Class Head: Dr. A. Freer
Class Handbook
CONTENTS
INTRODUCTION 2
WELCOME FROM THE HEAD OF DEPARTMENT 2
ESSENTIAL INFORMATION 3
OUTLINE OF COURSE CONTENT 4
LECTURES 4
LABORATORIES 4
INTERACTIVE TEACHING UNITS WITH AN INDUSTRIAL DIMENSION 5
TUTORIALS 5
WORKSHOPS 5
STUDY ADVICE 5
COURSE ASSESSMENT 6
REQUIREMENTS FOR THE AWARD OF CREDITS 6
EXAMINATIONS.. 6
LABORATORY ASSESSMENT 6
GRADE POINT AVERAGES 8
STUDENT RESPONSIBILITIES 9
ABSENCES FROM CLASSES 9
STUDENT FEEDBACK 9
CLASS REPRESENTATIVES 9
STAFF-STUDENT LIAISON COMMITTEE 9
PLAGIARISM - UNIVERSITY CODE OF CONDUCT 9
OTHER INFORMATION 10
TEXTBOOKS 10
NOTICE BOARDS 10
MEDICAL CONDITIONS 10
CAREERS TALKS 10
INDUSTRIAL VISITS 11
STAFF CONTACT NUMBERS 12
COURSE TIMETABLE 13
CURRENT HONOURS COURSES IN CHEMISTRY 14
ENTRY REQUIREMENTS FOR B.Sc. (Hons.) AND M.Sci. COURSES 15
CHEMISTRY ...................15
CHEMISTRY WITH MEDICINAL CHEMISTRY 15
CHEMICAL PHYSICS 16
CHEMISTRY AND GEOLOGY 16
ENVIRONMENTAL CHEMISTRY 17
AGRICULTURAL, FOOD AND ENVIRONMENTAL CHEMISTRY 17
ENVIRONMENTAL BIOGEOCHEMISTRY 18
COURSE DOCUMENTATION - CHEMISTRY-2X 19
AIMS AND LEARNING OBJECTIVES FOR 2X LECTURE COURSE 20
COURSE DOCUMENTATION - CHEMISTRY-2Y 27
AIMS AND LEARNING OBJECTIVES FOR 2Y LECTURE COURSE 28
EXAMPLE OF PREVIOUS CLASS EXAMINATION 35
Introduction
Welcome back to the Department as a member of the Chemistry-2 class. Whether
you are doing just one module or both, we hope you will find these courses
stimulating and the staff friendly and approachable.
In Chemistry-1 you received a general introduction to the foundations of
the subject. During your second year you will build on this foundation
and commence a more serious study of chemistry which you will undoubtedly
find more rigorous and challenging. Nevertheless, in designing the Chemistry-2
Modules our main objective has been to produce courses which are interesting,
enjoyable and useful, not only for those who wish to proceed to Honours
in Chemistry, but also for those who intend other degree courses.
Successful completion of Chemistry-2 (2X and 2Y) will allow you to proceed
to Honours Bsc
courses in Chemistry or the new MSci degree courses. During term 2 we
will give you details of the various courses in Chemistry-3H and -4H, invite
one or two representatives from industry to explain the types of employment
which are available for Chemistry Honours graduates, and describe briefly
the wide range of research being pursued within the Department. Those of
you who proceed to Chemistry-4H will have the opportunity to undertake
a research project within one of the research groups.
We are sure you will find that, as you explore the subject in greater breadth
and depth, you will begin to realise how far-reaching chemistry becomes
and how fascinating it can be. It is our intention to make your second
year both enjoyable and successful. If you have any problems please inform
your tutor immediately, or go to Dr. Freer, your class head, or to the
appropriate lecturer so that they can help you - that is our job and that
is why we are here. But we can only successfully help those who bring their
problems to us before it is too late.
Finally, we would ask you to read the contents of this booklet and associated
documentation very carefully. All sections are important, but we should
draw your attention in particular to those sections dealing with "Course
Assessment" and "Absence". It is most important that Dr.
Freer is kept fully informed of any illness or other extenuating circumstances
which might affect you during the year, so that these can be taken into
account in assessing your overall performance at the end of the year.
Professor J. M. Winfield
Head of Department
ESSENTIAL INFORMATION
Lectures
Lectures are held daily at 11:00 a.m. in the Main Lecture Theatre
of the
Joseph Black (Chemistry) Building The lecture course commences
on the
Friday of week 0 (10/10/97) for 2Y and Monday 13/10/97 for 2X.
Please be
seated by 11:05. You will find it easier to hear the lecturer and
take notes if
you sit near the front of this large lecture theatre
Laboratory classes
Laboratories are from 2 to 5 on Mondays, Wednesdays, Thursdays
and Fridays.
Laboratory days will be assigned on the afternoon of class enrolment
and begin on
the Monday of week 1. The laboratories are in the Joseph Black
(Chemistry) Building.
Physical chemistry : Speakman lab. (A3-07) weeks 1 to 5.
Organic chemistry : Soddy lab. (A3-21) weeks 10
to 15 Group A.
weeks 16
to 20 Group B.
Inorganic chemistry: Cullen lab. (A3-25) weeks 21
to 25.
Tutorials
Tutorials, for both 2X and 2Y modules, commence in week 3 and run
on
alternate (odd) weeks throughout the session, except for week 13
which
is exam week.
Examinations (provisional dates only)
Class: 29th. January 1998
End of Course 30th. May 1998
See class notice board (ground floor, Joseph Black Building) for
confirmed dates.
Course Co-ordinator
Dr. Andy. Freer, Room A4-13 Joseph Black Building.
0141 330 5945 (direct), e-mail: andy@chem.gla.ac.uk
Outline of Course Content
Lecture Course
The level two chemistry course comprises two modules. Chemistry-2X , Molecules
Matter - the Fundamentals, and Chemistry-2Y, Chemistry of the Natural World.
The lectures, which are in the Joseph Black (Chemistry) Building at 11a.m.
each day, form the central core of each module and are compulsory. Chemistry-2X
is on Tuesdays and Thursdays and some Mondays, while Chemistry-2Y is on
Wednesdays and Fridays and intervening Mondays (check lecture timetable
on page 12 for details). Each module comprises 7 lecture blocks with 8
lectures in each block. Lectures provide only part of the information required
for each topic and the student is expected to amplify this knowledge by
attending tutorials and laboratory sessions as well as private study.
Talking during lectures is a distraction to both the lecturer and your
fellow students and is probably the commonest problem raised at staff/student
meetings. If persistent talkers are sitting next to you let them know of
your, and your classmates' resentment at their unsociable behaviour!
Laboratories
Practical work is divided into three main laboratory periods: physical,
organic and inorganic, each of 5 weeks duration. Attendance is compulsory.
Each module demands one afternoon session per week and is arranged, as
far as possible, to accommodate other subjects. Students taking both modules
will therefore be required to do two afternoons per week (normally Wed.
& Thurs. or Fri. & Mon.) while single module students will normally
be allocated a Fri. or a Mon. to dovetail with possible IBLS modules. Normal
laboratory hours are 2:00 - 5:00. A charge (£12) is made to help
cover the cost of laboratory manuals, notebooks, handouts, graph paper
etc. This is collected during the afternoon enrolling session when laboratory
days are assigned.
How many lab. experiments do I have to do?
This is the commonest question asked in any of the labs. The answer: as
many as you can manage. Since the duration of individual experiments varies
(some take only 2 hours, others 4 hours including write up) then some students
may get through six or even seven experiments and others only 4 (which
would be regarded as a minimum) in the five week period. Also some students
will be doing both modules and hence will spend two afternoons per week
in the lab. This is taken into account when the overall mark is assigned.
Laboratory assessment contributes 10% to your final assessment.
The design study.
Since the design of an experiment involves a book or literature search,
as well as an extensive write- up over two lab. afternoons, only students
doing both modules will be assigned a design experiment.
NB. Students intending to do Chemical Physics or Chemistry-Geology or are
enrolled for the AFE courses or Environmental Chemistry 3H please inform
Dr. Freer as soon as possible.
All chemical substances present a certain risk. Learning how to handle
them is part of your training. Information and safe handling procedures
are provided in the laboratory manuals.
Interactive Teaching Units with an Industrial Dimension
On the Thursday afternoons of weeks 15 and 16 students doing both modules
will be given the opportunity to participate in one of two units on industrial
chemistry. Each unit is roughly equivalent to a laboratory practical slot
and will last 3 hours. The units provide an insight to the range of issues
typically faced within the chemical industry and illustrate the role of
chemists in a modern and dynamic industrial environment.
Students will be spilt into small groups to work through problems of major
interest to the modern chemical industry. In addition to covering specific
areas of chemistry, which will complement that presented in lectures, broader
issues such as economic and environmental issues will also be addressed.
The units operate in an interactive manner, with small groups having to
adopt a team approach to problem solving.
Those students assigned to Organic lab. group B (which starts in week 16)
will work on Unit 1 in week 15, while Organic group A will do Unit 2 in
week 16.
Unit 1 : The Age of Refrigeration. Unit 2 : Mercury, Membrane
or Diaphragms
Tutorials
Tutorials begin in week 3 and run on alternate (odd) weeks throughout the
session, except for week 13 which is class exam week. Tutorial groups normally
consist of six students meeting with the staff tutor at a time convenient
to both students and tutor. Tutors are normally assigned during week 2.
Tutorial work is taken from the problems set in the in the tutorial handbook
for the appropriate week and must be handed in to the tutor in advance.
This is important as it gives the tutor a guide to underlying problems
in specific areas of the course and can form the basis of one to one or
small group discussion. The work handed in is graded and a record of attendance
is kept. Answers to the tutorial problems will be displayed on the Chemistry-2
notice board the week after the tutorial. The content and format of many
of the questions in the tutorial book closely mimics class and degree exams
questions. Students will therefore find tutorial sessions very helpful.
The tutorial system is organised by Dr. A. Benniston (room A4-32c) and
any problems associated with the tutorials should be taken up with him
directly.
Workshops
In some of the lecture blocks a problem solving workshop is substituted
for one of the lectures. You will find the relevant workshop in the tutorial
handbook. Students are encouraged to tackle as many of the questions as
possible since the material covered in the workshop is often used as the
basis for exam questions.
Study Advice
Your lecturers will have spent many hours ensuring that the contents of
their lectures are both relevant and up to date. However, in the time allocated
to the lecture blocks it is impossible to adequately cover all aspects
of individual topics. You are therefore encouraged to read the relevant
sections of the recommended textbooks and make additional notes. The Chemistry
branch of the University Library is located on the top floor of the Joseph
Black Building and you may find it useful to browse through additional
books for a different interpretation of a particular topic. If you are
having problems with any part of the course seek advice sooner rather than
later either from the lecturer giving the course or from Dr. Freer.
Finally, as term progresses you will experience great pressure to complete
essays for other
subjects and perhaps put chemistry studies 'to another day'. This is a
recipe for disaster! You should therefore try and keep up with the volume
of work by studying as much as possible in the evenings and integrating
the tutorials and workshops into your study regime.
Course Assessment
The final mark for the course is made up as follows:
· Laboratory work 10%
· Class exam 40%
· June exam 50%
Minimum Requirements for the Award of Credits
Students may be awarded credits for the course only if they meet the following
requirements:
· attend lectures
· perform satisfactorily in the mid-year class examination
· have a good attendance record in laboratories and tutorials
· achieve a satisfactory standard in the laboratory and tutorial
work
· sit the end of course examination.
Normally no grade or credits shall be awarded to a candidate who has not
met these requirements.
Examinations
The mid-session Class examination is provisionally on the Thursday afternoon
of week 13. It is in the form of one 1½ hour paper per module (i.e.
2 x 1½ hours for those doing both modules). Only work covered in
Term 1 is examined. An example of the Class examination is given at the
back of the tutorial booklet.
It is important that you do well in the Class examination as this forms
40% of your final assessment. A poor performance will put pressure on you
to work significantly harder for the degree exam. You do not get a second
chance with the class exam. It is vitally important for you to plan your
work from the start with this in mind.
Extenuating circumstances (e.g. illness) at exam times must be reported
to Dr. Freer at the time and supported by a medical certificate or other
appropriate documentation.
The end of course examination is in the form of one 3 hour paper per module
(i.e. 2 x 3 hours for those doing both modules). It will include compulsory
questions on topics covered in Terms 2 and 3 plus a choice of questions
from work across the entire year.
Exam papers from previous years can be purchased from the Alchemist Club
but it should be borne in mind that changes have been made to the course
in recent years and hence exam questions on some topics may be different
from the current course.
Laboratory assessment
In each section (physical, organic and inorganic) lab. grades are determined
by various factors, including the number of experiments completed and the
marks awarded for written work and your overall comprehension of the experiment
undertaken.
There is no minimum number of experiments - you are expected to attend
all laboratories sessions, though you will be given credit for reasonable
explained absence due to illness or other circumstances.
It is your responsibility to ensure that lab. reports are submitted for
marking in time - usually on completion of each experimental exercise.
Credit may not be given for work handed in late.
The overall lab grade, determined by performance in all three sections,
contributes up to 10% of your final assessment. Grades and their contribution
to the assessment are as follows:-
Grade Contribution (%) to final assessment
A (Excellent) 9-10
B (Very Good) 7-8
C (Satisfactory) 5-6
D (Disappointing) 3-4
E (Must Improve) 1-2
F (Award of credits doubtful) 0
Rough guidance for the sort of typical performance required to achieve
such grades are as follows:-
Number of and
Grade experiments Average
per section* Mark/10
A ³8 ³8
[* Half this for single
B 8 7-8 module
students.]
C 6-7 6-7
D 5-6 5-6
E < 5 -
F < 3 -
Notice to Students - Summative Assessment: All feedback on coursework
used in assessment, including mid-year class exam/class test marks and
laboratory grades, is strictly provisional for your guidance only, and
is subject to ratification by the Board of Examiners and external examiners
at the end of the academic year. You must retain all copies of assessed
work (lab notebooks, exam scripts, etc.) and have them available for inspection
by the examiners if requested at the end of the year. (You will be given
reasonable advance warning should this be required.)
Grade point averages: Guidelines
Only applies to students under S49 regulations. Students under S40 regulations
use old system.
Mark Grade Grade descriptor Grade points
70+ A excellent 16
60-69 B very good 14
50-59 C good 12
45-49 D satisfactory 10
40-45 E fair 8
35-39 F poor 6
0-34 G very poor 2
Total grade points = sum of credits x grade points
Grade point average (GPA) = Total grade points/ Total credits
The grade point average and credit level requirement for B.Sc. and M.Sci.
are given in full in the University of Glasgow Calendar 1997-1998. Some
of the key points are listed below. Please consult your adviser of studies
for full details.
Diploma of Higher Education (General Science)
240 credits (with at least 140 in Science) with grade point average of
at least 8.5
B.Sc.
360 credits (with at least 200 in Science and 120 above level 1) with grade
point average of at least 10 and at least 50% of grade points and at least
60 of credits above level 1 must be at grade D or better.
B.Sc. in General Science
Must have a broad spread of Science Subjects (biological, mathematical,
physical).
If grade point average is greater that 12 - awarded with merit
If grade point average is greater that 14 - awarded with distinction
B.Sc. in a Designated Subject (e.g. Chemistry)
Must have at least 80 credits with at least 800 grade points at level 3
of the designated subject. Merit and distinction as above.
Admission to B.Sc. Honours
Must have at least 240 credits (with at least 140 in Science) with a grade
point average of at least 11. At least 60 credits should be above level-1.
In addition, each department sets a minimum grade in certain subjects e.g.
Chemistry B.Sc. Honours requires D grade or higher passes in both 2X and
2Y.
Admission to M.Sci.
Must have at least 240 credits (with at least 140 in Science) with a grade
point average of at least 12. At least 100 credits should be above level-1.
In addition, each department sets a minimum grade in certain subjects e.g.
Chemistry M.Sci. normally requires grade A passes in both 2X and 2Y.
Student Responsibilities
Absences from classes
Absences from classes for more than five consecutive days should be explained
by a doctor's medical certificate or similar document which MUST be submitted
to the
Registrar's Office
Main Building
University of Glasgow
Glasgow G12 8QQ
The medical certificate will be copied by the Registrar's Office to all
the Class Heads of the subjects you take as well as your Adviser of Studies.
Absences from classes of less than five consecutive days may be explained
by a 'Self Certificate of Absence' available from, and submitted to, the
Science Faculty Office in the Boyd Orr Building. It is also essential to
inform Dr. Freer of short term absences so that remedial action can be
taken with regards to lectures and labs. missed
Student feedback
We hope that the course will operate smoothly, but if there are difficulties,
bring them to the attention of Dr. Freer immediately they arise so that
we may try to resolve them as quickly as possible. Play an active part
in the staff/student liaison committee, either directly or through your
class representative. Please take time to complete the evaluation questionnaires
and try to provide constructive comments. This helps to modify and improve
the course for the future.
Class representatives
During the first week of the new term you will be invited to elect two
members of the class to represent you on the Staff-Student Liaison Committee
and for liaison between staff and students. The names of the Class Representatives
and notices of forthcoming meetings will be posted on the Chemistry-2 notice
board.
Staff-Student Liaison Committee
The Staff-Student Liaison Committee, which includes the Head of Department,
all other Class Heads and the Class Representatives from other years, meets
twice every term in the Conference Room (A4-41) in the Chemistry Department.
Students may have any items they wish included in the agenda and are also
free to raise any matters they wish at the meetings without prior notice.
Minutes of the meetings will be posted on the class notice board.
Plagiarism
Students are reminded that regulations regarding plagiarism (copying) apply
to all work contributing to assessment, including lab. reports, class tests,
and research projects. Except where specifically directed, as part of a
group project for example, all assessed work must be your own. Copying
of lab reports, for example, is plagiarism - students may share data, where
appropriate - but the report must be your own.
"The University's degrees and other academic awards are given in recognition
of the candidate's personal achievement. Plagiarism is therefore considered
as an act of academic fraudulence and as an offence against University
discipline. Plagiarism is defined as the submission or presentation of
work, in any form, which is not one's own without acknowledgement of the
sources. With regard to essays, reports and dissertations, a simple rule
dictates when it is necessary to acknowledge sources. If a student obtains
information or ideas from an outside source, that source must be acknowledged.
Another rule to follow is that any direct quotation must be placed in quotation
marks, and the source immediately cited."
(University of Glasgow Calendar, 1996-97, p.16)
Other Information
Textbooks
Students should obtain their own copies of:-
1. McMurray: "Organic Chemistry"
(or Morrison & Boyd: "Organic Chemistry")
2. Atkins: "The Elements of Physical Chemistry"
3. Shriver, Atkins & Langford: "Inorganic Chemistry"
(or Cotton, Wilkinson & Gaus: "Basic
Inorganic Chemistry" )
Also recommended:-
4. Webster: "Chemical Bonding Theory"
5. Scott: "Beginning Mathematics for Chemistry"
6. Tebbutt: "Basic Mathematics for Chemists"
Other books held in the library will be recommended occasionally for consultation.
It is also worth buying a set of Orbit molecular models, and these may
be taken into examinations if you find them useful.
Notice Boards
The Chemistry-2 notice boards (2X and 2Y) are situated on the ground floor
of the Joseph Black (Chemistry) Building opposite the IBLS computing suite.
There are two boards: one next to the first year board where class announcements
and exam results are given and another at the far end (nearer the porter's
box) where answers to tutorials and workshops will be shown.
Medical Conditions
Students with long term medical conditions or other disabilities which
may interfere with their course work should let Dr. Freer know, in confidence,
of the situation.
Careers Talks
Towards the latter half of the second term (normally Monday and Tuesday
afternoons of week 18) several speakers are invited from the Chemical Industry
to describe the various career opportunities in chemistry and allow students
to find out more about the diversity of a career in chemistry. For students
thinking of staying on for a higher degree a synopsis of some of the current
research being undertaken in the department will also be given.
Industrial Visits
We hope to arrange some short site visits for small groups of students
to local chemical and biotechnology companies. These will be co-ordinated
via your Class Representatives. More details will be given nearer the time.
Website
Up to date course documentation, research details and other goodies are
available on the Chemistry Department home page (http://www.chem.gla.ac.uk).
CHEMISTRY 2X and 2Y STAFF 1997-98
Room No.* e-mail†
x1 AC Thermodynamics Dr. Alan Cooper B4-20c
alanc
x2 JW Main Group Prof. John Winfield
A4-08 johnwin
x3 JDC Stereochemistry Prof. Joe Connolly C5-19
joec
x4 ACB Modern Molecules Dr. Andy. Benniston
A4-32c andrewb
x5 BW Chemical Bonds Dr. Brian Webster A5-20
brian
x6 PK Reaction Pathways Prof. Philip Kocienski
C4-04 philk
x7 DS Elemental Chem. Dr. Diane Stirling A4-38
dianes
y1 RH Spectroscopy Dr. Bob Hill
A4-35 bobh
y2 CG Kinetics Dr. Chris Gilmore
A5-27 chris
y3 JM Aromatic Chemistry Dr. Jennifer Matthews
to be announced
y4 RC Transition Metals Dr. Ron Cross
A4-32d ronc
y5 DJR Chem. Ecology Prof. David Robins C4-05
davidr
y6 AL Biophysical Chem. Dr. Adrian Lapthorn
A4-15 adrian
y7 RCH Organic Synthesis Dr. Richard Hartley
C4-11 richh
Class Head: Dr. Andy Freer (330 5945)
A4-13 andy
Tutorial Administration: Dr. Andy. Benniston
A4-32c andrewb
Class Secretary: To be appointed A4-42
Laboratories: Staff
Senior Technician
Physical Speakman Dr. Andy Freer Mr Jim
McIver
Organic Soddy Dr. Peter McCabe Mr. Albert
McLean
Inorganic Cullen Dr. Diane Stirling
Mr. R. Kennedy
* All room numbers refer to the Joseph Black (Chemistry) Building.
†e-mail addresses suffixed by @chem.gla.ac.uk, e.g. andy@chem.gla.ac.uk
WHAT NEXT ?
CURRENT HONOURS COURSES IN CHEMISTRY
B.Sc. (Honours) and M.Sci.
Each of the following chemistry courses are available at Bachelor of Science
(Honours) level (completed in 4 years). Chemistry, Chemistry with Medicinal
Chemistry and Chemical Physics are available at Master of Science level
(also completed in 4 years). The M.Sci. course is specifically aimed to
prepare a student for professional leadership as well as providing extensive
training in research methods in a chosen field of science. The requirements
for entry into the M.Sci. courses are more demanding than for the B.Sc.
(Hons), for example, a grade A in both Chemistry 2X and 2Y is normally
required for entry into M.Sci. Chemistry. Full details can be found in
the University Calendar and the Catalogue of Courses or from your adviser
of studies or from Dr. Hill. Students interested in finding out more about
the content of the M.Sci courses in Chemistry should contact Dr. Chris
Gilmore (Room A5-27, Joseph Black Building)
CHEMISTRY
Co-ordinator: Dr. K.W. Muir (Room A4-13 Chemistry, e-mail: ken@chem.gla.ac.uk)
The Honours Chemistry course, accredited by the Royal Society of Chemistry,
is designed to provide students with a broad and stimulating scientific
education. It also equips them with the intellectual and practical skills
expected from a professional chemist.
The three main branches of the subject, physical, organic and inorganic
chemistry, are given broadly equal weight in the final two years of the
course. In third year the course consists of six units, each of 24 lectures.
Topics covered include: Symmetry and Bonding, Organic Reactivity, Metals
from Biology to Semiconductors, Structure and Properties, Bio-organic Chemistry,
and Advanced Inorganic Chemistry. In the second term of their fourth year
students choose to attend five optional courses on advanced topics (from
twelve available).
Laboratory work in third year is designed to illustrate the material presented
in lectures and to develop skills in practical chemistry. In year four
all students carry out a research project on which they write a thesis.
Performance in practical classes counts towards the final assessment. Tutorials
are used to consolidate and augment understanding of the course material
and to develop skills in oral communication.
There is a class exam halfway through the junior honours year; the June
degree examination consists of three papers on physical, organic and inorganic
chemistry. The final degree examination involves four written papers
CHEMISTRY with MEDICINAL CHEMISTRY (CMC)
Co-ordinator: Dr. P. McCabe, (Room 312, Boyd Orr Bldg. e-mail: gxsx07@udcf.gla.ac.uk)
The Chemistry with Medicinal chemistry course, accredited by the Royal
Society of Chemistry, provides a rigorous training in inorganic, organic
and physical chemistry and has a significant pharmacology component. The
course is presented by staff of the University's Departments of Chemistry
and Pharmacology and by active researchers in the pharmaceutical industry.
Medicinal topics covered are: bioenergetics; biophysical and bio-inorganic
chemistry; computer modelling of receptor sites; the design, metabolism,
synthesis and targeting of drugs; drug/receptor interactions; molecular
biology and the study of selected case histories in drug development.
In final year, there are option courses on: anti-cancer compounds; the
central nervous system; enzymes; modern syntheses of biologically active
compounds and protein structure - design and engineering. The final year
research project of approximately seventeen weeks duration is carried out
in areas of chemistry which have medicinal or pharmacological applications.
The course is designed to produce professional chemists who have appreciation
and practical experience of the role of biologically active compounds in
modern medicine and who are trained in critical analysis, problem-solving
and research methods. Although it is likely that our graduates would be
interested in a career in the pharmaceutical industry, diverse prospects
exist within the wider chemical industry, in teaching, in non-subject-specific
graduate employment and there is scope for post-graduate training in accountancy,
business administration, chemistry/medicinal chemistry, forensic science,
information technology and molecular biology.
CHEMICAL PHYSICS
Co-ordinator: Dr. J.H. Dymond, (Room A5-21 Chemistry, e-mail: johnd@chem.gla.ac.uk)
Chemical Physics is concerned with electrons, nuclei, atoms and molecules,
in all states of matter, and the ways in which they interact with the environment.
This is important, for example, in understanding the chemical, electrical
and magnetic properties of substances that are of central importance in
designing solid state devices for the electronics industry. Another example
would be the use of spectroscopic techniques and theoretical methods to
detect and determine the nature of species adsorbed on surfaces, which
finds application in catalysis. The Chemical Physics course covers those
areas where Chemistry and Physics overlap, and is taught by staff from
these two departments, which both were rated 'excellent' in the last teaching
assessment exercise by the Scottish Higher Education Funding Council.
The course produces physical chemists who have a wide, in depth, training
in Chemistry and Physics, as well as Mathematics and Computing and who
are very well equipped to tackle problems which lie at the interface of
these important regions of science.
Chemical Physics graduates are recognised as very versatile and receive
good offers for positions in industry, commerce, government research and
education. Many students proceed to research leading to a higher degree.
CHEMISTRY and GEOLOGY
Co-ordinator: Dr. D. Stirling (Room A-4 38, Chemistry; e-mail: d.stirling@chem.gla.ac.uk)
The Honours Chemistry/Geology course is designed to provide students with
a broad based knowledge of both chemistry and geology with particular emphasis
on those areas of chemistry and geology that overlap. Graduates with an
Honours in Chemistry and Geology can pursue a career in either chemistry
or geology and many students proceed to research leading to a higher degree.
Students wishing to study Chemistry and Geology Honours must have passed
both Chemistry and Geology at level 2. For the chemistry component of the
course the three main branches of the subject (physical, organic and inorganic)
are given about equal weighting in the final two years. Subjects covered
include molecular symmetry, crystallography, thermodynamics, organic reactions,
physical organic, organic synthesis, co-ordination chemistry, solid state
chemistry, radiochemistry, catalysis, molecular spectroscopy, surface chemistry
and main group organometallics. In the second term of their fourth year
students choose to attend three optional courses on advanced topics (from
seven available).
Laboratory work in third year provides the students with skills in practical
chemistry, and students carry out a joint research project (chemistry and
geology) in their final year.
Students considering the Chemistry and Geology honours course should consult
Dr. B. Bell of the Geology Department (e-mail: B Bell@geology.gla.ac.uk)
for further information on the geology component of the course.
ENVIRONMENTAL CHEMISTRY
Co-ordinator: Dr. H. Duncan (Room C5-06, Chemistry, e-mail:harryd@chem.gla.ac.uk)
The chemistry of environmental materials and processes and the chemical
analysis of environmental samples provide a strong scientific background
for understanding environmental problems and the basis for monitoring,
controlling and cleaning up pollution. The course tackles the dilemmas
caused by pressures on the natural environment, with sections on food production
and the environmental impact of agrochemicals, such as pesticides and fertilisers,
industrial pollution of the atmosphere, soil and water resources and the
safe disposal of waste products, such as sewage and refuse.
The Environmental Chemistry Honours course is a two year modular degree,
covering a broad spectrum of fundamental and applied environmental topics
including: the chemistry of soils, principles of analysis, reclamation
of industrially contaminated land, pesticide residues in food, radionuclides
in the environment and water pollution.
The course provides hands on experience of analytical equipment and methods,
and opportunities for field work. There is a strong emphasis on project
work in both third and fourth year. The course team includes experts who
work daily in the environmental field.
Environmental Chemistry can lead to a range of challenging and rewarding
careers in industry, in environmental consultancy, in the environmental
protection agencies, in teaching or in research. High quality Environmental
Chemistry graduates are likely to be in increasing demand as concern for
the environment grows.
AGRICULTURAL, FOOD AND ENVIRONMENTAL CHEMISTRY
Co-ordinator: Dr. H. Duncan (Room C5-06, Chemistry, e-mail:harryd@chem.gla.ac.uk)
The need to produce food stocks to meet the demands of an ever increasing
population is a key problem facing mankind today. Increases in production
on the required scale necessitate a heavy commitment of scientific resources.
Developments in Agricultural, Food and Environmental (AFE) Chemistry,
covering animal and plant nutrition, soil science, and pesticides, have
made a substantial contribution, particularly in the case of the advanced
nations, and are facing new challenges in developing countries. However,
the balance between food production and environmental protection is shifting
in favour of the latter, and there is a great deal still to be accomplished.
The course in Agricultural, Food and Environmental Chemistry aims to provide
students with a thorough training in the scientific basis behind agricultural
and environmental topics, allowing them to take an informed and balanced
view of the major environmental and food and nutritional issues. Students
who specialise in AFE Chemistry at Honours level have an opportunity, in
their final year, to develop their own interests via the selection of two
ten week projects for in depth study.
Graduate careers can be found in the agrochemical and food industries,
environmental protection agencies, quality assurance, government and local
authorities posts as specialised advisory officers, pollution chemists
and public analysts as well as in teaching and research.
ENVIRONMENTAL BIOGEOCHEMISTRY
Co-ordinator: Dr. H. Duncan (Room C5-06, Chemistry, e-mail:harryd@chem.gla.ac.uk)
Environmental Biogeochemistry is a joint course offered by the Departments
of Chemistry and Geology for which the entry requirements are both Environmental
Chemistry 2E and 2F and Geology and Applied Geology 2.
Environmental Biogeochemistry is about water: where it comes from, what
is in it, where it goes to, and how it affects us and other living creatures
as it moves around the planet. The course looks at the interactions of
water in the different environments on Earth (rocks, soils, rivers, lakes
oceans and living matter). It emphasises analytical techniques, with hands
on experience of a wide range of equipment. Field work also plays a major
part in the degree, examining the natural cycling of water, collecting
samples for laboratory analysis, computer modelling , all which involves
you directly in environmental issues. The Environmental Chemistry component
of the course includes modules in: disposal of wastes to land and contaminated
soil; C, N cycling and humic substances; radionuclides in the environment;
and water pollution. There is a ten week project in the fourth year on
an applied aspect.
Graduate careers can be found in environmental protection agencies, environmental
consultancy, environmental research and teaching.
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