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Aims
This
course is designed to give the students a broad experience
in the theory and application of spectroscopic instrumentation
(Ultraviolet-Visible, Infra Red, Fluorescence, Nuclear Magnetic
Resonance and Mass Spectrometry) and chromatographic procedures
(Thin Layer Chromatography, High Performance Liquid Chromatography,
Gas Chromatography, Capillary Electrophoresis) and to relate
these procedures to the typical laboratory activities such
as the assay of drugs and biological substances derived
from manufacturing, research and testing institutions (For
example, medical labs, pharmaceutical and biotechnology
manufacturing operations). The principles underlying common
instrumental methods will be discussed in lectures, specifically
instrument development and components, operation and application,
and their advantages and limitations. The accompanying laboratory
course provides an opportunity for hands-on experience.
The labs will be investigative in nature where students
are required to use the Internet and the Chemical literature
to explore practical ways of using instruments for solving
chemical problems qualitatively and quantitatively.
Students
will become familiar with the importance of instrumental
methods in ensuring the quality and quality related to safety
and efficacy of manufactured and natural products.
Course Objectives
Upon successful completion of this course, the
student should be able to:
1.
understand and appreciate the basis of chromatographic and
spectroscopy.
2. understand the theoretical concepts behind each instrument.
3. operate, manipulate, and generate data using chromatographic
and spectroscopic methods.
4. appreciate the connectivity between math, physics, chemistry,
and biology in this course.
5. solve quantitative and qualitative chemical problems
with appropriate instrumentations.
6. appreciate the complexity of each instrument, its strength,
and its limitation.
7. explore the use of Internet as an educational source
in instrumentation
Learning
Outcomes
At
the completion of this subject, students will be able to:
(i) detail the steps associated with quantifying an analyte
in a sample;
(ii) describe the criteria used for selecting a particular
instrumental method;
(iii) outline the principles behind signal generation in
some commonly used instrumental methods;
(iv) understand the basic operation of each class of instrument
and the chemical or physical property they measure;
(v) explain the advantages and disadvantages of these methods
for a particular sample;
(vi) use the literature to investigate the development of
instrumental methods for specific sample types;
(vii) be able to suggest suitable instrumental methods for
selected analytical problems.
Lecture
Topics
LECTURE |
TOPIC |
|
INTRODUCTION |
1 |
Introduction
to Good Manufacturing Practices - Importance of instrumental
analysis in ensuring quality and quality in relation
to safety and efficacy of pharmaceuticals. |
2 |
Therapeutic
Drug Monitoring |
3 |
Medical
Laboratory Errors: Causes and Prevention |
|
SPECTROSCOPY |
4 |
Introduction
to Spectrophotometry: Principles of UV -Visible Spectroscopy |
5 |
Designing
spectrophotometric methods |
6 |
Spectrophotometry
in enzymatic assays |
7 |
Introduction
to Fluorescence Spectroscopy - Applications |
8 |
Introduction to Infrared Spectroscopy - FTIR and applications
in drug analysis. |
|
CHROMATOGRAPHY |
9 |
Nature
of chromatography – An introduction to the main
types of chromatography and their use in biochemistry |
10 |
Thin
layer chromatography: Principles, techniques and applications |
11 |
High
performance liquid chromatography: HPLC principles and
separation systems |
12 |
Gas
chromatography apparatus and methods. |
13 |
Gas
chromatography detectors |
14 |
Application
of Gas Chromatography – Mass Spectroscopy in drug
testing |
|
ELECTROPHORESIS |
15 |
Proteins
and Electrophoresis: Application in medical diagnostics |
16 |
Capillary
Electrophoresis: Principle and applications. |
|
ELECTROCHEMISTRY |
17 |
Analytical
methods of electrochemistry: Ion selective electrodes |
|
IMMUNOASSAYS |
18 |
Gene
Chip Technology: Applications |
19 |
Immunochemical
assay development |
20 |
Immunological
methods: Analytical methods using labeled antigens/antibodies |
21 |
Forensic
application of immunoassay in drug testing: Forensic |
22 |
Nanotechnology:
Miniaturization in Medicine and Biotechnology |
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