fermentation technology including
       areas such as energy metabolism, microbial biosynthesis and industrial production,
       purification of compounds and their application to research, development and societal
       needs. [K3]
CO4:    analyze    different   fermentation   techniques,     bioreactor     design,    inoculum
       development for industrial fermentation, the use of microorganisms for the value-
       added products through fermentation processes, the production of secondary
       metabolites. [K4]
CO5: assess fermentation technology and requirements; production of commercially
       important microbial products and various metabolic activities in microorganisms.
       [K5]
UNIT I
Metabolic and energy yielding reactions of sugars: Transport of sugars into the bacterial cell-
The phosphotransferase system, Transport of non-PTS sugars. Membrane bound transport systems
– E.coli lactose permease, ß-methyl galactoside system. Pathways of glucose degradation:
EMP, HMP, ED pathways, and Phosphoketolase pathways. Aerobic pathways of pyruvate
metabolism-TCA cycle, electron transport and glyoxylate cycle, anaplerosis. Utilization of
one      carbon      and      two      carbon     compounds-Glycerate pathway and serine pathway.
Interrelationship of EMP, HMP and ED pathways.                                                         (15 Hours)
UNIT II
Metabolism of lipids: Oxidation of fatty acids in microbes, Oxidation of fatty acids with odd
number of carbon atoms, oxidation of branched chain fatty acids, Oxidation of aliphatic and
aromatic hydrocarbons. Biosynthesis of straight chain , branched chain fatty acids, biosynthesis of
superchain fatty acids, glycerol dissimilation, synthesis of triglycerides, phospholipids and
glycolipids. Catabolism of phospholipids, poly isoprenoid biosynthesis.
                                                                                                       (15 Hours)
UNIT III
Microbial Biosynthesis: Synthesis of storage polymers- Poly Beta hydroxybutyrate and poly
phosphate. Commercially important            microbial        polysaccharides      and      their     applications.
Secondary metabolites         - Biosynthesis of patulin as an example. Extracellular enzymes.
Photosynthesis: Photosynthetic structures, types         of    bacterial   photosynthesis,          photosynthetic
pigments,    photosynthetic       electron   transport, photophosphorylation.            Co2 fixation - Calvin
cycle and       reductive carboxylic acid cycle. Distinction between prokaryotic and eukaryotic
photosynthesis.                                                                                       (15 Hours)
UNIT IV
Fermentation technology:          Fermentation - definition, Types of fermentation- Homolactic and
hetero lactic     fermentation,     propionic    fermentation        and    formic         acid      fermentation.
Surface,    submerged fermentation and solid state fermentation. Design and operation of
Fermentor - Basic concepts for selection of a reactor, Packed bed reactor, Fluidized bed
reactor, Air lift bioreactor, Trickle bed reactor, Bubble              column         reactor.        Downstream
processing-precipitation,      Centrifugation,      filtration,      solvent extraction, chromatographic
purification and affinity purification.                                                             (15 Hours)
UNIT V
Industrial Biotechnology: General techniques of the inocula buildup for industrial fermentations.
Scale up and scale down fermentation. Cheap raw materials as substrates.                            Industrial
production-antibiotic (Streptomycin, Penicillin), alcohol (Beer, Wine), organic acid (Citric acid,
Lactic acid), aminoacid (L- glutamic acid), enzymes (amylase, Protease),                   Vitamins (B12).
Production of single cell proteins from wastes and wood. Production of fermented foods.
                                                                                                  (15 Hours)
TEXT BOOKS
1. Caldwell D.R (2002.). Microbial physiology and metabolism, William C Brown Publishers, USA.
2. Joanne Willey, Kathleen Sandman and Dorothy Wood (2019). Prescott‟s Microbiology
3. U.Satyanaayana (2015), Biotechnology, Arunabha sen Books and allied (p) Ltd., Kolkata.
4. Lehninger A.L. (2008). Principles of Biochemistry , 5th edition, Palgrave Macmillan UK.
REFERENCE BOOKS
1. Schlegel H.G. (1995), General Microbiology, 7th edition, Cambridge University
   Press, Cambridge
2. L.E.Casida, JR (1994). Industrial Microbiology, New Age International Publication
3. R.C.Dubey and D.K.Maheswari (2014), A text book of Biotechnology, 5th edition ,S Chand
 Publishing.
                           PO1        PO2        PO3        PO4      PO5         PO6        PO7         PO8
       Course Code
      (20PBCC22N)
                      1a         1b    2    3a         3b    4        5           6          7           8
CO 1 H H M M H M M M M M
CO 2 H H M M H M M H M M
CO 3 H H H M H H H H M H
CO 4 H H M M H M M H M H
CO 5 H H M M H M M H M H
                                     M.SC. BIOCHEMISTRY
                                        (2020 -2021 onwards)
    Semester II                                                                    Hours/Week: 5
    Core Course- 6         MOLECULAR BIOLOGY AND GENETIC                           Credits: 4
    Course Code                           ENGINEERING                                Internal       External
  20PBCC23                                                                              40              60
COURSE OUTCOMES
On completion of the course, the studs will be able to
·    CO1: understand the principles and techniques leads to comprehensive analysis and
            practices in Molecular Biotechnology. [K2]
     CO2: apply the synthetic information from a wide variety of sources to understand the key
            principles of molecular biology and Genetic Engineering. [K3]
     CO3: identify the various issues both independently and cooperatively for current and future
           research problems in molecular and advanced biotechnology. [K3]
     CO4: analyze the various applications of rDNA technology in evolving plants for resistance
           to pest and disease, tolerance to herbicides and abiotic factors. [K4]
     CO5: evaluate the steps of the synthesis of novel bio products,
           development of research aptitude and technical skills. [K5]
UNIT I
Structural aspects of DNA Duplex: DNA Replication – Various models. Enzymes involved in
DNA replication, Events in replication fork, Mechanism of Bacterial and Plasmid DNA
replication. Inhibitors of replication. Errors during replication, Mutation & its types.
                                                                                                (15 Hours)
                                                                                              (15 Hours)
TEXT BOOKS
1. R.C.Dubey and D.K.Maheswari (2014), A text book of Biotechnology, 5th edition ,S
    Chand Publishing.
2. V.Kumaresan (2012), Biotechnology ,6th edition, Saras Publication.
REFERENCE BOOKS
2.   Watson, J. D., Hopkins, N. H., Roberts, J. W., Steitz, J. A., & Weiner, A. M.( 1992).
     Molecular biology of the Gene , 4/e, The Benjamin/Cumming Publishing Company Inc.
CO1 M M M L L L - - - -
     CO2
                  M         M     L        M          M       M       M          -          -         -
     CO3          H         H     H        H          H       H       M          -          -         -
     CO4          H         H     H        H          M       M       M         M          M          -
     CO5
                  H         H     M        H          M       H       H          H         M         M
                                                                                Dr.P.Annapoorani
Dr.P.Annapoorani                                                               Mrs.M.Rajakumari
Head of the Department                                                         Course Designer
                                            M.Sc. BIOCHEMISTRY
                                              (2022 -2023 onwards)
Semester II Hours/Week: 5
COURSE OUTCOMES
On completion of the course, the studs will be able to
·    CO1: understand the principles and techniques leads to comprehensive
            analysis and practices in Molecular Biotechnology. [K2]
     CO2: apply the synthetic information from a wide variety of sources to understand the
            key principles of molecular biology and Genetic Engineering. [K3]
     CO3: identify the various issues both independently and cooperatively for
           current and future research problems in molecular and advanced biotechnology. [K3]
     CO4: analyze the various applications of rDNA technology in evolving plants for
           resistance to pest and disease, tolerance to herbicides and abiotic factors. [K4]
     CO5: create and explain the steps involved in the synthesis of novel bio products,
           development of research aptitude and technical skills. [K5]
UNIT I
Structural aspects of DNA Duplex: DNA Replication – Various models. Enzymes involved in
DNA replication, Events in replication fork, Mechanism of Bacterial and Plasmid DNA
replication. Inhibitors of replication. Errors during replication, Mutation & its types.        (15 Hours)
UNIT II
Transcription & Translation: Enzymes involved in transcription – DNA dependent RNA
polymerase – Mechanism involved in transcription. Inhibitors of transcription, Fine structure of
gene, Operon models – lac, ara & trp. Translation- Enzymes, mechanism of translation. Inhibitors of
translation. Transposons and its types.                                                (15 Hours)
                                                    62             17th Academic Council Meeting 31.01.2023
                                                                          Curriculum for M.Sc. BIOCHEMISTRY
UNIT III
CO 1 H H H M M H M M L M
     CO 2         H         M    M      H     M       H        M           H          M          M
     CO 3         H         H    H      H         H   H        M           H          H          H
CO 4 H H H H M M M H H M
CO 5 H H M H M H H H H M
                                                                         Dr.P.Annapoorani
     Dr.P.Annapoorani                                                   Mrs.M.Rajakumari
Head of the Department                                                 Course Designer
                                          M.Sc. BIOCHEMISTRY
                                            (2020 -21 onwards)
       Semester: II                                                                Hours/Week: 6
 COURSE OUTCOMES
 On completion of the course, the students will be able to
        CO1: apply the principles and methodologies of microbial cell culture, characterization of
               microbes, electrophoresis , DNA isolation from various cells such as bacterial cells
               and animal tissues. [K3]
        CO2: outline the flow charts for microbes characterization, electrophoresis, DNA isolation
               from various cells [K3]
        CO3: observe and interpret the results of microbiology and molecular biology experiments
               using the standard methods and techniques and complete the record work. [K3]
        CO4: Comment on the microbial cell culture, characterization of microbes, electrophoresis
              And DNA isolation from various cells. [K4]
        CO5: assess the modifications in the use of reagents, in characterizing microbes, in
                electrophoresis and DNA isolation. [K5]
 Experiments
 1.       Preparation and use of glassware, sterilization
 2.       Preparation of simple microbial culture media
 3.       Maintenance of microbial cultures
 4.       Metabolite study:
      i) Hydrogen sulfide production
     ii) Acid production
5.      Electrophoresis i) SDS-PAGE
     ii) Agarose gel electrophoresis
   REFERENCE BOOKS
   1. Gunasekaran.P (1995) ,Laboratory manual in Microbiology-, New age
    International(P) Ltd. Publishers, New Delhi.
   2.Aneja, K.R. (1996).Experiments in Microbiology, Plant pathology, Tissue
    culture and mushroom Cultivation, I edition, New age International (P) Ltd.
    Publishers, New Delhi.
   3. PalaniveluP.(2004) Analytical Biochemistry & Separation Techniques
   ,Palkalai Nagar,
      Madurai: 4/e, 21st Century Publication.
CO2 H H M M M M M - M H
CO3 H H H H H H H L M H
CO4 H H H H H H H L M H
CO5 H H H H H H H M M H
                                      M.Sc. BIOCHEMISTRY
                                        (2020 - 2021 onwards)
           Semester II                                                      Hours/Week: 4
           Core practical-3                                                 Credits: 2
           Course Code               BIOINFORMATICS LAB                      Internal       External
           20PBCC22P                                                             40             60
COURSE OUTCOMES
On completion of the course, the students will be able to
    CO1: write the protocols for sequence retrieval from different Biological databases. [K3]
    CO2: construct the methodologies for accessing proteomic tools and DNA or protein
          sequence similarity search using BLAST and visualizing protein structure. [K3]
    CO3: interpret the results of retrieved and aligned sequences from different primary
         databases, structural databases, multiple sequence alignment, proteomic tools and
         complete the record work notebook. [K3]
    CO4: assess the basic informatics tools to extract or retrieve information from
         Biological databases, molecular visualization tools and its applications. [K4]
    CO5: build homology model for unknown protein sequence and predict the structure. [K5]
Experiments
                                       M.Sc. BIOCHEMISTRY
                                        (2020 - 2021 onwards)
          Semester II                                                      Hours/Week: 5
          DSEC-2                                                           Credits: 4
          Course Code              PLANT BIOCHEMISTRY                      Internal   External
          20PBCE21                                                            40         60
 COURSE OUTCOMES
 On completion of the course, the students will be able to
       CO1: summarize plant tissue culture, organelles of plant cell and also
             biochemistry of photosynthetic process and its relation to man and its
             environment. [K2]
       CO2: interpret the role of nutrients and secondary metabolites in plants. [K3]
       CO3: sketch the effect of environmental factors, growth regulators and
             pathogens in plant physiology. [K3]
       CO4: analyze the biochemical pathways involved in the synthesis, transport,
              growth, maturation and disease resistant mechanisms in plants. [K4]
       CO5: evaluate the transport mechanism, tissue culture technique and industrial
             applications of secondary metabolites in plants. [K5]
UNIT I
Plant Cell & Transport Mechanism: Structure. Composition and functions of plant cell
organelles, including cell wall and cell membranes. Biosynthesis of cell wall. Plant and tissue
culture. Water management, ascent of sap, mechanisms for movement of solutes. Translocation in
xylem and phloem.                                                                             (15 Hours)
UNIT II
Plant Nutrition: Essential nutrients – inorganic nutrients, their functions, deficient and
toxicity symptoms. Nitrogen fixation Biochemistry of nitrate assimilation sulphur metabolism,
sulphur activation and assimilation.
                                                                                              (15 Hours)
                                                   70           17th Academic Council Meeting 31.01.2023
                                                                         Curriculum for M.Sc. BIOCHEMISTRY
UNIT III
Photosynthesis: Structure and composition of photosynthetic apparatus light and dark reactions-
Photophosphorylation; Carbondioxide fixation C3, C4 and CAM pathways. Biosynthesis of
sucrose and starch, Factors affecting the rate of photosynthesis. Photorespiration.
                                                                                           (10 Hours)
UNIT IV
UNIT V
                                                                              Dr.R.Renuka
Dr.P.Annapoorani                                                               Dr.R.Salini
Head of the Department                                                        Course Designer
                                             M.Sc. BIOCHEMISTRY
                                               (2022 -2023 onwards)
          Semester II                                                          Hours/Week: 5
          DSEC-2                   PLANT BIOCHEMISTRY                          Credits: 4
          Course Code                                                          Internal   External
          20PBCE21N                                                               40         60
COURSE OUTCOMES
On completion of the course, the students will be able to
      CO1: summarize plant tissue culture, organelles of plant cell and also
       biochemistry of Photosynthetic process and its relation to man and its environment. [K2]
       CO2: interpret the role of nutrients and secondary metabolites in plants. [K3]
       CO3: sketch the effect of environmental factors, growth regulators and
             pathogens in plant physiology. [K3]
       CO4: analyze the biochemical pathways involved in the synthesis, transport,
              growth, maturation and disease resistant mechanisms in plants. [K4]
       CO5: evaluate the transport mechanism, tissue culture technique and industrial
             applications of secondary metabolites in plants. [K5]
UNIT I
Plant Cell & Transport Mechanism: Structure. Composition and functions of plant cell
organelles, including cell wall and cell membranes. Biosynthesis of cell wall. Plant tissue culture.
Transport Mechanisms-Water management, ascent of sap, mechanisms for movement of solutes.
Translocation in xylem and phloem.                                                            (15 Hours)
UNIT II
Plant Nutrition: Essential nutrients – inorganic nutrients, their functions, deficient and
toxicity symptoms.    Nitrogen   fixation-   Biochemistry    of      Nitrate     assimilation,     Sulphur
metabolism, Sulphur Activation and Assimilation.                                              (15 Hours)
UNIT III
Photosynthesis: Structure and composition of photosynthetic apparatus, light and dark
reactions- Photophosphorylation; Carbon-di-oxide fixation C3, C4 and CAM pathways.
Biosynthesis of sucrose and starch,        Factors    affecting   the    rate     of     photosynthesis.
Photorespiration-Photosynthesis and plant productivity.
                                                                                                (10 Hours)
UNIT IV
Growth Regulators & Phytochemistry: Auxins, Gibberellins, Cytokinins, ABA, Ethylene
Metabolism, functions and mechanism of action. Plant growth inhibitors. Plant chemicals and
their significance storage carbohydrates, proteins and fats. Secondary plant products and their
economic importance- waxes; essential oils, phenolic glycosides, flavones, anthocyanins and
alkaloids. Biosynthesis       of alkaloids, terpenoids, phenolics and pigments (general treatment
only). Algal secondary metabolites.                                                           (15 Hours)
UNIT V
Biochemistry of plant diseases: Plant pathogenesis initial stages of pathogenesis, mechanisms of
pathogenesis- Mechanism of attack.             Responses of plants to pathogens- pathological
effects     of respiration, photosynthesis, cell wall enzymes and –water uptake. Disease-resistance
mechanism; phytoalexins. Photomorphogenesis: Photoperiodism – phytochrome, Physiology of
flowering, Physiology and biochemistry of fruit ripening, Physiology and biochemistry of
senescence Biochemistry of seed germination. Plant Stress, Plant responses to abiotic and biotic
stress.                                                                                         (20 Hours)
TEXT BOOKS
   1. Lincoln Taiz and Eduardo Zeiger, (2002). Plant Physiology, Sinauer Associates; 3rd edition
   2. Pandey & Sinha. (2012), Modern Plant Physiology, 4th Edition. Vikas Publication
    House Pvt Ltd.
REFERENCE BOOKS
   1. Thomas Moore. (2010). Biochemistry and physiology of plant hormones, II
          Edition, Springer-Verlag Berlin and Heidelberg GmbH & Co.
   2.      Devlin. (2009). Plant Biochemistry, Fourth Edition, Vikas Publication House Pvt Ltd.
   3.     R.K. Sinha. (2012). Modern Plant Physiology, 4th Edition, Alpha Science International
          Ltd
       Course Code        PO1    PO2    PO3     PO4    PO5       PO6       PO7       PO8
      (20PBCE21N)        1a 1b    2    3a 3b     4      5         6         7         8
           CO 1          H   H   M     M   M    H       M         M         M          L
           CO 2          H   M   M     M   M    H       M         M          L         L
           CO 3          H   H   M     M   M    M       M         M          L         L
           CO 4          H   H   M     H   M    M       M         M         M          L
           CO 5          H   H   M     H    H   H       H         M          H        M
                                                                         Dr.R.Renuka
 Dr.P.Annapoorani                                                      Dr.R.Salini
Head of the Department                                              Course Designer
                                      M.SC. BIOCHEMISTRY
                                        (2020 - 2021 onwards)
         Semester II                                                         Hours/Week: 5
                                        BIOINFORMATICS AND
         DSEC- 2                                                             Credits: 4
         Course Code                     NANOTECHNOLOGY                       Internal         External
         20PBCE22                                                                40              60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: understand the basic bioinformatics techniques and synthesis,
          applications of nanomaterials used in biological research. [K2]
   CO2: apply sequence alignment methods for sequence similarity search, visualization
          tools in biological data and different types of nanomaterials, applications of
          Nanotechnology in Biomedical and Pharmaceutical Industries. [K3]
   CO3: analyze the different types of nano materials and application of
          Nanotechnology in Biomedical and Pharmaceutical Industries and different
          databases, tools used in biological analysis. [K3]
   CO4: examine the development, ELSI of Genome projects, challenges, scope and
          application of bioinformatics, importance of scoring matrix, gap penalty in
          sequence alignment, properties of nanomaterials, different types of nanoparticle
          synthesis methods and its advantage, disadvantage. [K4]
   CO5: evaluate sequence analysis using tools in biological systems, important
          contributions in bioinformatics, goals, strategics of human genome project, role
          of nanotechnology in biological research and industries. [K5]
UNIT I
History, Scope and Importance: Important contributions - Aims and tasks of Bioinformatics -
applications of Bioinformatics - challenges and opportunities - internet basics – HTML –
introduction to NCBI data model - Various file formats for biological sequences. Databases -
Tools and their uses Primary sequence databases - Composite sequence databases - Secondary
databases- Nucleic acid sequence databases - Protein sequence data bases – Structural databases-
Protein structure visualization tools (RasMol, Swiss PDB Viewer)                                (15 Hours)
UNIT II
UNIT III
Proteomics and Genomics: Genome projects:                 E.coli, D.melanogaster, A. thaliana and
mouse. The human genome project: goals, mapping strategies, markers, sequencing technologies,
results of final sequence, potential benefits and risks, ethical, legal and social issues (ELSI).
                                                                                                 (15 Hours)
UNIT IV
Introduction to Nanotechnology: Introduction, Definition, and Nanoscale, Classification of
Nanomaterials: Quantum Dots, Wells and Wires. Carbon-based Nanomaterials - Nanotubes, Metal
based Nanomaterials (Nanogold, Nanosilver and metal oxides). Properties of nanostructured
materials.
                                                                                                (15 Hours)
UNIT V
Synthesis and applications of Nanomaterials: Top-down (Nanolithography, CVD), Bottom-up
(Sol-gel processing, chemical synthesis). Biological methods of Synthesis: Use of Plant extracts,
bacteria, fungi, yeast and other biological particles. Applications of Nanotechnology in
Biomedical and Pharmaceutical Industries.                                                      (15 Hours)
TEXT BOOKS
REFERENCES BOOKS
CO1 H H M L L L M M - -
CO2 H M M L L L M M - -
CO3 H H M H M M M M - M
CO4 H H M H M M M M - M
CO5 H H M H M M M M - M
                                     M.SC. BIOCHEMISTRY
                                        (2020 -2021 onwards)
         Semester II                                                         Hours/Week: 5
         DSEC- 2                   MOLECULAR MECHANISM OF                    Credits: 4
         Course Code                    INFECTIOUS DISEASES                    Internal        External
         20PBCE23                                                                  40             60
COURSE OUTCOMES
On completion of the course, the students will be able to
     CO1: demonstrate the mechanism of disease cause, transmission, detection,
           treatment and prevention. [K2]
     CO2: apply the mechanism behind various diseases in diagnosis and research for treatment
            Interventions. [K3]
     CO3: identify the reason behind the disease cause, transmission and the response towards
           Treatment. [K3]
     CO4: analyze the existing or emerging infection, drug resistance mechanisms in
           order to develop new tools for their management. [K4]
     CO5: interpret the research findings pertaining to transmission, detection, treatment and
            prevention of diseases. [K5]
UNIT I
(15 Hours)
UNIT
II
Bacterial disease : Epidemiology, signs and symptoms, causative agent, history, infection and
pathogenicity, Diagnostics, Therapeutics and vaccines. Drug resistance, mechanisms, Multidrug
efflux pumps, extended spectrum β-lactamases and implications on public health. Molecular
mechanisms for Tuberculosis, Typhoid, Cholera.                                                   (15 Hours)
UNIT
III
Viral diseases : Epidemiology, signs and symptoms, causative agent, history, infection and
pathogenesis, Detection,        Drugs and       inhibitors, Vaccines. Molecular mechanisms for
hepatitis,                influenza,                dengue,                 polio,                    herpes.
(15 Hours)
UNIT
IV
Parasitic diseases : Epidemiology, signs and symptoms, causative agents, history, Vectors,
life cycle, Host     parasite   interactions,   Diagnostics,    Drugs   and     Inhibitors,     Resistance,
Vaccine             development.          Molecular            mechanisms            for            Malaria.
(15 Hours)
UNIT
V
Emerging and re-emerging infectious diseases and pathogens: MRSA, SARS virus, Bird
flu, prions, Hemorrhagic Fever and Chlamydiae, opportunistic fungal pathogens.                      (15
Hours) TEXT BOOKS
REFERENCE
BOOKS
1. Klein's Microbiology (2008) 7th Ed., Prescott, Harley, Willey, J.M.,
      Sherwood, L.M., Woolverton, C.J. Mc Graw Hill International Edition (New
      York) ISBN:
      978-007-126727.
(2010).
3.     Kenneth J.Ryan, C.       George Ray,      Publisher: McGraw-Hill.          ISBN-13:
978-
     0071604024 ISBN-10: 0071604022 Medical Microbiology. (2012).
4.     Patrick R. Murray, Ken S. Rosenthal, Michael A.Pfaller, Elsevier Health
Sciences.
     ISBN: 978-0-323-08692-9.
5.     Bacterial Pathogenesis: A molecular approach by Salyers AA and Whitt DD
eds.
     American Society for Microbiology Press, Washington, DC USA. 2002
       Course Code            PO1        PO2   PO3               PO4     PO5       PO6        PO7       PO8
        20PBCE23
                        PSO     PSO      PSO    PSO        PSO   PSO      PSO       PSO        PSO       PSO
                         1a         1b    2      3a        3b     4         5         6          7            8
CO1 M M H M M M H - - -
CO2 H H H H H M H - L H
CO3 H H H H H M H M L H
CO4 H H H H H H H M M H
CO5 H H H H H H H M M H
M.Sc. BIOCHEMISTRY
                                       (2020 -2021onwards)
             Semester III                                                Hours/Week: 6
             Core Course-7                                               Credits: 5
                                      IMMUNO CHEMISTRY
             Course Code                                                  Internal      External
              20PBCC31                                                       40             60
COURSE OUTCOMES
On completion of the course, the students will be able to·
   CO1: understand the structure and function of the major lymphoid systems,
          including the molecular, biochemical and cellular mechanisms for
          maintaining homeostasis and basic defense mechanism. [K2]
   CO2: apply the immunoglobulin genes of the immune system, antigen antibody
          interaction and their applications in various immuno assays. [K3]
    CO3: develop the knowledge of each lymphoid system „s contribution to the functioning of
          health and diseases. [K3]
    CO4: analyze the mechanism of cellular and molecular basis of immune
          responsiveness and its therapeutic implications in human system. [K4]
    CO5: evaluate the state-of-the-art experimental methods and Technologies in disease
          diagnosis and clinical research. [K5]
UNIT I
Principles of immunology: Types of immunity. Antigens – Factors influencing antigenicity.
Specific group of antigens- self antigens, foreign antigens- tumor antigens, viral antigens, bacterial
antigens, haptens. Organs of the immune system. Cells of the immune system, response of B cells
to antigens, response of T cells to antigens, Interaction between T and B cells. Cytokines and
Lymphokines (Briefly). Mononuclear phagocytic system.
                                                                                                 (20 Hours)
UNIT II
CO1 H H H - - M M M M -
CO2 H M H M H M M M - -
CO3 H H M H M M M - - M
CO4 H H H H M M H - M -
CO5 M H H H M H H M - -
Dr.P.Annapoorani                                                        Mrs.M.Rajakumari
Head of the Department                                                   Course Designer
                                    M.SC. BIOCHEMISTRY
                                       (2020-2021 onwards)
             Semester III                                                 Hours/Week: 6
             Core Course-8                                                Credits: 5
                                          BIOSTATISTICS
             Course Code                                                  Internal      External
             20PBCC32                                                         40            60
COURSE OUTCOMES
On completion of the course, the students will be able to
    CO1: demonstrate the necessary skill sets to interpret statistical data. [K2]
    CO2: utilize effective statistical methods for data analysis and
           interpretation. [K3] CO3: discover the statistical methodology for the
            evaluation during health and disease conditions. [K3]
    CO4: assess the general theory of data analysis and specific concepts as they
          apply to confidence intervals, effect sizes and hypothesis testing. [K4]
    CO5: hypothesize study designs for analyzing data based on research problems. [K5]
UNIT I
Sampling and tests of significance: sampling distribution, standard error. Tests of significance for
attributes-test for number of success, test for proportion of success and test for difference between
proportions. Tests of significance of large samples: testing the significance of mean, testing the
difference between means of two         samples, testing the difference between two standard
deviations. Students„t‟ distribution: Testing the significance of the mean of a random sample,
testing the difference between means of two samples and testing the significance of
observed correlation coefficient. (Problems Only).Steps in hypothesis testing.                 (20 Hours)
UNIT III
Types of Correlation - positive & negative: Simple, partial & negative: Linear and non-linear
correlation (Definition Only).Scatter diagram method, Graphic Method, Karl Pearson‟s
coefficient of correlation, rank correlation coefficient .Regression equation and regression lines
(problems only). Difference between Correlation and Regression.                      (20 Hours) UNIT IV
for independence of attributes; yate‟s correction, analysis of variance (ANOVA)- Single factor
ANOVA and Two-factor ANOVA with unequal and equal replication. (Problems Only).
                                                                                             (20 Hours)
UNIT V
Research methodology: Concepts of research, types of study design-case control study, nested
case control study, Familial study. Layout of thesis-review of literature, Referencing-styles of
Reference. Plagiarism (Short note).                                                          (15 Hours)
TEXT BOOKS
1. Palanichamy.S and Manoharan.M (2008). Statistical Methods for
Edition.
REFERENCE BOOK
1.Kothari, R.C. (1993). Research Methodology, New Delhi: Wiley Eastern Limited, 5th
  Edition.
   Course Code             PO1       PO2       PO3        PO4         PO5        PO6        PO7          PO8
   20PBCC32
                     PSO     PSO     PSO   PSO   PSO      PSO        PSO        PSO        PSO           PSO
                      1a      1b      2     3a    3b       4          5          6          7             8
      CO1            H           H   M     H          L   H           M           -           -            -
CO2 H H H H M H M L - M
CO3 H H H H M H M M M M
CO4 H H H H M H H M M H
CO5 H H H M H H H H M H
                                         M.Sc. BIOCHEMISTRY
                                           (2023 -2024 onwards)
              Semester III                                                Hours/Week: 6
              Core Course-8                                               Credits: 5
                                          BIOSTATISTICS
              Course Code                                                 Internal      External
              20PBCC32N                                                       40            60
COURSE OUTCOMES
On completion of the course, the students will be able to
CO1 : demonstrate the necessary skill sets to interpret statistical data. [K2]
CO2: utilize effective statistical methods for data analysis and interpretation. [K3]
CO3: discover the statistical methodology for the evaluation during health and
      disease conditions. [K3]
CO4: assess the general theory of data analysis and specific concepts as they apply
     to confidence intervals, effect sizes and hypothesis testing. [K4]
CO5:evaluate various statistical methods for data analysis . [K5]
UNIT I
Representation of Data: Diagrammatic- Simple bar diagram, Rectangles, squares, circles or Pie
diagram, Graphic representation-Histogram, Frequency Polygon, Frequency Curve, Cumulative
Frequency Curve or O Give Curve. Measures of central tendency (mean, median, mode) and
dispersion (standard deviation and mean deviation). Sampling: Types of sampling, Advantages
and disadvantages. R-Studio
                                                                                           (15Hours)
UNIT II
Sampling and tests of significance: standard error. Tests of significance for attributes-test for
number of success test for proportion of success and test for difference between proportions. Tests
of significance of large samples: testing the significance of mean, testing the difference between
means of two samples, testing the difference between two standard deviations. Students„t‟
distribution: Testing the significance of the mean of a random sample, testing the difference
between means of two samples and testing the significance of observed correlation coefficient.
(Problems Only). Steps in hypothesis testing.                                               (20 Hours)
                                                    88            17th Academic Council Meeting 31.01.2023
                                                                      Curriculum for M.Sc. BIOCHEMISTRY
UNIT III
Theoretical distributions-Binomial distribution –Types-Properties-Binomial distribution-Fitting
of Binomial distribution, Poisson distribution-Fitting of Poisson distribution, Normal
distribution Methods of constructing normal distribution-The Ordinate method, The Area method
(Problems Only)                                                                         (15 Hours)
UNIT IV
Types of Correlation - positive & negative: Simple, partial & negative: Linear and non-linear
correlation (Definition Only).Scatter diagram method, Graphic Method, Karl Pearson‟s
coefficient of correlation, rank correlation coefficient. Regression equation and regression
lines (problems only). Difference between Correlation and Regression.                   (20 Hours)
UNIT V
Analysis of frequencies and analysis of variance: Chi-square-Test for goodness of fit, Test for
independence of attributes; yate‟s correction, analysis of variance (ANOVA)- Single factor
ANOVA and Two-factor ANOVA with unequal and equal replication. (Problems Only).
                                                                                       (20 Hours)
TEXT BOOKS
1. Palanichamy.S and Manoharan.M (2008). Statistical Methods for Biologists(Biostatistics),
   Palani: Palani Paramount Publications, 3rd Edition.
2. Gupta.S.P. (2008). Statistical Methods, New Delhi: Sultan Chand & Sons, 36th Edition.
REFERENCE BOOK
1.Kothari, R.C. (1993). Research Methodology, New Delhi: Wiley Eastern Limited, 5th Edition.
2. Babak Shahbaba. (2012) Biostatistics with R -An Introduction to Statistics Through Biological
   Data. ISBN: 978-1-4614-1302-8.
  Dr.P.Annapoorani
                                                                  Dr.R.Salini
Head of the Department                                         Course Desi
                                        M.SC. BIOCHEMISTRY
                                          (2020 -2021 onwards)
           Semester III                                                  Hours/Week: 6
                                     EUKARYOTIC GENE
           Core Course-9                                                 Credits: 5
                                         EXPRESSION
           Course Code                                                     Internal      External
           20PBCC33                                                          40              60
COURSE OUTCOMES
On completion of the course, the students will be able to
   CO1: outline the cell division process, stem cell types, genome organization and molecular
         mechanisms in gene expression and regulation in eukaryotes. [K2]
   CO2: apply the properties of stem cells, gene function and their modulation in various aspects of
         normal and abnormal signaling pathways. [K3]
   CO3: make use of the perceived knowledge about gene and protein expression on various signaling
         mechanism and its deregulation in the oncogenesis process. [K3]
   CO4 : analyze the properties of stem cells , normal and abnormal gene regulation and protein
          expression during cell cycle ,cell signaling, and oncogenesis mechanism. [K4]
   CO5 : assess the information related to eukaryotic gene expression , stem cells , cell division, cell
          signaling and cancer. [K5]
UNIT I
      Genome Organization- Eukaryotic genome organization, Repeat sequences- Cot curve analysis,
structural DNA sequences- Complexity, frequency of repetitions. Nucleosomes, chromatin - active
chromatin, inactive chromatin, heterochromatin and euchromatin.                                       (20 Hours)
UNIT II
Replication & Transcription- Eukaryotic gene replication, Transcription of RNAs, mRNA
structure, processing of mRNA- capping, splicing and editing. Promoters, Cis-regulatory
elements, Enhancers, trans – acting proteins. Difference between prokaryotic and eukaryotic
transcription. DNA repair. Difference between prokaryotic and eukaryotic replication.
                                                                                                      (20 Hours)
 UNIT III
 Epigenetics- Chromatin remodeling, Role of histones and its modifications, non-histone proteins.
 Introduction to Silencing mechanism- DNA methylation.         Role of epigenetic mechanism in
 normal development and oncogenesis. Protein and gene microarray technology -Principles and
 applications.
                                                                                            (20 Hours)
UNIT IV
 Translation-Genetic code, eukaryotic ribosomes, eukaryotic translational process, polysomes,
post translational modification. Secretory proteins-signal hypothesis - Difference between
prokaryotic and eukaryotic translation.
                                                                                          (15 Hours)
UNIT V
 Signaling pathways, Cancer and Cell cycle- Signaling Pathways- Stat pathway, MAPK/ERK
 Pathway, JNK pathway, Wnt signaling pathway, Notch signaling pathway. Cell cycle,
 Oncogenes. Introduction to Stem cells- Properties , Embryonic and adult stem cells.CRISPR-Cas9
 technology.
                                                                                            (15 Hours)
TEXT BOOKS
 1. David Freifelder (2008). Molecular Biology, New Delhi: Narosa Publications, 2nd Edition.
 2. James D.Watson et al., (2004). Molecular Biology of Gene, Pearson Education (Singapore)
      Indian Branch, New Delhi. 2nd Edition.
 3. Becker, Kleinsmith, Harden (2000). The World of the Cell, United States: Addison Wesley
      Longman Inc. 4th Edition.
 REFERENCE BOOKS
 1. Stephen.L.Wolfe (1993). Molecular and Cellular Biology, USA: Cengage
                   st
    learning Inc. 1 Edition.
 2.
      Benjamin Lewin (2004). Genes VIII, New Jersey: Pearson Prentice Hall,
      8th Edition.
5.Lodish et.al.(2004). Molecular Cell Biology, United States: WH Freeman & Company,
  5th Edition.
6.De Robertis and De Robertis (2001). Cell and Molecular Biology,Wolters Kluwer India Pvt
  Ltd. 8th Edition.
7.Gerald Karp (2004). Cell and Molecular Biology, New York: John Wiley & Sons. 4thedition
                                                               Dr.P.Annapoorani
   Dr.P.Annapoorani                                      Mrs.R.Gloria Jemmi Christobel
Head of the Department                                          Course Designers
                                        M.Sc. BIOCHEMISTRY
                                          (2023 -2024 onwards)
          Semester III                                                     Hours/Week: 6
                                     EUKARYOTIC GENE
          Core Course-9                                                    Credits: 5
                                         EXPRESSION
          Course Code                                                       Internal        External
          20PBCC33N                                                            40               60
COURSE OUTCOMES
On completion of the course, the students will be able to
CO1: demonstrate the cell division process, stem cell types, genome organization and
     molecular mechanisms in gene expression and regulation in eukaryotes. [K2]
CO2: apply the properties of stem cells, gene function and their modulation in various
     aspects of normal and abnormal signaling pathways. [K3]
CO3: apply the perceived knowledge about gene and protein expression on various
     signaling mechanism and its deregulation in oncogenesis process. [K3]
CO4 : analyse and discuss research articles in the area of normal and
     abnormal gene regulation and protein expression, stem cells & cell
     cycle process. [K4]
CO5 : evaluate the information relating to eukaryotic gene expression, cell division ,
       stem cells, cell signaling and cancer. [K5]
UNIT I
      Genome Organization- Eukaryotic Genome Organization, Repeat Sequences- Cot
Curve Analysis, C-Value Paradox, Structural DNA Sequences- Complexity, Frequency Of
Repetitions. Nucleosomes, Chromatin - Active Chromatin, Inactive Chromatin, Heterochromatin
and Euchromatin.                                                                            (20 Hours)
UNIT II
Replication & Transcription- Eukaryotic Gene Replication, Transcription of RNAs.
Structure of mRNA & tRNA .RNA Processing-Capping, Polyadenylation, Splicing- Types of
Splicing, Snurps and RNA editing. Promoters, Enhancers, Cis-regulatory elements, Trans - acting
proteins. Difference between Prokaryotic and Eukaryotic Replication and Transcription. DNA
repair.                                                                                  (20 Hours)
UNIT III
Epigenetics- Chromatin remodeling, Role of Histones and its modifications, Non-histone
proteins. Introduction to Silencing mechanism- DNA methylation.                 Role of Epigenetic
mechanism in normal development and Oncogenesis. Protein and Gene Microarray Technology -
Principles and Applications.                                                             (20 Hours)
UNIT IV
Translation-Genetic    Code,    Eukaryotic   Ribosomes,     Eukaryotic     Translational       process,
Polysomes, Post Translational Modification. Secretory Proteins-Signal hypothesis . Difference
between Prokaryotic and Eukaryotic translation.                                          (15 Hours)
UNIT V
Signaling pathways, Cancer and Cell cycle- Signaling Pathways- Wnt signaling pathway,
Notch signaling pathway, ROS pathway, Protein Kinase B, NF-kB and AMP-Activated Protein
Kinase. Cell cycle- Phases and Check points. Oncogenesis Mechanism. Introduction to Stem
cells- Properties, Embryonic and adult stem cells. CRISPR-Cas9 technology.
                                                                                         (15 Hours)
TEXT BOOKS
1. David Freifelder (2008). Molecular Biology, New Delhi: Narosa Publications, 2nd
   Edition.
2. James D.Watson et al., (2004). Molecular Biology of Gene, Pearson Education
   (Singapore) Indian Branch, New Delhi. 2nd Edition.
3. Becker, Kleinsmith, Harden (2000). The World of the Cell, United States: Addison
   Wesley Longman Inc. 4th Edition.
REFERENCE BOOKS
1. Stephen.L.Wolfe (1993). Molecular and Cellular Biology, USA: Cengage
              st
    learning Inc.Edition.
                  1
2. Benjamin Lewin (2004). Genes VIII, New Jersey: Pearson Prentice Hall, 8th
   Edition.
3. Darnell, Lodish, Baltimore (1986). Molecular Cell Biology, United States: WH
  Freeman & Company, 1st Edition.
4.Brown. T.A. (2006). Genomes, Garland Science Inc. United States, 3rd
  Edition.
5.Lodish et.al.(2004). Molecular Cell Biology, United States: WH Freeman &
  Company, 5th Edition.
6.De Robertis and De Robertis (2001). Cell and Molecular Biology,Wolters Kluwer
  India Pvt. Ltd. 8th Edition.
7.Gerald Karp (2004). Cell and Molecular Biology, New York: John Wiley & Sons. 4thedition
                                                                Dr.P.Annapoorani
     Dr.P.Annapoorani                                               Dr.R.Gloria Jemmi Christobel
Head of the Department                                              Course Designers
                                    M.SC. BIOCHEMISTRY
                                         (2020 -2021 onwards)
           Semester III                                                      Hours/Week: 6
           Core Practical-4           IMMUNOLOGY AND                         Credits: 3
                                   ADVANCED BIOCHEMISTRY
           Course Code                      LAB                              Internal       External
           20PBCC31P                                                            40            60
  COURSE OUTCOMES
 On completion of the course, the students will be able to
      CO1: apply the principles of western blot, immunochemical techniques,
               cloning and restriction digestion. [K3]
        CO2: sketch the schema chart for the techniques involved in immunology and
               advanced biochemistry. [K3]
        CO3: observe and interpret the results of molecular biology and immunological
               techniques and complete the record work. [K3]
        CO4: comment and compare the antigen-antibody interaction methods and gene
               cloning technique. [K4]
        CO5: Assess gene cloning with and without restriction endonucleases, ligase,
               plasmid and judge the antigen-antibody interaction. [K5]
EXPERIMENTS
1.    Aggultination and precipitiation
2.    Immunoelectrophoresis
3.    Immunodiffusion
4.    ELISA [demonstration]
5.    Western Blot analysis – commercial kit
6.    Isolation of Plasmid DNA from E.coli Bacteria.
7.    Single Restriction digestion of λ DNA and ligation
8.    Double restriction digestion of λ DNA.
9.    Cloning of DNA fragment by blue, white selection method
10.   Determination of antibody titre
REFERENCE BOOKS
  1. Adrian.J.Harwood (1996). Basic DNA and RNA Protocols, NewYork, USA: Humana Press,
       1st Edition.
  2. Stanley R.Maloy (1990). Experimental Techniques in Bacterial Genetics, Boston: Jones and
       Bartlett Publisher, 1st Edition.
  3. Richard.L.Myers (1994). Immunology: A Laboratory Manual, United States: McGraw-Hill
       Science, 2nd Edition.
  4.    Frederick M. Ausubel, Roger Brent, Robert E. Kingston, David D. Moore, J.G.
       Seidman, John A. Smith & Kevin Struhl (2003). Current Protocols in Molecular
       Biology, United
       States: John Wiley & Sons Inc., 1st Edition.
Dr.P.Annapoorani                                                                        Dr.R.Salini
                                                                           Mrs.K.Sudha Rameshwari
Head of the Department                                                            Course Designer
COURSE OUTCOMES
On completion of the course, the students will be able to
CO1       :    explian various concepts related to numbers, quantitative comparison,
               monetary problems and logical reasoning. [K2]
CO2       :    apply the analytical skills and logical reasoning in solving problems related to
               competitive examinations. [K3]
CO3       :    solve typical problems, geometrical type problems, daily life problems in a
               effective manner. [K3]
CO4       :    analyze the techniques used in solving complicated real life problems. [K4]
CO5       :    interpret the data using logical reasoning and observational ability. [K5]
UNIT I
Typical Problems- Series formation
Numerical Ability- Numbers
UNIT II
Geometrical Type Problems
              Mensuration and quantitative
                     comparison
UNIT III
Typical Problems- Moving locomotive problem
Numerical Ability- Distance and Directions
UNIT V
Logical Reasoning
      Data interpretation – Observational ability – Logical puzzles
REFERENCE BOOKS
       1. Pradip Kumar Ray, General Aptitude Theory ,CSIR NET, Previous question and answer
         with explanation and hint to solve, Notion Press, India
       2. Ram Mohan Pandey (2021)., CSIR-UGC-NET General Aptitude Theory and
          Practice, Pathfinder Publication, a unit of Pathfinder Academy Pvt. Ltd., India.
                                       4                 142-162
                       1
                                       5                 163-192
                       2              12                 272-294
                                       3                 132-141
                       3
                                       7                 206-220
                                       8                 221-230
                       4               9                 231-239
                                      10                 240-249
                                      13                 295-309
                                      14                 310-323
                       5
                                      15                 324-332
         Course code     PO1   PO2   PO3       PO4   PO5       PO6        PO7         PO8
         20PGOL32
              CO1        H     H     M         M      -         M           -            -
               CO2       H     H     H         H      -         M           -            -
               CO3       H     H     H         H      -         H           -            -
               CO4       H     M     H         H      -         H           -            -
               CO5       H     M     H         H      -         H           -            -
 Dr.A.Uma Devi
                                                                       Dr.A.Uma Devi
                                                                        Tmty.T.Anitha
Head of the Department                                                 Course Designer
                                     M.SC. BIOCHEMISTRY
                                        (2020-2021onwards)
           Semester IV                                                   Hours/Week: 6
           Core Course-10               ENVIRONMENTAL                    Credits: 5
           Course Code                   BIOCHEMISTRY                    Internal       External
           20PBCC41                                                          40            60
 COURSE OUTCOMES
 On completion of the course, the students will be able to
       CO1: understand the key concepts and complex relationship between biotic and
             abiotic components of ecosystem. [K2]
       CO2: apply the ecological knowledge and its consequences in basis of regional and
             global environmental issues.[K3]
       CO3: identify the current environmental problems (Air, water and soil pollution),
             chemical pollutants and its impacts on Biosphere. [K3]
       CO4: analyze the strategies, technologies and methods for assessment of
             environmental system and discuss some mitigation strategies like
             Biodegradation and Bioremediation. [K4]
       CO5: evaluate basic chemical concepts to analyze the Bio chemical processes involved in
             different environmental problems. [K5]
UNIT I
      Introduction to Ecosystem-Fundamentals of Ecology, Ecosystems: concept of ecosystems,
energy flow in ecosystems, Food-chains. Interactions between environment and biota - concept of
habitat and ecological niches, Organisms and stress factors - temperature: cold exposure,
acclimatization, heat exposure and adaptation to heat.                                      (15 Hours)
         Air, Land and Noise pollution- Types of air pollutants, Sources, effects and control.
Land pollutants & their biochemical effects. Solid Waste- Characteristics of municipal Waste,
disposal of hazardous waste. Noise pollution and their biological effects. Fireworks and match
industry: Pollutants and its abatement.                                                       (20 Hours)
UNIT III
Water Pollution & Industrial pollution: Water pollution - Sources, effect and control.
Marine pollution – pollutants, sources, effects, oil pollution -control. Thermal pollution sources,
effects & prevention. Removal of waste water from sugar industry, paper industry, pesticides &
tannery industry. Bioplastics. Industrial & Laboratory hazards of plastics – biodegradation.
Bioremediation and Bioleaching.                                                              (20 Hours)
UNIT IV
Pesticides and Herbicides: Systemic & Non systemic pesticides, structure, mode of
action   and applications (2, 4 D, DDT and Malathion only).         Behaviour in soil, problems of
pollution by pesticides. Environmental risks of direct & Indirect food additives, food colors &
other contaminants. Occurrence of pesticides    in     foods   .Removal     of    waste     water     from
pesticide industry. Biodegradation of pesticides.                                         (20 Hours)
UNIT V
Environmental Toxicology: Environmental carcinogens – chemical carcinogens, classification and
mode of action (Azo dye-Tartrazine, Nitrosamine), Environmental teratogens, teratogenic
effects, mechanism of action of teratogens. Environmental mutagens and their effects. Effects
of radiation – sources of radiation, radioactive waste & management.                         (15 Hours)
TEXT BOOK
1.Sharma, P.D. (1994). Environmental Biology, Meerut, India: Rastogi & Company, 1st
  Edition.
  Course Code                PO1         PO2       PO3         PO4     PO5       PO6        PO7        PO8
  20PBCC41            PSO          PSO   PSO   PSO       PSO   PSO     PSO       PSO        PSO        PSO
                       1a           1b    2     3a        3b    4       5         6          7          8
         CO1
                         M         H      M    M          -    M        M          -          -          M
CO2 H H M H H M M - M -
CO3 H H H H M H M - M M
CO4 H H H H H M H - - -
CO5 H H M H M H H - M M
                                            M.Sc. BIOCHEMISTRY
                                               (2022-2023onwards)
           Semester IV                                                    Hours/Week: 6
                                        ENVIRONMENTAL
           Core Course-10                BIOCHEMISTRY                     Credits: 5
       CO1: understand the key concepts and complex relationship between biotic and
             abiotic components of ecosystem [K2]
       CO2: apply the ecological knowledge and its consequences in basis of
             regional and global environmental issues. [K3]
       CO3: analyze the current environmental problems (Air, water and soil
             pollution), chemical pollutants and its impacts on Biosphere.[K3]
       CO4: evaluate the strategies, technologies and methods for assessment of
             environmental system and            discuss some mitigation strategies like
             Biodegradation and Bioremediation.[K4]
       CO5: create basic chemical concepts to analyze the Bio chemical processes involved in
             different environmental problems.[K5]
UNIT I
      Introduction to Ecosystem-Fundamentals of Ecology, Ecosystems: concept of ecosystems,
energy flow in ecosystems, Food-chains. Interactions between environment and biota - concept
of habitat and ecological niches, Organisms and stress factors - temperature: cold exposure,
acclimatization, heat exposure and adaptation to heat.                                      (15 Hours)
UNIT II
Air, Land and Noise pollution- Types of air pollutants, Sources, effects and control.                   Land
pollutants &their biochemical effects. Solid Waste- Characteristics of municipal Waste,
Solid waste management, disposal of hazardous waste. Noise pollution and their biological
effects. Fireworks and match industry: Pollutants and its abatement. Carbon sequestration.
                                                                                                (20 Hours)
UNIT III
Water Pollution & Industrial pollution: Water pollution - Sources, effect and control.
Marine pollution – pollutants, sources, effects, oil pollution -control. Thermal pollution
sources, effects & prevention. Treatment of waste water from sugar industry, paper industry,
pesticides & tannery industry (Physical, Chemical and Biological methods). Effects of radiation
– sources of radiation, radioactive waste & management. Industrial & Laboratory hazards of
plastics, Biodegradation, Bioremediation and Bioleaching. Bioplastics.
                                                                                                   (20 Hours)
UNIT IV
Pesticides and Herbicides: Systemic & Non systemic pesticides, structure, mode of action
and applications (2, 4 D, DDT and Malathion only). Behaviour in soil, problems of pollution by
pesticides. Environmental risks of direct & Indirect food additives, food colors & other
contaminants. Occurrence of pesticides in foods. Treatment of waste water from pesticide
industry. Biodegradation of pesticides.
                                                                                            (20 Hours)
TEXT BOOK
1.Sharma, P.D. (1994). Environmental Biology, Meerut, India: Rastogi & Company, 1st Edition
 REFERENCE BOOKS
 1. Sharma, B.K. (1994). Environmental Chemistry, Meerut, India: Goel Publishing House,
    1stEdition.
 2. Jogdand, S.N. (2008). Environmental Biotechnology, Bombay: Himalaya Publishing House,
        th
    4 Edition.
 3. Sharma, B.K. (2001). Water Pollution, New Delhi: Goel Publishing, 3rd Edition.
 4. Paliwal, K.V. (1994). Pesticidal Pollution of Environment and Control, Delhi, India:M.D.
    Publications Pvt. Ltd., 1st Edition.
 5. Khopkar, S.M. (1994). Environmental Pollution Analysis, London: Heyden & Son Ltd,
    1st Edition. Trivedi, R.N. (1997). A Text Book of Environmental Sciences, New Delhi: Anmol
   Publications, 1st Edition.
6. Michael L. Cain, William D. Bowman, & Sally D. Hacker, (2014). Ecology,
   New Delhi: Sinauer Associates Inc, 3rd Edition.
   Course Code                PO1          PO2       PO3       PO4      PO5         PO6         PO7           PO8
  (20PBCC41N)
                         1a         1b      2    3a     3b      4         5           6           7             8
CO 1 M H M H H H M L L M
CO 2 H M M H H M H M M H
CO 3 H M H H M H M M M M
        CO 4             H          M      H     H      M      M          M           H           H             H
        CO 5             M          M      M     M      M      M          M           M           M             M
                                          M.SC. BIOCHEMISTRY
                                            (2020 -2021 onwards)
          Semester IV                                                              Hours/Week: 6
          Core Course-11              CLINICAL BIOCHEMISTRY                        Credits: 5
          Course Code                                                              Internal      External
          20PBCC42                                                                    40             60
COURSE OUTCOMES
On completion of the course, the students will be able to
       CO1: discuss the diagnostic importance of gastric, renal function, immunological,
             prenatal test and metabolic functions. [K2]
       CO2: perform clinical investigation on blood, urine and other body fluids for diagnostic purpose
                [K3]
       CO3. determine the abnormalities of digestive, reproductive, kidney system and inborn
             errors of metabolism. [K3]
       CO4: interpret the laboratory results with respect to the biological reference ranges and
             infer the results critically in light of the clinical picture. [K4]
       CO5: assess the role of clinical biochemistry monitoring the biochemical basis of diseases and
             novel strategies to prevent the diseases [K5]
UNIT I
Disorders of carbohydrate and lipid metabolism: Diabetes mellitus, Hypoglycemia, Hyper
lipoproteinemia and hypolipoproteinemia.
Disorders of digestive system: Typhoid, Cholera, Crohn disease, Appendicitis, Hernia –causes,
symptoms, diagnosis, treatment and prevention.
Gastric function tests: collection of gastric contents, examination of gastric residium, Fractional Test
Meal (FTM), stimulation tests, tubeless gastric analysis. Peptic Ulcer -definition, types, causes, diagnosis,
prevention, treatment. Difference between stomach cancer and stomach ulcer.                           (20 Hours)
UNIT III
Kidney and urine- Collection of urine, Routine qualitative analysis of normal and abnormal constituents
of urine and its diagnostic importance – reducing sugar, blood, bilirubin, ketone bodies, bile salts,
porphyrin, uric acid and protein. Acute and chronic glomerulonephritis, acute and chronic renal failure.
Renal function test, renal calculi.                                                                   (20 Hours)
UNIT IV
Hematology – E.S.R, Screening test for sickle cell anemia, prothrombin time, Bleeding time.
Immunological test:C- reactive protein test, rheumatoid arthritis test, immunologic test for pregnancy.
Body fluid: Cerebrospinal fluid – site of withdrawal, blood brain barrier, collection of sample, function of
CSF, composition of normal CSF and clinical investigation of CSF in various CNS diseases.
                                                                                             (15 Hours)
UNIT V
Disorders of reproductive system: Amnorrhea, cervical cancer, Poly cystic ovarian disease (PCOD),
Endometriosis, Menopause, Breast cancer, Ectopic pregnancy- causes, symptoms, diagnosis, treatment
and prevention.
Prenatal diagnosis of diseases- Amniotic fluid and fetal blood examination. Acetylcholinesterase and
other tests on amniotic fluid. Chromosomal abnormalities by cytogenetics. Newborn screening: β-
Thalassemia, PKU, cystic fibrosis and sweat tests.                                                   (20 Hours)
TEXT BOOKS
1. Chatterjea, M. N. & Rana Shinde (2011). Text book of Medical Biochemistry, New Delhi:
   Jaypee Brothers Medical Publishers (P) Ltd, 8th Edition.
2. Deb, A.C. (2001). Fundamentals of Biochemistry, Kolkata: New Central Book Agency,
  7th Edition.
3. Kanai L Mukherjee &Swarajit Ghosh (2010). Medical Laboratory Technology,New Delhi:
   Vol I, Tata Mcgrawhill, 2nd Edition.
    CO1            H          H    H     M          M     M           M          M          M             -
    CO2            H          H    M     M          M     M           M          M          M             -
    CO3            H          H    H     M            H   M            -         M          M         M
    CO4            H          H    M     M            H   M           M          M          M         H
    CO5            H          H    H     M            H   M           H          M          M         H
                                                                                 Dr.R.Mallika
Dr.P.Annapoorani                                                     Mrs.K. Sudha Rameshwari
Head of the Department                                                       Course Designers
                                          M.Sc. BIOCHEMISTRY
                                             (2022-2023onwards)
          Semester IV                                                           Hours/Week: 6
                                      CLINICAL BIOCHEMISTRY
          Core Course-11                                                        Credits: 5
UNIT I
Disorders of carbohydrate and lipid metabolism: Diabetes mellitus, Hypoglycemia, Hyper
lipoproteinemia and hypolipoproteinemia .
Disorders of inborn error of metabolism: Metabolic disorders of Carbhohydrate - galctosemia,
glucogen storage disease (GSD). Metabolic disorders of aminoacids- Phenylketonuria, Alkaptonuria,
Maple syrup urine disease. Metabolic disorders of lipids: Tay-sach‟s disease, Fabry‟s disease, Niemann-
Pick disease, Gaucher‟s disease, Refsum‟s disease, Krabbe‟s disease.                                 (20 Hours)
UNIT II
Disorders of digestive system: Typhoid, Cholera, Crohn disease, Appendicitis, Hernia –causes,
symptoms, diagnosis, treatment and prevention. Gastric function tests: collection of gastric contents,
examination of gastric residium, Fractional Test Meal (FTM), stimulation tests, tubeless gastric analysis.
Peptic    Ulcer-definition, types, causes, diagnosis, prevention, treatment. Difference between stomach
cancer and stomach ulcer.                                                                        (20 Hours)
UNIT III
Kidney and urine- Collection of urine, Routine qualitative analysis of normal and abnormal constituents
of urine and its diagnostic importance – reducing sugar, blood, bilirubin, ketone bodies, bile salts,
porphyrin, uric acid and protein. Acute and chronic glomerulonephritis, acute and chronic renal failure.
Renal function test, renal calculi.                                                                (15 Hours)
UNIT IV
Hematology – E.S.R, Screening test for sickle cell anemia, prothrombin time, Bleeding time.
Immunological test: C- reactive protein test, rheumatoid arthritis test, immunologic test for pregnancy.
Body fluid: pericardial fluid, synovial fluid, pleural fluid, Cerebrospinal fluid –Collection, composition,
clinical significances.                                                                         (15 Hours)
UNIT V
Disorders of reproductive system: Amnorrhea, cervical cancer, Poly cystic ovarian disease (PCOD),
Endometriosis, Menopause, Breast cancer, Ectopic pregnancy- causes, symptoms, diagnosis, treatment
and prevention.
Prenatal diagnosis of diseases- Amniotic fluid and fetal blood examination. Acetylcholinesterase and
other tests on amniotic fluid. Chromosomal abnormalities by cytogenetics. Newborn screening: β-
Thalassemia, PKU, cystic fibrosis and sweat tests.                                              (20 Hours)
TEXT BOOKS
1. Chatterjea, M. N. & Rana Shinde (2011). Text book of Medical Biochemistry, New Delhi:
   Jaypee Brothers Medical Publishers (P) Ltd, 8th Edition.
2. Deb, A.C. (2001). Fundamentals of Biochemistry, Kolkata: New Central Book Agency,
  7th Edition.
3. Kanai L Mukherjee &Swarajit Ghosh (2010). Medical Laboratory Technology,New Delhi:
   Vol I, Tata Mcgrawhill, 2nd Edition.
REFERENCE BOOKS
1. Harrison (1994). Principles of Internal Medicine,McGraw-Hill Companies, United States:
  13th Edition.
2. Sonntag & Oswald ( 2002). Tietz Fundamentals of Clinical Chemistry, WB Saunders
   Philadelphia. 5th Edition.
   CO1            H         H    H       M          M     M         M          M          M             -
   CO2            H         H    M       M          M     M         M          M          M             -
   CO3            H         H    H       M           H    M          -         M          M         M
   CO4            H         H    M       M           H    M         M          M          M         H
   CO5            H         H    H       M           H    M         H          M          M         H
                                                                                Dr.R.Mallika
Dr.P.Annapoorani                                                          Mrs.K. Sudha Rameshwari
Head of the Department                                                       Course Designer
                                        M.SC. BIOCHEMISTRY
                                          (2020 -2021 onwards)
           Semester IV                                                    Hours/Week: 6
  UNIT II
  Gametogenesis, Fertilization, Cleavage & Gastrulation: Spermatogenesis and oogenesis
  process; types of sperms and eggs. Fertilization- approach of sperm to the egg- Activation of egg –
  Cortical reaction. Cleavage pattern in mammals. Blastulation and Gastrulation in mammals. Neural
  tube formation and cell migration in mammals.
                                                                                                (20 Hours)
  UNIT III
UNIT IV
  Human Genetics: Pedigree analysis, Linkage analysis, Chromosome mapping. Human disorders
  following Mendelian patterns of inheritance. Genome imprinting. Gene amplification. STRs and
  VNTRs, Paternity test.                                                                     (20 Hours)
UNIT V
  Inherited disorders: Polyploidy, aneuploidy , Allosomal (Kline felter‟s syndrome and Turner
  syndrome) Autosomal (Down syndrome). Genetic counseling. Human genome project.
(15 Hours)
  TEXT BOOKS
1. Arumugam.N. (2003). A Text Book of Embryology, Nagercoil, TamilNadu: Saras
   Publication, 1st Edition.
2. Varma P.S. &Agarwal.V.K (2001). Genetics, New Delhi: S.chand Publications,5th Edition.
3. Subramanian.M.A. (2012). Developmental Biology, Chennai: MJP Publishers, Ist Edition.
1st Edition.
    Course Code           PO1        PO2             PO3        PO4        PO5       PO6        PO7       PO8
    20PBCC43
                      PSO    PSO     PSO        PSO     PSO     PSO        PSO       PSO        PSO       PSO
                       1a     1b      2          3a      3b      4          5         6          7         8
        CO1           M         H     M          L          L    -           -          -         -          -
CO2 H H H H H M L - - H
CO3 H H H H H H H H - H
CO4 H H H H H H H H L H
CO5 H H H H H H H H L H
                                        M.Sc. BIOCHEMISTRY
                                          (2022 -2023 onwards)
     Semester IV                                                   Hours/Week: 6
                            DEVELOPMENTAL BIOLOGY
     Core Course-12              AND GENETICS                      Credits: 5
COURSE OUTCOMES
On completion of the course, the students will be able to
      6. Bhatnagar, S.M. (1995). Essentials of Human Genetics, Hyderabad: Sangam Books Pvt. Ltd.
        1st Edition.
      7. Robert H.Tamarin (2001). Principles of Genetics, Newyork: MC Graw Hill Companies,
        7th Edition.
        CO1            M          M    H     H           H     H            M           H        M         M
       CO 2            H          H    M     H           H     H            H           H        M         M
       CO 3            M          M    M     M           H     H            H           H        M         H
       CO 4            H          H    H     H           H     H            H           H         H        H
       CO 5            H     H         M     H           H     H            H           H         H        H
                                          M.Sc. BIOCHEMISTRY
                                       (2020-2021 onwards)
       Semester IV                                                    Hours/Week: 12
       Project                                                        Credits: 8
                                    PROJECT VIVA-VOCE
       Course Code                                                     Internal      External
       20PBCC41PR                                                          40           60
  COURSE OUTCOMES
 On completion of the course, the students will be able to
CO1 : Make use of literature review through existing digital platform to formulate the
          project work. [K3]
CO2 : Discover the inter disciplinary knowledge to carry out project the
          work for the welfare of the society. [K3]
CO3 : Analyze the results of the project work that is being executed and to correlate
          them for improving the society. [K4]
CO4 : Develop an insight into the experiments carried out during the project work and
          conclude the findings with the existing results. [K5]
CO5 : assess the original findings and interpret the data.[K5]
● Project will be done by the final year students in the fourth semester under the guidance of
   respective guides.
● For projects internal marks will be awarded by the respective guide and external marks will be
   awarded in the external examinations held at the end of the semester.
● Only individual projects should be allotted.
● The report of the project must be in the prescribed form. It should be typed neatly          in MS word
   (12 pt, Times New Roman, 1.5 spacing)
● The format of the project report should have the following components.
CO1 H H H H H H H H M H
CO2 H H H H H H H M M H
CO3 H H H H H H H M M H
CO4 H H H H H H H H M H
CO5 H H H H H H H H M H
Dr.P.Annapoorani                                                                          Dr.R.Mallika
Head of the Department                                                                 Course Designer
                                             M.Sc. BIOCHEMISTRY
                                                (2022 -2023 onwards)
      Semester IV                                                   Hours/Week: 12
 COURSE OUTCOMES
 On completion of the course, the students will be able to
CO1 : apply the knowledge of research problems and hypothesis to carry out the experiments for
       Project with Research Ethics. [K3]
CO2 : relate different research papers with their own research problem and design protocols for
       their works. [K3]
CO3 : analyze the results of the project work that is being executed and to correlate them for
       improving the society. [K4]
CO4 : Develop an insight into the experiments carried out during the project work and conclude
       the findings with the existing results. [K5]
CO5 : Summarise the original findings of the project work for paper publication. [K5]
❖ Certificate by supervisor
❖ Declaration by candidate
❖ Acknowledgement
❖ Chapters
         CO1              H          H    H        H           H     H          H          H        M        H
       CO 2               H          H    H        H           H     H          H          M        M        H
       CO 3               H          H    H        H           H     H          H          M        M        H
       CO 4               H          H    H        H           H     H          H          H        M        H
       CO 5               H          H    H        H           H     H          H          H        M        H
Dr.P.Annapoorani                                                                 Dr.P.Annapoorani
Head of the Department                                                            Course Desiger
                                                        123           17th Academic Council Meeting 31.01.2023
                                                                        Curriculum for M.Sc. BIOCHEMISTRY
                                    M.Sc. BIOCHEMISTRY
                                     (2022 -2023 onwards)
                                  EXTRA CREDIT COURSE
Semester II Credits: 2
EXTRA CREDIT
                                   BIOSAFETY, LABORATORY
COURSE-1
                                          SAFETY AND IPR
Course Code                                                                          Internal
22PBCO21                                                                                 100
  COURSE OUTCOMES
  On completion of the course, the students will be able to
  CO1: understand the biosafety, bioethics and Intellectual Property Rights concepts
  CO2: Know-how of issues and bioethics related to molecular technologies and GMOs
  CO3: Apply the concept of patenting and process of filing for a patent
  CO4: Analyze the use of genetically modified organisms and its effect on human health
  CO5: Evaluate the importance of biosafety practices and guidelines in research
  Unit-I
  Biosafety: Historical background; introduction to biological safety cabinets; primary containment
  for biohazards; biosafety levels; recommended biosafety levels for infectious agents and infected
  animals; biosafety guidelines - government of India, roles of IBSC, RCGM, GEAC etc. for GMO
  applications in food and agriculture; environmental release of GMOs; risk assessment;
  risk management and communication; national regulations and international agreements.
  Unit-II
  Bioethics: Introduction to bioethics, human genome project and its ethical issues, genetic
  manipulations and their ethical issues, ethical issues in GMOs, foods and crops in developed and
  developing countries, environmental release of GMOs, ethical issues involved in stem cell research
  and use, use of animals in research experiments, animal cloning, human cloning and their ethical
  aspects, testing of drugs on human volunteers.
                                                   124           17th Academic Council Meeting 31.01.2023
                                                                       Curriculum for M.Sc. BIOCHEMISTRY
Unit-III
Intellectual Property Rights (IPR): Introduction to patents, types of patents, process involved in
patenting in India, trademarks, copyright, industrial design, trade secrets, traditional knowledge,
geographical indications, history of national and international treaties and conventions on patents,
WTO, GATT, WIPO, Budapest Treaty, Patent Cooperation Treaty (PCT) and TRIPS.
Unit-IV
Patent filing and infringement: Patent application- forms and guidelines, fee structure, time
frames; types of patent applications: provisional and complete specifications; PCT and convention
patent applications, International patenting-requirement, financial assistance for patenting-
introduction to existing schemes; Publication of patents-gazette of India, status in Europe and US.
Unit-V
Patent databases: Searching international databases; analysis and report formation. Indian
Patent Act 1970; recent amendments; filing of a patent application; precautions before patenting
disclosure/non- disclosure; procedure for filing a PCT application.
Research Patenting: Patenting by researchers and scientists-University/organizational rules in
India and abroad. Detailed information on patenting biological products, Case studies on patents
(basmati rice, turmeric, neem etc.), and patent infringement.
Text books
1. Sateesh, M.K., Bioethics and Biosafety, IK International Publishers (2008)
2. Singh I. and Kaur, B., Patent law and Entrepreneurship, Kalyani Publishers (2006).
3. Srinivasan, K. and Awasthi, H.K., Law of Patents, Jain Book Agency (1997)
Reference Books
1. Narayan, P., Patent Law, Eastern Law House (1975).
2. Jonathan, Y.R., Anthology of Biosafety (Vols. 1-4), American Biological Safety
                                                                  Association (2005).
3. Encyclopedia of Ethical, Legal and Policy issues in Biotechnology, John Wiley & Sons
                                                                 Inc. (2005)