1.1.
Task Force Objectives
The Task Force on Information Technology Resources was
formed to examine telecommunications and computing activities
of the University of Florida, and to develop a plan which:
- Allows the University to respond faster to needs for
information resources. þ Focuses University activities in
information technology resources and encourages
cost-effective use.
- Allows the University to use its computing and
telecommunications strengths to address the needs of the
next decade.
- Clearly states the commitment needed by the University
if advances in the use of information technology resources
by faculty, staff, and students are to be made.

1.2. Assumptions
Inherent in the discussions which follow is the assumption
that the following trends in information and communications
technology will continue.
- The computer as primary tool for academic and
administrative work.
The cost of computer hardware and software continues to
decrease, while the capabilities and variety of these
systems continue to increase. New and innovative uses for
computer technology in instruction, research, and
administration will continue to help increase the
productivity of faculty, staff, and students. Academic and
administrative units will continue to purchase new computer
technology, forcing the University to address the issues of
maintenance and management of this technology. Increasing
individual productivity through computer technology and
networking is one way the University can reduce the impact
of increasing labor costs.
- Computer networks as key to access to information and
services.
The emerging model for computing in the 1990s involves
having a flexible high-speed network at the core. Academics
are becoming more reliant on connections to University,
national, and international computer networks for access to
colleagues, information, and services. The need for
interconnecting computers of faculty, staff, and students will
continue to grow, placing demands on the University to provide
appropriate computer networking infrastructures. Computer
networks, along with facsimile machines, have revolutionized
the way University documents are transmitted. New computer
networks, being installed or planned, will open up new ways of
handling information.
3. The emergence of reliable and efficient distributed
processing systems.
As computers have decreased in size and increased in
capability, and as computer network speeds increase, more
tasks previously possible only on a mainframe computer are
being performed on networked workstations. File sharing,
document exchange, and processor resource sharing are all
being performed on campus today. This trend toward a more
distributed approach to processing and file storage is well
advanced and one which is expected to become the standard
model for all computing. The University needs to acknowledge
this development and incorporate a distributed computing model
into its planning for services and support.
4. The continued need for mainframe and supercomputing
services.
Select numerically-intensive computing projects requiring
the speed and capability of the mainframe and/or supercomputer
are important in a number of academic disciplines. While
national supercomputer centers accessed over national computer
networks can satisfy part of this need, it is clear that
universities will be required to supply a growing demand for
supercomputer services. The size of the databases needed to
run the University requires the speed, reliability, and
security of mainframe-based file systems and the ability to
handle large numbers of simultaneous users.
5. The merging of voice, video, and data networking
transport systems.
Voice, video, and data networking can occur over one
medium. The benefits of providing all three services over one
medium dictate that combined networking will be a practical
reality in the near future. Solutions that combine services,
such as broadband ISDN, are not currently commercially
available but commercial solutions are being actively studied
and will be available in the near future.
6. Increasing student ownership of computers.
As students continue to be exposed to computers in grades K
through 12, the University can expect to see more students
arriving here with personal computing systems. Currently
students majoring in many disciplines buy their own computers
in order to be competitive in their course work. Eventually
all students will need personal computers. Where we now expect
students to supply their own paper, pencils, and calculators,
in the future students will be required to supply their own
computers.
7. Continued growth of computer use in instruction.
Use of computers in the classroom will grow slowly and be
limited by classrooms incapable of allowing effective use of
technology and by the inability of students to obtain access
to appropriate computing. Development of computer aided
instruction programs will continue but at a slow pace due to
continued uncertainty as to how to effectively integrate
computers with more traditional instruction.
8. Computer software developed for
only the newest technology.
As new computer and networking technologies emerge,
computer software will be developed to take advantage of these
new technologies. As software becomes more reliant on new
technology, older computer hardware and networks will not be
capable of running this software and will need to be phased
out. The desire to run new and more capable software is the
driving force behind the purchase of most new computers today.
This trend has serious impact on how the University will plan
for funding information technology in the future.
9. The inevitable diversity of hardware and software.
Given the dynamic nature of computing and networking
technology, and the diverse needs of user at the University,
it is not desirable, nor really cost effective, to limit the
computing and networking environment to a small set of
hardware and software systems. University policies and plans
must accommodate diversity in hardware and software. Standards
are still necessary, but they must be dynamic and reflect
advanced computing and networking practice within and outside
the institution.
10. The increasing sophistication of users.
Users are becoming more familiar with computer technologies
and networking. Users have begun to make greater use of the
full capabilities of today’s software, a trend which is
driving requirements for more processing power on the desk. As
this trend continues, we can expect to see increasing demands
being placed on services to support these users, as well as
increasing demands on networks to accommodate increased
information flow.

1.3. Information Technology at the University
of Florida
As the University of Florida has grown in the last
twenty-five years, so have its information technology
resources. Prior to 1973, most computing was the
responsibility of data processing shops in the Registrar’s
office, Finance and Accounting, and the University Computing
Center. With the introduction of minicomputers in the
mid-1970s, computing began to decentralize. The general
introduction of the microcomputer in the late 1970s and early
1980s further encouraged decentralization to the point that
today every unit on campus, however small, has some collection
of microcomputer equipment at its disposal.
During this time, efforts have been made to coordinate the
delivery of administrative information to major administrative
units. The offices of Academic and Administrative Affairs have
provided the leadership for this coordination. These efforts
concentrated primarily on the technical and logistical
problems of providing terminals and connectivity to
administrative users. Much less time has been spent on
developing comprehensive and flexible administrative databases
and information retrieval tools. Until recently, the computing
technology was not capable of supporting extensive database
development. In general, resources and time for planning and
implementing a more comprehensive and usable administrative
information system have not been available, with most
administrative information providers using all available
resources to keep up with ever-increasing demands.
Efforts have also been made to coordinate academic use of
computing for research instruction, and public service
(extension). These efforts have concentrated on providing
training to faculty and computer labs for student use.
Services and training for faculty, staff, and students in the
purchase, maintenance, and use of computers have been
described as minimal to non- existent. These problems were
pointed out in the Webb report (A Plan for Student Access
to Instructional Computing, 1984), which proposed a plan
for moving forward on these issues. Since the Webb report,
some progress has been made in implementing the more technical
recommendations, but service and support levels remain far
below recommended levels.
The rapid growth of high-speed computer networking has only
exacerbated the problems related to services and planning.
Networking computers has been shown to increase worker
productivity, increase the effective lifetime of computer
equipment, and enhance communication among users. Units have
networked their installed computers despite a general lack of
technology professionals on campus who understand how to
acquire and operate networks, and the generally unavailability
of these individuals to help specific units. Unlike the
experiences with microcomputers in the early 1980s, few
administrators are now willing to divert faculty and staff to
network design and management. Instead, unit managers are
looking for additional resources to fund management positions
or are looking to the University to provide support for
computing as part of the University infrastructure. The lack
of support has led to delays, frustration, lost productivity,
and inefficient use of resources.
While substantial networking growth has occurred on campus
and among off-campus units, most of this effort has been
technology-driven. A 1986 consultants report on University
networking ( A Communications Network Plan for the
University of Florida, 1986) described the communications
environment as "far-reaching, but disjoint" and
"a collection of components". Until recently, the
campus backbone network did not connect to a sufficient
fraction of University buildings to be considered
comprehensive. Very little effort has been expended toward
delivery of services. The University libraries have not been
major participants in the campus network, and the major
libraries are only now being connected. Administrative
information users utilize the network primarily as a high
speed communications line for terminal sessions on the
mainframe computer. Developers have not utilized the
distributed computing capabilities of the network, primarily
because most administrative workstations are inadequate.
Despite its apparent shortcomings, the University’s
computing and networking environment is dynamic, flexible, and
populated with many capable people. The annual investment made
by all units will have to be increased and better managed if
the University is to stay competitive as a major research and
education center. The process begins with better coordination
of existing support service units, better allocation of
existing resources, and better planning for the future. In the
sections which follow, the Task Force has recommended actions
which, if implemented, will enhance coordination and
management, placing the University in a position to better
utilize information technology to meet the demands of
research, instruction, public service, and administration.
Unless these actions are taken, the problems will only
increase, soon reducing the ability of the University to
perform at the level demanded of a public higher education and
research institution in the 1990s.

1.4. Current Information Technology Resources
Expenditures
It is estimated that in fiscal year 1989-90 the University
of Florida spent roughly $52.5 million in direct support of
information technology. This represents about 5% of the total
budget of the University for that year. Of this $52.5 million,
$34.9 million (66%) was in the E&G budget, $6.2 million (
12%) in IFAS, and $11.4 million ( 22%) in the Health Sciences
Center. Long distance and local exchange telephone services
account for $4.8 million (9%), NERDC mainframe and
communication services account for roughly $6.5 million (12%).
Major projects, as identified, in the Information Resources
Management report for 1989-90, account for $8.2 million
(16%)with $0.91 million (2%)of this being spent on major
projects in telephony and networking.
Many staff having information technology responsibilities
are not in established information technology services or
support units and hence are not covered in the $52.5 million
amount. Current accounting practice makes it impossible to
identify all funds spent on information technology-associated
materials, such as microcomputer software, parts, and paper.
The fraction of the total which goes to administrative
applications development, to administrative production
processing, and academic computing is not easily obtained.
No attempt has been made in this report to define
comprehensively the existing information technology resources
of the University. The consultants report on communication
networks ( A Communications Network Plan for the University
of Florida 1986) took nineteen pages to describe the
University’s resources in 1986. A similar report for 1991
would require at least three times that many pages, and would
probably still miss many important components. The major
information technology services units were identified by the
Task Force in the early stages of discussion, and unit
managers provided detailed reports on resources, practices,
and budgets assigned to these units. This information formed
the foundation for initial discussions by the Task Force.

1.5. Users of Information Technology
Resources
Three major groups of information technology users were
considered by the Task Force: academic users,
administrative users, and applications developers/support
providers Academic users include those faculty, staff, and
students who use information technology in the performance of
research, instruction, and service activities. Academic users
can be further subdivided into those who simply use the
computer to compose documents or seek information, and those
who use the computational capabilities of the computer. The
class of computational academic users includes the numerically
intensive computing user who requires access to supercomputers
to perform effective research and instruction.
Administrative users are primarily University staff, but
include many faculty and students who rely on information
technology resources to perform the recordkeeping and
accounting activities of the business of the university.
Administrative users are not easily subdivided into clear sub-dasses,
primarily because administrative staff require access to the
full range of information in the performance of their duties.
A number of administrative users deal primarily with student
records and advisement, and depend on the databases prepared
by the Registrar’s office. Another group of administrative
users deal exclusively with the business transactions and
accounting databases prepared by the various units of
Administrative Affairs. Administrative staff in the colleges
and departments are very likely to deal regularly with both of
these types of information.
Applications developers/support providers include those
computing and networking technicians who create and support
software and databases for the academic and administrative
users. By far, the largest organized group of developers
exists to support administrative applications. These
individuals are found in the departments which supply the
major databases, namely the Registrar’s office, Student
Financial Aid, Administrative Affairs, Academic Affairs, IFAS
and the Health Center, as well as in the major resource
provider units such as NERDC and CIRCA.
1.6. General Comments on Goals and
Recommendations
In attempting to understand the current computing and
networking environment, the Task Force looked at two things.
First, we looked for activities where better coordination
and/or consolidation of providers of services would lead to
more effective support and economies of scale. Second, we
attempted to identify strategic services or functions which
are not at present provided or supported at all or are only
sparsely covered. The University must provide new resources if
progress is to be made providing these strategic services.
When coordination is recommended, the objective is
the integration of activities or functions into a
system which is capable of providing services or information
to users efficiently and effectively. The result of
coordination is an increase in access to support, training,
and technology by users in colleges and administrative units.
While there are valid reasons why certain units may require
more support than others, increased coordination among service
providers is necessary to ensure some basic level of access to
support for all.
When consolidation is recommended, the objective is
to bring together individuals engaged in delivering very
similar services under one management. Consolidation is a more
drastic step than coordination, so it is recommended only when
there are dear benefits to having one unit. Consolidation is
recommended to increase the comprehensibility of the system to
users, to increase the productivity of existing service
providers, or to allow the targeting of individuals to
strategic programs. Consolidation also allows the University
to take advantage of other economies of scale.
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