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S.00-72
• ?
Simon Fraser University
Memorandum
T0
?
Senate
FROM:
?
J.M. Munro, Vice-President, Academic
DATE: ?
August 16, 2000
SUB
J ECT:
External Review - School of Computing Science
External Reviews of academic units are conducted under Guidelines' approved
by Senate. The review process is intended to ensure that the quality of the department's
academic programs and research is high, that members of the department participate in
the administration of departments, and that the departmental environment is
conducive to the department's objectives. Under these Guidelines, Senate is expected to
receive advice from the new Senate Committee on University Priorities and to provide
feedback to the unit and the Dean.
The following materials are forwarded to Senate for consideration:
The External Review Report
The response to the External Review Report by the School
. ?
The comments of the Dean
The comments of the Vice-President, Academic
The recommendations from the Senate Committee on University Priorities
A representative of the School will be available at Senate as a resource person.
Motion
That Senate concurs with the recommendation from the Senate Committee on
University Priorities concerning advice to the School of Computing Science on
priority items resulting from the external review, as outlined in S.00-72
r
rrl
is
The Guidelines can be found at
http://www.reg.sfu.ca/Senate/SenateConirns/SCUP-ExReview.hbnl

 
Replacement Page 2 for Senate Paper S.00-72
S,
?
SIMON FRASER UNIVERSITY
Senate Committee on University Priorities
Memorandum
AMENDED
TO:
Senate
?
FROM: JoF
Ch
RE:
School of Computing Science
?
DATE:
?
14
External Review
The Senate Committee on University Priorities has reviewed the External Review
Report prepared on the School of Computing Science August 30, 1999, together with
the response from the School and comments from the Dean and the Vice President,
Academic.
SCUP recommends to Senate that the School and Dean be advised to pursue the
following as priority items:
1.
?
TheSchool of Computing Science should submit a plan to SCEMP regarding
enrollment growth over the next 5 years. It is recognized that the success of
the five year growth plan will depend on adequate resources. This plan
should:
a.
evaluate the demand for Computing courses by non-CS-majors and
identify what additions /revision are required to the curriculum to
enable Computing Science to most effectively expand service teaching
to non-CS students;
b.
outline the balance envisioned for expansion of non-CS-majors
enrolments and the addition of new CS-majors FTEs;
C. ?
review the number of on-line courses available and assess whether
increased use of on-line courses would form part of a strategy for
increasing student enrollments within the School;
d.
specify the resource requirements associated with the enrollment
growth plan and identify how these will be met;
e.
indicate any curriculum revision required to implement the plan; and,
I
f. ?
identify what accountability measures will be introduced to evaluate
the plan and the impact of expansion over the five year period.
/ page 2

 
Page 2
2.
The School of Computing Science, together with the Dean of Applied Science
and the Vice President, Academic, must find ways of achieving success in
faculty recruitment and retention efforts. Further expansion of the
Computing Science program should be developed in consideration of the
faculty resources required to preserve the quality of the program.
3.
The School of Computing Science needs to address the issue of course
availability for computing courses for all students, and must increase the
number of lower-level undergraduate courses being taught by tenure-track
faculty.
C.: ?
J. Deigrande
R. Marteniuk
O
C
oil,

 
II,
?
SIMON FRASER UNIVERSITY
Office of the Vice President, Academic
?
MEMORANDUM
TO: Senate Committee on
?
FROM:
J.M. Munro,
University Priorities
?
S
?
Vice President, Academic
SUBJECT:
External Review, School ?
DATE: June 8, 2000
of Computing Science
The report of the External Review Committee of the School of
Computing Science was submitted on August 30, 1999 following the review visit
on March 8-10, 1999. The response of the School was submitted on October 12,
1999 and the comments of the Dean of Applied Sciences on May 15, 2000.
.
?
?
My comments on this external review and the submission from the School
?
and Dean are as follows.
1.
A review committee for an academic unit of this size would normally have
four members - three external and one internal. This review was carried out
by a committee of two external persons. Nevertheless, this is a balanced and
comprehensive review report.
2.
Computing Science probably has a more dynamic environment than any other
academic unit in the University. This is partly seen in the rapid growth of
demand for admission to the undergraduate program and partly in the rapid
evolution of curriculum structure and subject matter. Steps have been taken
over the last nine months to deal with an emerging crisis situation in the
undergraduate program through directing additional funding to teaching
equipment, instructional resources, and staff. Further efforts are underway
now. Nevertheless, despite this progress the need to plan for the future of the
undergraduate program is still very pressing. The Dean's comments propose a
major expansion of funding to allow an increases of between 50 and 100
percent in undergraduate FIEs by expansion of the number of majors over the
next five to ten years. This may be inevitable, and even desirable, but
consideration should also be given to expanding enrollment in Computing
Science courses through an expansion of service teaching for Arts and Science
0 ?
students. This would have two advantages: it would cost less and it would
6.

 
2
address the unmet demand of students in those Faculties for some Level of
access to Computing Science courses.
3.
One of the many difficulties with a large expansion of majors in Computing
Science is the shortage of suitably qualified tenure track faculty. The review
report and the School's response do not contain explicit mention of this -
neither do the Dean's comments. Other information received from the School
of Computing Science suggests that all major computing programs in the
country are finding a dearth of available candidates for faculty positions this
year. This is no doubt both a supply (major industry demand for Ph.D.
graduates) and demand (attempted rapid expansion at many universities
simultaneously) problem- any realistic short-term plan for enrollment growth
will have to take account of this major impediment.
4.
White the reviewers found that undergraduate students had generally
positive views of their experience in the School of Computing Science (the
review was done before the major registration problems last summer), there
were a series of concerns raised about the graduate program. These are
important and it is encouraging that the School has taken steps to deal with
many of these concerns.
5.
The reviewers' observations concerning the excellent research reputation of
the School and the scholarly accomplishments of its faculty are gratifying and
we must not dilute this aspect of the School by too rapid expansion of its
enrollments
new faculty
or
cannot
unwise
be hired,
faculty
it
hiring
might
in
be
response
necessary
to
to
this
restrict
pressure.
the number
If suitableof
?
is
undergraduate majors even more than at present and the School might in time
evolve into a unit with a large service teaching component and a smatter major
program with admission requirements similar to Engineering Science. I would
not recommend this as a preferred option, but it might be the best option if
some current trends were to continue.
9.ZK 4M""V
cc. R.G. Marteniuk
?
J. Delgrande

 
SKIMP 00-03
Faculty of Applied Sciences
Dean's Response
is ?
To The School of Computing Science's Response To Their External Review
May 16, 2000
The External Review of the School of Computing Science (CS), authored by Patrick
Dymond of York University and Janice Glasgow of Queen's University, in my opinion, is
an excellent review in that it covers many important issues faced by the School of
Computing Science. Equally well done is the School's response to the External Review.
The Response deals directly with the issues raised in the External Review and indicates
actions that the School will take in regard to the various issues raised in the External
Review.
My role in the process, as I understand it, is to comment on the Response of the School and,
in those areas that require additional resources, suggest ways and means of acquiring
- those resources.
In regard to the above, I wish to concentrate my report on the following issues raised by
the Reviewers and dealt with by the School in their Response. The Reviewers state on page
14 of their report
" ...if
the School is to maintain its current ranking among Canadian
computer science departments, then both the School and the administration must work
more effectively together to deal successfully with its problems. In our view, the principal
problems are student enrollments and faculty recruitment and retention."
If student demand for computer science courses is to be satisfied, CS must grow in faculty,
staff, and basic infrastructure support. A plan must be put in place to provide these
resources over a defined time period. As background to such a proposal, I wish to call
upon documentation that, in combination with the External Review and the Response from
CS can lead to a proposal for the necessary resources.
The Faculty of Applied Sciences' three year plan called for an increase to the size of the
School of Computing Science in terms of numbers of faculty, staff, and students.
The Plan pointed out that over the past several years the School of Computing Science (CS)
has increased its enrolment by 60 to 65%. Some of this growth was planned but a large
component was in response to a significant demand for its courses by students seeking the
CS major and by non-CS students seeking more knowledge about information technology.
The demand for courses and programs in CS should continue for some time. Currently
there is a significant demand for graduates from CS by the Information Technology sector
of BC, Canada, and indeed the rest of the world, where our graduates from CS are in
unprecedented demand. This demand, arising from the development of the knowledge
based economy, is unlikely to abate in the near future and in fact there will probably be an
increase in the need for people with various levels of IT knowledge. In Canada alone, it is
estimated that there is immediate need for 20,000 employees for the IT sector, many of
these requiring university degrees. As well, Nortel hires a full 25% of
all Canadian
university graduates in computer science and electrical/ computer engineering and could
use more. it is statistics like these that dictate that at SFU the demand for CS courses will
0

 
increase in the next few years far beyond the demand for courses in the other disciplines
noted above.
Related to this ongoing demand for computer science courses on the Burnaby Mountain
campus, is the role that Cs can play at the TIME Centre. As mentioned below, the School is
willing to develop credit and non-credit programs at the TIME Centre that will serve as an
important catalyst in the downtown IT sector. In this regard, SFU could be at the core of a
large IT development as Vancouver moves to develop the Gas Town and harbour area into
a large IT industrial area.
As the Faculty's and School's three year plans pointed out, increasing the size of CS will
also be an investment in high quality scholarship and research in that the School currently
enjoys a high reputation in Canada and abroad for the expertise and research productivity
of its faculty. This is reinforced by the External Review but, as noted, we must act quickly
and decisively if we are to maintain our high standing in regard to other Canadian
Universities.
Above and beyond the above plans, CS also has some short-term enrolment management
problems, the solutions to which are covered in their Response. However, these
management tactics will not solve the basic issue of unprecedented demand for computing
science courses, both from CS majors and non-majors alike. I think it is accurate to say that
CS faculty are unanimous in indicating that the School would like to attempt to meet a
good portion of this demand but the School needs additional: faculty; technical staff and
front office staff; TA support; teaching equipment; and space.
The Academic Vice-President's Office has helped to increase the resources over the past
two years to CS but this support, while much appreciated, is seen as necessary to help CS
maintain its current programs at a high level of quality. To attempt to meet some of the
unmet demand for undergraduate and graduate courses in CS, additional resources would
have to be made available.
THE PLAN
The plan is to garner resources to allow strong growth to be achieved in CS faculty, staff
and infrastructure support over a five to ten year. The specific areas targeted for growth
over this time are:
• The further development and enhancement of our newly approved specialist
undergraduate programs in Software Engineering and Multimedia Computing.
Related to the multimedia specialist program is a proposal for an interdisciplinary
initiative in Multimedia and Computer Graphics which has strong implications for the
graduate program.
• The deployment of faculty to the NewMIC initiative among SF0, UBC and TechBC,
UVIC, and Emily Carr at the Harbour Centre.
• The establishment of a "Software Skills" course sequence for non-computing students.
This could include individual courses as
well
as minor programs planned with the
Faculties of Science and Arts. Currently, there exists three courses, taught twice each
I.

 
per year, that would form the basis of this sequence of courses. It should be noted that
the School has received SIP money to cover the current costs of offering these courses.
0 ?
0
An expansion of the graduate program from 110 students to a target of 150.
• The growing of the Alternative Routes to Computing program that is now being
offered but which the School would like to increase in numbers.
• Of high priority would be to bolster the Schools' involvement in the Pacific Institute for
the Mathematical Sciences and in the Mathematics Initiative in Technology and
Complex Systems. Both these initiatives are important to Computing Science in the
long-term and require increased faculty numbers to provide critical mass.
• A strong collaboration between the Faculty of Business Administration and the School
is possible in the Computing Science/Business Techo-MBA.
• The development of online courses. Two constraints on admitting more students into
the CS major have to do with space and equipment. One way to partially avoid these
constraints is to move towards putting as many CS courses online as is possible. The
School feels that several courses can be put online and taken by students from home,
thus partially alleviating the problem of space and equipment. Faculty, space and
human infrastructure would be needed to implement this aspect of the plan.
Financial Considerations
The overall plan is to increase the School of Computing Science in FTE students, CFL
S ?
faculty, and appropriate human infrastructure by 50% over the next five to ten years
through funding from SRI and to perhaps expand by as much as 100% via special funding
from the BC Government (i.e. ITBC - see below).. A 50% increase assumes the following:
• An average per FTE cost, in 1998/99 dollars of $6000.00 (not including space and
equipment)
• A total 1998/99 FTE of about
822(732
UG and 90 G)
• The total FTE grows tol248FTE
• The total FTh in at the end of the growth period is represented by 800 majors' FTEs, 298
service FTEs, and 150 graduate FTEs
• Funding the increase of 426 FTEs represents an increase of 426 X $6,000.00
=
$2,556,000.00 to the base budget of Computing Science which does not include the cost
of space and equipment needed to support the increased enrolment.
• Funding of approximately 15 new faculty positions would require annual costs in the
form of an average increase of $20,000 to thestarting salary. This is assuming that the
average $15,000.00 market differential is still present. This additional salary cost adds
$300,000.00 to the required total funding increase.
• Total request is for approximately $2,856,000.00
0 ?
^1-

 
The Proposed Funding Solution
• The Strategic Initiative Fund. It is proposed that approximately $350,000.00 per year
over the next five years be taken from the SIF for funding growth in Computing
Science.
• Targeted FTEs. If the provincial government continues funding targeted FTEs for
Information Technology purposes top priority be given to the School of Computing
Science to bring the total funding increase per year to $560,000.00 for a total of five
years (SIF plus targeted FTEs would equal $560,000.00 per year).
• CE! and KDF would be approached for new start up funding as well as major
infrastructure grants.
• The space issue. Growth is impossible without additional space being assigned to CS.
Even if the TEC (Technology and Environment Centre) Building is approved by the
Government this summer, it will be three years before this space is available. Off
campus space may have to be found to bridge to the new building. Lack of space
explains why the proposed growth take place over a five to ten year span in that earlier
rapid growth could not be accommodated even by off campus space.
Other Funding Considerations
• ITBC (Information Technology BC) ia an effort by UBC, UVic and SFU to get a
significant funding increase from the provincial government in IT related areas in the
BC universities. The proposal is to increase the IT related graduates from these three
universities by 100% over the next five years. Included in this proposal is an effort to
get a significant increase in federal funding (NSERC, CE!, etc.) for IT related research
areas. Funding for IT activities might be forthcoming to the extent that the senior
administration and the IT Faculties from each of the Universities can work together on
a unified proposal. The present proposal, increased by another 50% could be seen as
SFU's contribution to the unified proposal.
;M
?
40

 
scij
p
00-03
AP.1
RESPONSE
of:
The School of Computing Science
to:
External Review of
The School of Computing Science
March 1999
by: ?
Patrick Dymond
?
Janice Glasgow
York University ?
Queen's University
Toronto, Ontario
?
Kingston, Ontario
October 12, 1999
I0
/
L
V

 
Preamble
The School appreciates the time and effort taken by Profs. Dymond and Glasgow, in visiting
the School in March and in writing their detailed and wide-ranging report. We recognize
that their task was made more difficult by the inability of the university to find an Internal
Reviewer, and by the very unfortunate illness of the third External Reviewer.
The reviewers made various
recommendations
and
suggestions,
under those headings, in
their review. These recommendations and suggestions made by the reviewers are addressed
below. The replies reflect the views of the School's faculty, staff, and students, all of whom
were invited to give their input to the reply.
Response to recommendations
Undergraduate programs
Recommendation 1
Mechanisms must be put in place to control and manage access so
that students have a reasonable expectation
of
getting the courses they need to make normal
progress towards their degrees. The School and University must work together to find fair
ways to allocate the still-scarce resources fairly.
We are working toward a better control of enrollments. Currently, a large majority
of our students are admitted into computing after completing 57 credits. The large body
of intending computing majors places great enrollment pressure on our courses. As well,
about 10% of the students attempt to improve their GPA by duplicating courses. The new
admission policy addresses both these issues by requiring students to declare early, and
disallowing duplicates for admission GPA calculation.
Students will shortly begin declaring at the end of their first undergraduate year; as well,
students with a sufficiently high GPA may declare on entry to SFU. At present, a high school
graduate may declare with an average of 93%.
For upper division students, we will be allowing students to take a maximum of three
Computing courses in a given semester; after three courses, a student's priority for a fourth
(or more) computing Course will drop significantly.
For the interim, we are addressing the current "bulge" in our majors by shifting teaching
resources to the upper division. As well, the VP Academic's Office has supplied up with
one-time funds to mount extra sections of four courses in the 2000-1 semester.
For the second point, we look forward to working with the University toward relieving
enrollment pressures.
Recommendation 2
A
significant increase in the total number
of
course sections offered
by the school is needed.
The number
of
sections offered by part-time and non-research faculty should be reduced
as
quickly as resources permit.
I
1! ?
S

 
For the first point: we agree, but we require resources in order to increase the number of
course sections. However, we have in the past year limited the maximum class size to 200
students; this is a reduction from our largest class size of 350 students previously.
For the second point: we agree in part, and subject to the caveat that our Lecturers
constitute an essential and valued part of our faculty. We note that the number of Lecturers
has not increased in the last 15 years, even though in the late 1980's the School grew by
13 research faculty. However we sympathize with the underlying problem that we see the
reviewers as addressing, that too many lower division courses are taught by non-research
faculty. Part of the problem is that we have a large number of upper-level courses; conse-
quently, research faculty are called upon to teach the upper-level courses, possibly at the
expense of the lower-level courses. We have addressed this latter point in the last year by
stipulating that a research faculty member can expect to teach approximately one third of
their courses at the lower division.
As well, we acknowledge that too many course sections are taught by sessional instructors.
(Although we note that for the five year period for which figures were available for the review,
1993/94 - 1997/98, the proportion of courses taught by CFL faculty rose from 69% to 75%
in the School while for the university as a whole it dropped from 69% to 67%.) We feel
that having sessional instructors in moderate numbers can be a healthy thing; for example it
allows Ph.D. students to obtain experience in teaching a course. However, in the last Spring
semester (99-1) we hired 18 sessional instructors and since then we have not hired less than
12 sessionals per semester, including a planned 12 sessionals for the Spring semester (00-1).
This is too many. Future hirings will help address this problem; we feel that future hirings
is may well include new Lecturers (but in balance with our research faculty). As well, our
plans for enrollment management will go a long way to helping ease our reliance on sessional
instructors.
In 1999 a total of 42 course offerings were taught by sessional instructors. Once we have
hired into open positions, this number can be further reduced only through an increase in
the faculty complement or a reduction in course offerings.
Recommendation 3
Multi-year planning and budgeting for the School's equipment and
software needs should be adopted.
Agreed. We are in a discipline where a certain portion of our equipment will predictably
go out of date in each year. One thing that makes planning difficult is the uncertainty over
the University's Equipment Budget. This makes long-term planning for equipment purchases
difficult, since funding isn't reliable yet in each year funds must, in one fashion or another,
be obtained.
The reviewers also raised a number of issues concerning the undergraduate program,
which we also address here. The reviewers state:
We are not taking a position on these points, merely suggesting they be thoroughly
examined by the undergraduate curriculum committee.

 
These points will be passed on to the Undergraduate Curriculum Committee for their
consideration, and the results brought forward to the next School Meeting. We include a
brief response here.
We were curious that there was no required project course for fourth-year students, that
there were no required courses focusing on professional responsibility and social issues, that
there seemed to be little overall integration of object-oriented programming approach in the
curriculum.
The suggestion of requiring a project for Honour's students has been raised from time to
time. We will be revisiting it.
Concerning a course on professional responsibility and social issues, we feel that this
is a good point. We do have a course, CMPT 320,
Social Implications
of
a Computerized
Society,
although this is not the same thing as a course
for
a computer professional concerning
professional responsibility.
The school is looking at the possibility of increasing the breadth of courses available to
fulfill the social aspects of computing requirement. The courses considered are:
. CMPT 320-3 Social Implications of a Computerized Society
. CMNS 353-4 Social Contexts of Information Technology
CMNS 354-4 Communication and Social Issues in Design
• ENSC 406-2 Social Responsibility and Professional Practice
• HIST 361-4 The History of Science: The 18th Century to the Present
. WS 204-3 Women, Science and Technology
One of these courses is ENSC 406-2, which is on social responsibility and professional practise.
The role of object-oriented programming in our curriculum will be reviewed.
The School may also find it worthwhile to pursue accreditation
of
its undergraduate pro-
grams by the CIPS Computer Science Accreditation Council, which provides a useful detailed
outside review
of
many undergraduate curriculum issues.
Agreed. There is a flurry of interest in further formalising the accreditation process, now
that the "Software Engineering" suit has been settled (in favour of Computing Science). We
will likely consider this in the coming year.
The programs in "Computing for Non-Computing Students" are important and should
be permanently funded. The cancellation
of
evening sections
of
introductory courses is also
regrettable.
Agreed, on both points. The Computing for Non-Computing Students programs are,
we feel, valuable for non-computing students being able to obtain Co-op and permanent
jobs, complementing and enhancing their skills in other disciplines. However, given current
resource constraints, we feel that first priority must be given to our Majors.
.
/13

 
Graduate programs
S
Recommendation
4
The School should take steps to reduce the completion time for M.Sc.
program.
We feel that one major reason for the relatively long average MSc completion time (8
semesters) is that several students work part-time, although they are registered as full time
(we do not have a part-time registration status). Funding for full-time graduate students
in Computing Science is available for around $17,000/year, but many students can earn 2-3
times that amount in local jobs. We cannot prevent the students from working, so we are
considering other methods for reducing completion times.
Reducing course expectations:
The course requirement for an M.Sc. by thesis was re-
duced from 6 to 5 as a result of the previous external review. At UBC the course
requirement remains at 6 courses, but students are encouraged to take 3 courses per
semester, whereas our graduates seldom take more than 2 courses per semester. One
way to preserve our breadth requirement of 5 courses, yet speed up the M.Sc. com-
pletion times, is to reduce the course workloads in the graduate courses, so that it is
feasible to take 3 courses in a semester. Students can then commence their thesis work
earlier than at present.
Reducing thesis expectations:
Many of our M.Sc. graduate students spend a great deal
of time on their thesis, which might be better spent working toward a Ph.D. thesis.
5
??
Improve the supervisory process:
It may be possible, through more vigorous monitor-
?
ing, to encourage slow students to complete faster.
Improve the quality of graduate students:
It may be that the weaker students who
are uncomfortable with writing in English take an inordinately long time to write up
their thesis work. We now have very high admission requirements for foreign students,
which should address this issue.
We will hold discussions to determine which alternatives offer desirable routes to take to
reduce the M.Sc. completion times.
Recommendation 5
The School should attempt to make graduate students feel more valued
as members of the university community. This may involve increased communication, as well
as an understanding of their roles on various committees.
We have recently held a vote on whether graduate students should have voting member-
ship on the faculty hiring committee. Of returned ballots the result was 18 in favour and
9 against. This was insufficient to allow the membership to change (for a change to the
constitution of the School we require 60% of the faculty to be in favour, not, for example,
60% of returned ballots). However it has opened up the dialogue within the school, and the
graduate students are feeling more involved in the decision-making processes now. As well,
.
?
?
for the faculty search committee, there will be time set aside for the graduates to meet with
?
a faculty candidate.
X
114-

 
Recommendation
6
The School should put more resources and effort into bringing exter-
nal visitors into the School for seminars or longer-term visits.
Agreed. This year we resurrected our (one-person) "Seminars" committee. We have a
"Distinguished Speakers" series, put on jointly with the Centre for Systems Science. We will
be putting resources into a forthcoming "Colloquium Series" of general-interest talks.
Recommendation
7 Graduate students be encouraged to choose research topics as early as
possible in order to help decrease the overall time to complete a degree.
To help the graduate students chose a research area, we offer a weekly seminar series
given by faculty on their research (CMPT 891). All new students must attend these seminars
during their first two semesters here.
Further, all 4 of the alternatives presented above for reducing the M.Sc. completion time
can also be applied to speeding up the search for a research topic.
Suggestion 1
The graduate committee review the requirements for the Masters program to
determine whether they are appropriate for this degree.
We will be holding discussions to see if reducing the number of M.Sc. courses from 5 to 4,
as well as reducing the course and thesis expectations, still leads to appropriate requirements
for an M.Sc.
Suggestion 2
The School look into whether there is some space available that would facil-
itate improved interactions among graduate students, or whether the current space could be
better utilized.
See the following item.
Suggestion
3
A
space planning committee be set up to study and report on the effects of
increased graduate enrollments in terms of laboratory and office space.
We have in place a Space Allocation committee for the current academic year, which will
review space needs (particularly for research laboratories, but for "public" School space in
general) and report to the School with recommendations for reallocating space. Part of their
mandate will be to review the effects of increased graduate enrollments on laboratory and
office space.
We agree with the reviewers that there is an overall space shortage; hopefully and pre-
sumably this will be addressed with the new Applied Sciences II building.
Research
Recommendation 8
There is a need for growth in the School. When considering new
faculty appointments, the School should consider those areas of research which are currently
under-represented and in high demand from graduate
"I.',
students.
?
0

 
We have been emphasizing "systems" areas in our hiring. Last year's advertisement
S
stated:
The ideal candidate will have demonstrated research expertise in a systems area,
such as database systems, software engineering, graphics, multimedia systems, distributed
systems or networking.
In the last recruiting year we were able to hire a person in the
Graphics area as well as in Database Systems.
For the current recruiting year, we will emphasize the same areas, which remain under-
represented, although rephrasing the advertisement to add emphasis to research excellence.
Recommendation
9
Criteria for merit evaluation, promotion and tenure should be devel
-
oped collegially by the School and communicated clearly to faculty members.
This was a major topic of discussion at the (subsequent to the review) School retreat. In
addition to the criteria set forth in the University's Policies and Procedures, the University
has instituted a new Workload Policy that allows for out-of-the-ordinary work arrangements.
Staff and Facilities
Recommendation 10
A review of the current tasks and expectations for the administrative
staff should be carried out and budget made available for additional staff as required.
A submission will be put forward to the VP Academic's Office for his consideration.
i
sRecommendation 11
The level of training for technical staff be considered and an appro-
priate budget be made available for keeping the staff up-to-date on equipment and software.
Good idea.
Suggestion
4
The ranking of technical staff in the School be examined with respect to similar
positions in computing services to ensure equity for the staff.
Agreed. Technical staff should be receiving equal pay for equal work regardless of the
unit in which they work.
Suggestion 5
A centralized (university-wide) inventory for software licenses be set up to
minimize costs for the School and other units.
We will follow up on this. A central inventory of all software purchased by the university
would allow the university to lower costs by identifying applications for which site licensing
would be cost effective. Other benefits, like interdepartmental technical support training,
volume discounts, or industrial contributions, would reduce the total software application
costs for the university. Where possible, centralized installation of software with a site license
would reduce also support costs.
0
//k

 
Gender and Equity Issues
Suggestion
6
The School should consider the possibility of training in gender issues and
S
equity for those individuals who sit on hiring or promotion committees.
The university provides seminars to this end. As well, the Faculty of Applied Science's
Equity Committee has a non-voting member sitting on our Faculty Search Committee.
Recommendation 12
Efforts to promote equity and fairness within the School should be
more recognized, encouraged and appreciated.
In our opinion, we are promoting equity and fairness strongly within the School. We
agree that efforts to promote equity and fairness should be recognized, encouraged and
appreciated.
S
/1

 
.
scu 00-03
UNIVERSIT
Department of
Computer Science
?
s{Q
RK
Tel
Fax
(416)
(416)
(416)736-5053736-5872 ?
i€ ?
UNIVERSITY ?
FACULTY OF PURE AND APPLIED SCIENCE
4700 KEELE STREET • NORTh YORK
• ONTARIO • CANADA • M3J 1P3
August 30, 1999
Professor John M. Munro,
Vice-President, Academic pro tern,
Simon Fraser University,
8888 University Drive,
Burnaby,
B.C.
V5A 1S6
Dear Professor Munro,
I am enclosing the results of our review of the School of Computing Science, conducted by
Janice Glasgow and myself last spring.
We both appreciated the opportunity to visit Simon Fraser. I hope the report will be helpful
to the University and the School.
Yours very truly,
.T .-
C96
Patrick Dymond
Professor
cc: Janice Glasgow, Queens University
James
Allison
Deigrande,
Watt, University
Computing
SecretariatScience
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(
/ ?
SE P
..
! 1999
V -
-
ACADa
0

 
External Review of
The School of Computing Science
Simon Fraser University, March 1999
Patrick Dymond
?
Janice Glasgow
York University
?
Queen's University
Toronto, Ontario
?
Kingston, Ontario
August 30, 1999
A,'?
?
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S
Summary
The School of Computing Science at Simon Fraser University is highly-ranked among Cana-
dian computer science departments. The School has taken on a significant increase in under-
graduate enrollments without any significant increase in resources, and is now under-resourced
for the current workload. The School appears to be carrying out its mission as well as possible
under difficult circumstances. The School and the University face several challenges in address-
ing these severe undergraduate enrollment pressures and resulting problems, including faculty
recruitment and retention.
1 Introduction
The visit of the external review committee to Simon Fraser University took place March 8-
10, 1999. The charge of the committee was to: 1) assess the quality of the School, its faculty
and its teaching and research programs; 2) assess the quality of the School's administration,
5
the support and resource allocation for the work of the School, both internal and external; 3)
provide an assessment of the School's plans, and its external relationships; 4) identify needs
and opportunities for change; and
5)
examine the three year plan of the School and the self-
study document produced by the School in preparation for the review. Terms of Reference were
provided by the School. We have also referred to the Senate Guidelines for External Reviews of
Academic Units.
Originally, the committee was to consist of four members - three external and one internal.
This became impossible because of the illness of one of the external members and because of an
inability to find a willing internal committee member. The University administration, the School
and the remaining committee members agreed that it was feasible and worthwhile to proceed on
the original timetable for the visit. The result was a committee with only two members, Janice
Glasgow and Patrick Dymond (Chair). This situation added stress and workload to the smaller
committee, both during the site visit and while preparing the report. However we believe that a
larger committee would not have differed significantly from ours in its conclusions.
In a three day visit it is of course impossible to fully understand or appreciate such a com-
plex situation as the School of Computer Science, its interrelationships with its members and its
S
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relationships with the rest of the University. Our opinions are based on the self-study materials
provided to us, and on what we heard from those who spoke to us during our visit. The members
of the committee thank the many people who helped arrange our visit or provided materials, and
all those who talked with us to share their ideas about the School of Computing Science.
The committee has made several considered recommendations to the School and to the Uni-
versity. They are based on our view of the best interests of the University. These recommenda-
tions are numbered in the text. We have also more freely made suggestions concerning somewhat
less critical issues and possibilities which we nevertheless think should be considered (or recon-
sidered) by the School and University.
2 Undergraduate programs
2.1
Enrollments:
The School has about
560
majors and 460 intended majors for the B.Sc. in Computer Science
The School is one of the largest in the university in terms of undergraduate enrollments. This
is one of the causes of what can reasonably be called a crisis in enrollments. Other factors
contributing to this crisis are the School's direct entry mechanisms and cutoffs, and of course
the continent-wide phenomenon of increasing popularity of computer science programs with
students.
Cutoffs for admission are already at a very high level, and any further increase would seem
to be arbitrary. Students who do not get direct entry will have very little opportunity to en-
ter the School. Besides the students who have been directly admitted there are "five hundred
wannabees" trying to get in. Once admitted to the major, senior students have in some cases
been turned away from important upper level courses needed for their computing science major
as many as three terms in a row. Lower level courses are also packed. The result is a possibility of
serious student dissatisfaction with the university, along with excessive pressure on students and
on the School. We were told that "...it looks bad to force qualified students into other disciplines
when they have come to the university with the expectation of pursuing a degree in Computing
Science" and we agree—it looks (and is) bad.
Students now routinely try to enroll multiple times in courses, to improve their chances of
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meeting the minimal standard for entering the upper years of the computing program. Students
are not always able to make the progress towards their degree each term to allow completion
of the undergraduate degree in nominal time frame. The class size increases resulting from
enrollment pressures generally lead to stresses on the quality of learning, despite the best efforts
of instructors, teaching assistants, technical and advising staff.
The enrollment problems were referred to by some faculty members in the School as pos-
ing a "grow/no grow" dilemma. Should the School try to accommodate the student demand by
increasing the number of faculty and technical resources needed? Or should they act to reduce
the number of students instead, in order to provide a good learning environment within exist-
ing resources? Of course the School cannot act unilaterally to resolve this problem, given the
importance of a balance in enrollments to the University's inter-faculty budget planning. We
discuss this further in Section 9. Certainly more planning is needed to provide reasonable access
to courses for students in the major.
Recommendation 2.1
Mechanisms must be put in place to control and manage access so that
5
?
students have a reasonable expectation of getting the courses they need to make normal progress
towards their degrees. The School and University must work together tofindfair ways to allocate
the still-scarce resources fairly.
2.2
Design
of programs
The overall structure of the undergraduate major programs is "normal", by which we mean
it is broadly similar to programs offered by other high-quality computer science departments in
universities across Canada. (As in most programs, there are a few idiosyncrasies that reflect the
School's history and the interests of its faculty members.) The program offers a good degree of
flexibility and breadth for students to follow their interests and to prepare them for co-op work.
The offering of a course in software engineering in year two is impressive, providing a strong
foundation for upper year courses and facilitating placement of students in the co-op programs.
Two specialist programs based on the major have recently been added, one in software engi-
neering and the other in multimedia computing. These both represent valuable and appropriate
specializations which will benefit students. (However we should note that there is currently a
legal controversy in many provinces in Canada over use of the term "Software Engineering" by
S

 
university programs which are not accredited by Professional Engineering Societies. We fully
agree with the School's position that the term "Software Engineering" denotes a recognized area
of study in Computer Science, rather than a part of the purview of Professional Engineering So-
cieties.) It would be valuable for the school to expand its ties to engineering, perhaps through
stronger participation in a joint computer engineering program.
The School should consider the question of whether it is possible under existing program
requirements for a student in the major to miss a significant amount of core material in computer
science if courses are poorly selected. The question of the depth of mathematics in the program
was also raised as a concern to us by some individuals. In our view an amount of mathematics of
about one quarter of the total number of courses, or a little less, is fairly typical of rigorous pro-
grams across the country, and by this standard, the number of math courses appears to be about
right. There remains the issue about the rigour and content of these courses, to be considered by
the department and its undergraduate committee.
There are some other issues regarding the School's undergraduate programs which the School
could usefully consider. (We are not taking a position on these points, merely suggesting they
be thoroughly examined by the undergraduate curriculum committee.) We were curious that
there was no required project course for fourth-year students, that there were no required courses
focusing on professional responsibility and social issues, that there seemed to be little overall
integration of Object-oriented programming approach in the curriculum. The School may also
find it worthwhile to pursue accreditation of its undergraduate programs by the CIPS Computer
Science Accreditation Council, which provides a useful detailed outside review of many under-
graduate curriculum issues.
23
Students
Students with whom we spoke seem to like the faculty and their courses. Although labs are
over-crowded and under-staffed, students felt they were given appropriate computing platforms
and software for their work. They like their Teaching Assistants for the most part. They had
complaints about the suitability of the campus dial-in access facilities, which provide an amount
of access time only appropriate for students who are not computer science majors. Resources
for advising of students in the School are too low, although this is mitigated somewhat by the
excellent advising provided to the students by advisors for the co-op program.
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It is a matter of concern to us that junior students are exposed to largely "teaching-only"
instructors (lecturer/lab-instructors), and sessional (part-time) instructors. The extent of the
School's use of full-time (non-researcher) teaching staff was strongly criticized by reviewers in
the previous external review. The situation has not improved, and the amount of undergraduate
teaching delivered through sessionals and lecturer/lab instructors is still too high in our opinion.
However, we do not see how to avoid the use of non-regular faculty in the current circumstances.
In general, the School needs to offer more sections of its courses, not fewer. This concern is not
intended to impugn the value or dedication of these instructors, some of whom are among the
most popular and effective in the School. Nevertheless contact between students and full-time
(research-engaged) faculty members is an important component of a University education, and
is a key part of what distinguishes a university education from other kinds of post-secondary
education programs.
The programs in computing for non-computing students are important and should be perma-
nently funded. The cancellation of evening sections of introductory courses is also regrettable.
5
Recommendation
2.2
A signifi
cant
increase in the total number of course sections offered by
the school is needeL The number of sections offered by part-time and
non-research
faculty
should be reduced as quickly as resources permit.
2.4 Co-op program
The Co-op program is popular with employers and students. It provides good experience for
students, and appears to be well managed. We talked to several co-op employers who were very
satisfied with the program and viewed the students as well prepared and competent.
2.5
Technical resources
The adequacy of the computing equipment provided for the undergraduate programs varies
from course to course. The platform for one course requires use of a computer system using
two levels of emulations, and this is very slow. The technical staff seem to be dedicated and
ingenious in keeping the systems advancing. Their morale seemed good. It is clear that there
is a continuing need for software and equipment replacement in this field. Ideally long-range
planning for yearly upgrades should be undertaken by the School. It would be better to reduce

 
.
the number of computing platforms supported by the technical staff. Students (and the School)
should receive credit for lab hours in those courses requiring heavy use of specialized supervised
computer labs. Unfortunately there seems to be no university centralized IT support and software
inventory.
Recommendation
2.3
Multi-year planning and budgeting for the School's equipment and soft-
ware needs should be
adoptecL
3 Graduate programs
The School has a healthy and active graduate program with a steady enrollment of approx-
imately 100 students (though this number is now increasing).
T
he students who graduate from
the program are well-placed, with approximately half of the Ph.D. students entering academic
positions after graduation. There was some concern expressed about the length of time it took
for M.Sc. students to complete their studies, although it was observed that this has improved
over the last few years. The median time is now less than eight semesters with an average of 8.8
semesters (just under three years). Previously the average completion time was three years.
In
our view the current level is still too high, and is out of line with programs of similar quality in
other Universities. In many places the M.Sc. is nominally a one-year or four semester program,
and actual completion times typically average under two years.
Recommendation 3.1
The School should take steps to reduce the completion time for M.Sc.
program.
In general, the students seem happy with the supervision they received and the quality of
courses in the graduate program. However, it was mentioned that the time that faculty had
available to interact with students was variable (from very little to substantial).
3.1 Structure and Organization of the Program
Courses in the School are offered at the 700 and 800 level and cover a broad range of topics
that primarily reflect the research interests of the faculty.
The M.Sc. program has two options: a thesis option that requires the completion of five
graduate courses and a thesis, and a course option that requires nine courses and a project. Most
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students choose the thesis option. The workload for this program is slightly heavier than that of
most Canadian university programs in computing, which may account for the length of time it
takes to complete the program. The Ph.D. program has a breadth requirement that is satisfied by
taking seven courses covering three main theme areas (theory, systems and applications). This
requirement replaces the previously applied comprehensive examination. A major requirement
of this program is a thesis consisting of original research carried out under the direction of a
supervisory committee.
Students expressed concern that there were some difficult constraints placed on completing
their course work based on the requirements and the terms in which required courses were of-
fered. For example, there may be few or no systems courses offered in a given term. They
said this problem, which sometimes resulted in longer completion time for a degree, is improv-
ing. We noted that the students seemed to be quite happy with the current chair of the graduate
committee, Stella Atkins, and with the committee in general.
There has been some discussion of cross-numbering fourth year courses with graduate courses,
• where the graduate course would have additional requirements. This option is being considered
because of the current strain the School is under in terms of faculty teaching. While this approach
is obviously financially appealing, it clearly increases faculty workload and acts to decrease the
quality of the course component of the graduate program. Its use should be restricted to excep-
tional circumstances.
3.2
Recruiting
The School is recruiting high quality students. However, there is a concern that the number of
good Canadian students applying to the program is decreasing. Because of workload constraints
on faculty, they are not as pro-active in recruiting as they have been in some past years.
There are an impressive number of female graduate students in the program (approximately
30%). This is higher than in most Canadian computer science departments. The School encour-
ages women applicants and the retention of these students.
33
Concerns
Several concerns related to the graduate program were raised by graduate students and fac-
ulty.

 
.
• Graduate students have a perception that they are not valued members of the School. This
perception is primarily a result of the constitution recently put in place by the School,
which they feel limits the participation and voting rights of students on various committees
in the School. In particular, they are concerned about not having a voice on the appoint-
ments committee. On the other hand, The School's practice in this area is consistent with
that of most computer science departments in Canada.
• Graduate students expressed a sense of isolation on campus. They stated that there was
little opportunity for them to interact with other students or faculty outside of class or their
individual labs. Partly this is based on the geography of the campus; students generally
come to the university only to work as there are no nearby facilities for informal or social
gatherings. As well, they did not feel that there was a comfortable location within the
School for them to interact. We were told that there was a graduate lounge but that this
was not adequate for their needs.
• Some faculty members expressed concern that the university did not recognize the value of
faculty time spent on co-supervision of graduate students. They felt that this was somewhat
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discouraging to inter-disciplinary and collaborative research.
• There does not appear to be an as much active interaction with researchers from outside
the university as we expected. In particular, there appeared to be too few seminars given
by visiting researchers.
• Although the total number of applications for the graduate program is healthy, the graduate
?
committee is concerned about the quantity of good applications from Canadian students.
• Graduate students also expressed concern about the lack of systems support for students in
?
some of the labs. (The amount of technical support varies significantly from lab to lab.)
• As the graduate enrollment increases, laboratory and office space is becoming a serious
concern.
Id -^

 
Recommendation
3.2
The School should attempt to make graduate students feel more valued
as members of the university community. This may involve increased communication, as well as
an understanding of their roles on various committees.
Recommendation
3.3
The School should put more resources and effort into bringing external
visitors into the School for seminars or longer-term visits.
Recommendation 3.4
Graduate students be encouraged to choose research topics as early as
possible in order to help decrease the overall time to complete a degree.
Suggestion:
The graduate committee review the requirements for the Masters program to
determine whether they are appropriate for this degree.
Suggestion:
The School look into whether there is some space available that would facilitate
improved interactions among graduate students, or whether the current space could be better
utilized.
Suggestion: A
space planning committee be set up to study and report on the effects of
is ?
increased graduate enrollments in terms of laboratory and office space.
4 Research
The School has an impressive research record. Almost all of the faculty members have
NSERC research grants (many above the average amount). There is also a reasonable amount
of other funding from industry and granting agencies. The majority of the active researchers
are working in the area of theory and artificial intelligence. Other strengths include databases,
programming languages, hardware and distributed computing. Previously, graphics was also a
major strength of the School but because of recent departures, this area is not as active as it once
was.
4.1 Research Funding
Most of the NSERC operating grants in the School are in the average to above average cat-
egory for the discipline. There are also a few people who are in the upper end (greater than
$40,000) range for these grants.

 
Other sources of research funding for the School include grants from the Science Council
of BC, Networks of Centers of Excellence (M.ITACS, IRIS/Precarn, TeleLearning), and NSERC
Strategic Program. Several faculty also receive industry funding from companies such as INfEL,
Hewlett-Packard and IBM. Overall we view the level of extra-mural research funding as very
high, representing evidence of the strong research strengths of the School.
4.2 CSS
The Center for System Sciences (CSS), which is directed by Brian Funt, provides research
infrastructure for members of the School (and others.) The center appears to provide adequate
network and technical support. One concern that was mentioned with respect to infrastructure is
that there exists some tension between CSS and Computing Services personnel. Another concern
was that there is an ongoing need for individual labs to provide some internal systems support.
CSS provides other useful services for the School, including support for visiting lecturers, re-
search grant preparation, publicity, prize nominations, editorial assistance and conference travel.
On the whole, this center offers a valuable service that goes beyond the infrastructure pro-
vided in most computing departments in Canada.
43 PIMS and MITACS
The School is heavily involved with two major institutes. The Pacific Institute for the Math-
ematical Sciences (PIMS) is an NSERC funded institute set up in western Canada to promote
mathematical sciences. About half of the School have some involvement in this institute and its
existence and success at Simon Fraser is in a large part due to the efforts of Arvind Gupta, who
holds the position of Deputy Director. Both PIMS and MITACS (the Mathematics of Information
Technology and Complex Systems NCE) have provided for increased cooperation between the
School and the Department of Mathematics. They have also raised the external reputation of the
School.
4.4 Concerns
A primary concern in research (as well as other areas) is the attraction and retention of good
faculty. This is particularly noticeable in the area of computer graphics, where up until recently

 
EA
Simon Fraser had a leading group of researchers. This is not an uncommon problem: many
universities in Canada are currently experiencing difficulty in hiring and retaining faculty in key
areas such as graphics, software engineering and systems, where there is a great demand from
both industry and university for highly trained individuals.
Another concern is the balance of research areas. At the moment it appears that the areas
of theory and artificial intelligence are well served (with well over half of the faculty working
in one of these two areas), whereas other key areas such as systems, databases and software
engineering, are not so well served. Since these are currently areas that many graduate students
wish to work in, the few faculty that carry out research in these areas may be comparatively
overburdened with supervision.
There is also some lack of balance in the School with regards to seniority and research ex-
perience. At the moment there is only one faculty member at the level of Assistant Professor.
Because of the lack of young faculty, it may be difficult for the School to adjust to the high
demands that are occurring in this ever-changing field.
• The committee was surprised that there was not more interaction with researchers at the Uni-
versity of British Columbia. There are some joint NCE grants, but we think there are many more
opportunities for joint research, visiting speakers, etc. between the School and the computing
department at UBC.
Some faculty members expressed concern over the difficulty in attracting industry money. It
was suggested that this, in part, may be due to the geographic isolation (with respect to many
of Canada's larger companies, which are located in Ontario or Quebec) of the university. It
was also thought that the university did not encourage contract research, particularly since it is
difficult (costly) to buy out of teaching responsibilities, which may be necessary to carry out such
research.
Recommendation 4.1
There is a need for growth in the School. When considering new faculty
appointments, the School should consider those areas
of research which are currently under-
represented and in high demand from graduate students.
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5
Faculty and Organization
The faculty members for the most part seem to respect one another and to work well to-
gether. We did encounter descriptions of some personality conflicts and some concerns about
gender equity were expressed. Overall faculty members seem to be content with the degree of
faculty participation in administration of the School. They seem to be committed to making sure
the School does well across a broad range of activities, research and graduate studies to under-
graduate education. As mentioned above, the School is highly ranked in research, and this is a
major accomplishment of its faculty members. The faculty seem to be proud of the quality and
flexibility of their undergraduate program. The committee structure seems to be sound and work-
ing well in terms of faculty participation, although concerns were expressed about the degree of
participation of students on the important committees.
The associate faculty members are interested and well able to contribute to the School, al-
though they expressed some concern about lost opportunities for more interdisciplinary studies
due to "walls between decanal units". They would value increased opportunities for supervision
of computer science graduate students.
Overall faculty morale is at an acceptable level but not as highly positive as it should be.
Several plausible reasons were advanced for this. Many faculty members expressed a concern
that the School is falling behind in comparison to other computer science departments across
the country. This is partly due to the School not hiring many new young faculty members. The
School had achieved a strong national reputation at the start of the nineties, having climbed over
the previous decade to a ranking at or near the top of the "second tier" in the words of the last
review. (The first tier consists of the much larger and longer established departments at Toronto
and Waterloo.) The climb was partly accomplished through an exceptionally good record of
recruitment of young faculty members. We believe the School is still ranked at or near the top of
the second tier, but clearly its rate of improvement has slowed relative to that of other Canadian
departments. External perception of trends for improvement is now focussed more on other
universities which are more aggressively recruiting outstanding young faculty members. The
School has gone from being "bottom-heavy" then (having a relatively large proportion of junior
faculty members), to having only one assistant professor today.
In recruiting new junior faculty members, the School must of course build on its strengths,
.
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but it is clear to us that a broader coverage of some key areas would be most helpful. These
areas include the operating systems, software, databases, graphics, and other "systems" areas.
We think the School might benefit somewhat from a shift in balance of areas in these directions.
However significant opportunities to strengthen the School in other, less applied areas should
not be completely ignored. Another issue involved in faculty recruitment is the question of lab
space. There is a severe space shortage in the Faculty as a whole, and very careful planning for
adjusting space needs will be required to bring in new research faculty members.
There are also some morale issues caused by a perception by some faculty members that the
administration does not seem to fully appreciate the quality of the School's efforts and achieve-
ments, This is coupled with frustration caused by the School's inability to cope with high student
demand for its undergraduate programs. Some faculty members feel that the School's concerns
about enrollment pressures are not viewed as sufficiently grave by the senior administration.
Whatever the truth of this, it is clear to us that if the School is to maintain its current ranking
among Canadian computer science departments, then both the School and the administration
• must work more effectively together to deal successfully with its problems. In our view, the
principal problems are student enrollments and faculty recruitment and retention. The faculty
retention issue is being exacerbated by the heavy workload, by the salary cap, and by the the fact
that there are lots of opportunities elsewhere for faculty members in this area.
We found very broad, in fact near unanimous, support for the current chair of the School.
Even professors who were unhappy with their own merit evaluation or with some other decision,
praised the chair for his collegial approach and expressed hope he would accept a second term.
The preparation of the School's new constitution has created some bad feelings by specifying
somewhat less student participation than may have previously existed informally. The prepara-
tion of the constitution nevertheless represents a very significant effort which should benefit the
School.
There was some concern by some faculty members about the formulas and evaluation criteria
used for merit evaluations. Some felt the criteria did not provide sufficient encouragement for
working with industry. We recommend (as suggested by the chair) that the faculty members meet
to discuss these issues in general. We recommend they consider the role in merit adjustments
of contributions in industrial consulting and contract research, although we see little need for
S
change in weight We think the existing criteria
V3
provide a good starting point for this discussion.

 
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Recommendation 5.1
Criteria for merit evaluation, promotion and tenure should be developed
collegially by the School and communicated clearly to faculty members.
6 Staff and Facifities
The administrative staff appear to be a competent and well-organized group. However, given
the size of the School, the amount of support is on the low side. This is evident in several
respects: each staff member has a significant work load; there is no backup when someone goes
on holidays; there is no receptionist (this role is rotated among staff who already have a full
agenda); and the co-ordinator of academic programs and services is on leave (this may be the
result of the stress of being overworked). In terms of administrative staff resources, there is a
lot of stress and clearly some shortage of essential resources. The current half advising position
should be made permanent.
The shortage of administrative staff puts an added burden on faculty to carry out tasks (such
as photocopying, routine secretarial work, etc.) that would normally be handled by this group.
This is certainly not an efficient use of faculty time. It is important that the School should
support its faculty members to pursue contract and grant research by providing a high degree of
staff resources for the administrative management of these contracts and grants.
The systems staff and computing facilities appeared to be adequate for the current needs of
the School. However, with the ongoing increases in enrollment, the undergraduate labs are in
need of expansion. As well, the increased enrollment implies additional sessional instructors
who put added burden on the technical staff (particularly with regards to instruction). There is a
serious lack of training resources for technical staff.
Recommendation 6.1
A review of the current tasks and expectations for the administrative staff
should be carried out and budget made available for additional staff as required.
Recommendation 6.2
The level oftrainingfor technical staff be considered and an appropriate
budget be made available for keeping the staff up-to-date on equipment and software.
Suggestion:
The ranking of technical staff in the School be examined with respect to similar
positions in computing services to ensure equity
V33
for the staff.
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Suggestion:
A centralized (university-wide) inventory for software licenses be set up to min-
imize costs for the School and other units.
It is a matter of concern to the School that the degree of administrative complexity of the
School is not fully recognized by the University. The operation of the School is administratively
complex because of several factors, including the large numbers of enrollments and the high
degree of funded research activity. In addition to these, there are large joint programs such as
those with business, there are large service courses operated for students in other Schools, the
programs all require the operation of labs with equipment and technical staff, and there is an
unusual level of advising needed, including advising for the co-op programs.
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7 Gender and Equity Issues
The School currently has three female faculty members and a healthy percentage of female
graduate students. Although gender equity was not considered a problem for most of the people
• who were interviewed in the review, there were comments that suggested that individuals (in
these cases female) did feel that they have experienced some unfair treatment. One particular
concern was with the hiring equity policy. The membership of the hiring committee has recently
been changed to exclude the membership of voting graduate students. This was felt by some to
reduce chances for hiring females. In addition, some incidents of explicitly sexist remarks were
reported.
It was expressed by one individual that tolerance, diversity and individuality used to be a
unique strength of the School, and that there has been a radical change away from this in the
last decade. It was also mentioned that the student body is now polarized, where most of the
non-Canadians are from only one part of the world.
Suggestion:
The School should consider the possibility of training in gender issues and equity
for those individuals who sit on hiring or promotion committees. (In some universities, such as
Queen's, such training is mandatory.)
There is a gender issues committee which seems to be useful and effective. The goal of
this committee is to recognize and lift barriers to equity. Concern was expressed that there is a
perception that this is light work, or less important than other kinds of School committee service.
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In our view this work should be highly valued by the School.

 
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Recommendation
7.1
Efforts
to promote equity and fairness within the School should be more
recognized, encouraged and appreciated.
The School can be proud of its equity record in terms of numbers of female students; the ratio
is significantly higher than that of most Canadian computer science departments. As mentioned
above we did hear some anecdotal evidence of intolerant remarks. Difficulties in overcoming
gender bias in a recent faculty hiring case were referred to by several people. While the School's
committee chairs and those in senior positions appear to us to be sensitive to these issues and
well able to ensure they are taken seriously, there was enough mentioned to cause us to wonder
if there may be problems in this area after all. We believe that the School's members must work
on this issue themselves.
8 Library
In general, the library facilities appear to meet the demands of the School. Students (par-
ticularly
library may
undergraduate
have provided
students)
in the past.
are growing more dependent on the internet for resources the
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The one concern expressed was that of the rising costs of journals in the information technol-
ogy area.
9 External Linkages and
Plinning
9.1 University Administration
As discussed in Section Two, the current undergraduate enrollment problems were described
by some faculty members in the School as posing a "grow/no grow" dilemma: should the School
try to accommodate the student demand by increasing the number of faculty and technical re-
sources needed, or should the School act to reduce the number of students instead, in order to
provide an appropriate learning environment within existing resources? Both the School and
the University Administration will have to work together to address the enrollment problems.
They must together deal with not one but two enrollment problems. The first is the "bulge" in
enrollments caused by lowering the numbers required for direct entry two years ago; the second
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is the overall long-term student demand for computing science programs. The problems caused
by the bulge cannot be ignored, even if cutoffs for direct entry are raised to allow the bulge to
pass through the system, after which enrollments return to the status quo ante. As a long-term
strategy, we do not believe that it is prudent for the University to ignore the level of demand
for courses in Computing Science, or for the administration to view the situation as roughly
equiv1ent to that in other Schools and Departments which also may have some unsatisfied stu-
dent demand. In fact, we believe that in Computer Science, the level of unsatisfied demand and
the level of student dissatisfaction due to unsatisfied demand in Computing Science is excep-
tional. This exceptional level of demand is consistent with patterns elsewhere in the Province
and throughout North America. This is an issue that is currently being addressed by programs
such as ATOP in Ontario, where universities are receiving separate financial support from the
provincial government to try and deal with the rapidly expanding needs of computing programs.
In our view the appropriate approach to the "grow/no grow" question is for the Adminis-
tration and the School to jointly develop plans which address both sides of the issue, by doing
• some growing and also adding some additional enrollment restrictions and controls. There must
be an increase in resources to accommodate some of the demand. The University's reputation
may suffer if doesn't handle student demand properly. Furthermore, the strength of the depart-
ment may be diminished if quality suffers, and faculty morale problems will lead to additional
problems in faculty recruitment and retention.
10 Conclusion
In considering the history of Computing Science at Simon Fraser University, we observe that
the School became an unusually strong department in terms of national ranking during a time
(late seventies and eighties) when it was very difficult to build a first-rate computer science
department, due primarily to a national shortage of computer science faculty members. Since
then the University's commitment to having a top-ranked computing science department may
have waned somewhat. But the School is still strong and well-placed to renew its advance.
The School has many strengths, based on the quality of its people. It has a reputation for
quality and flexibility in its programs, and a high level of research activity. Although there were
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internal conflicts a few years ago, the current administration (and in particular the Department
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Chair, Jim Delgrande) have gone a long way in bringing the School back to a point where it could
flourish given resources for change and growth.
This is a time when the information technology industry is demanding increased enrollments
in computing programs. It is also a time when there are many research incentives for faculty
members in computing. In our opinion, if Simon Fraser identifies continued strength in Com-
puting Science as one of its priorities, the University has the opportunity to have a School of
Computing Science which continues to be nationally recognized as a leader.
Authors' email addresses:
dymond@cs.yorku.ca
janice @cs.queensu.ca
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