Government Information in Canada/Information gouvernementale au
Canada, Volume 3, number/numéro 3 (Winter/hiver
1996-7)
Integrating the Enterprise 1
MPA candidate
L'Acquisition continue et le soutien du cycle de vie (CALS)
est une stratégie d'affaires qui gagne rapidement de la
proéminence comme stratégie-clé permettant de
maintenir la compétitivité en réduisant les
coûts associés à divers processus d'affaires. La
capacité de prolonger l'entreprise de sorte que les processus
d'affaires sont vraiment bout à bout exige l'utilisation de normes
ouvertes, de systèmes ouverts et une concentration évidente
sur le cheminement de l'information que soutiennent ces processus. Le
Projet de gestion des ressources en information (GRI) est une discipline
émergente qui appuie CALS du point de vue de la mise en
application. Les aspects externes et de collaboration de CALS
présentent le groupement des exigences de gestion de l'information
d'une entreprise qui dépend des ressources externes. Cet article
examinera la stratégie CALS et son rapport avec GRI; certains
exemples de réalisations GRI du gouvernement sont décrits
dans un effort d'examiner les complexités associées aux
nouveaux modèles d'affaires qui se concentrent sur l'information en
tant que ressource.
Introduction
Strategies regarding information management and information technology
(IM/IT) are critical components of an overall business strategy.
The business world has been experimenting for some time, searching
for an optimal mix of rightsizing, outsourcing, process re-engineering
and the focused application of IM/IT that would ensure the company's
survival in an uncertain future. Increased competition, economic
downturns, rising deficits, and other externalities continue to
pressure business and government to seek efficiencies in their
administrative processes, either through automation or outsourcing,
in order to devote more of their increasingly scarce resources
to "core competencies" and mission critical processes.
Since Hammer and Champy first espoused
their vision of the new, lean, ITenabled corporation, both public
and private sector enterprises have embraced re-engineering. The
"silver bullet" of re-engineering was offered as a systematic
approach to solving the problems of sluggish corporate performance,
declining sales, rising deficits (government), overhead costs
out of line with operations, etc. Having established quality
and cost parameters as key indicators for the competitiveness
of the corporation, the solution was to introduce new automated
systems to support the reinvented core processes. The typical
business case would show how this investment in automation would
save time, increase personal productivity, and enhance corporate
competitiveness. Efforts to follow through on this strategy have
not always met with success, and in some cases have led to spectacular
failures. What seems to have been missing is an overarching information
management strategy to control the migration from the stovepipe
systems that litter the IM/IT landscape today to the truly integrated
information environment of tomorrow: the CALS strategy.
CALS
The CALS Strategy
For the last 15 years or so, the computer industry has been claiming
that automated systems will save costs, reduce time to market
for new products, increase individual productivity, and the list goes
on. But after having spent over US $800 billion on office
automation,
and having increased the amount of information available to individuals
by an order of magnitude, the expected productivity increases
have not been realized. For the most part, these IT investments
were made without a clear vision of the integrated enterprise,
or an integrated information environment (IIE) that would enable
and optimize mission critical processes. More importantly, without
a clearly articulated set of information standards, no enterprise
could hope to integrate easily with another to achieve the so-called
extended enterprise. In order to address these concerns, government
and
business collaborated in the development of a strategy that
became known as CALS.
CALS, which stands for Continuous Acquisition and Lifecycle Support,
is described by the US CALS Industry Steering Group (CISG) as
"a global strategy to further enterprise integration through
the streamlining of business processes and application of standards
and technologies for the development, management, exchange, and
use of business and technical information."
The CISG is a business group of industrialists committed to furthering
electronic commerce and enterprise integration. Established in
1986, the group supports data sharing in an open systems environment,
the adoption of commercial standards, international coordination
of standards for data exchange and the sharing of "best business"
practices.
With respect to standards, by far the most important standards
for CALS are the digital information standards. This refers to
those standards that permit the exchange of digital information
between diverse enterprises that have come together for some express
purpose. Key to this notion is that the standards must be internationally
accepted and commercially viable. Thus, the adoption of commercial
standards and recognition of these standards by an international
standards body has played a significant role in the phenomenon
known as CALS.
History of CALS
In the past ten years, the very concept and definition of CALS
has evolved significantly. CALS began in the mid-1980s as Computer
Aided Logistic Support, and was an initiative by the US Department of
Defense (DOD) to promote the exchange of technical data directly
between government and industry in electronic format rather than
paper. The DOD had recognized that logistics support processes
were costly and ineffective, and it was believed that digitizing
the information that supported these processes would both reduce
costs and increase operational effectiveness.
As the CALS strategy evolved, the name was changed to Computer-aided
Acquisition and Logistic Support in order to emphasize the acquisition
phase in addition to the operational logistics (in service support)
phase. Supportability and lifecycle considerations for both equipment
and its supporting information are chiefly determined during the
design phase, and it became evident that CALS strategies brought
the largest return on investment when applied to the whole lifecycle,
rather than concentrating on fixing the problem after deployment.
CALS strategies have since proven to be very effective in reducing
weapon system development and production lead times and achieving
lower overall acquisition costs. This was a turning point for
CALS, since savings up front could be shown, thus the business
case for CALS was no longer tied to projected lifecycle support
cost savings many years downstream.
In 1993, the term Computer-aided was
replaced with Continuous
to de-emphasize the IT aspect as well as to highlight the continuous
use of CALS strategies throughout the full life cycle of a weapon
system or product. The term Logistic was dropped in favour of
Lifecycle to downplay the military aspect of CALS in hopes of encouraging
greater acceptance of CALS principles and strategies in non-military
industry sectors, and to promote CALS to small/medium-sized enterprises
(SMEs) in particular.
Although not generally accepted in international CALS circles,
the US Department of Commerce has proposed another definition
for the CALS acronym, that being "Commerce at Light Speed."
This is an attempt to bring industry's attention to the potential
for competitive advantage through CALS-based extended enterprises
in an electronic environment.
A significant proportion of CALS strategies and best practices
are devoted to improving the information resource management (IRM)
infrastructures of complex organizations, especially in regard
to their ability to interact with external partners in a seamless,
IT-enabled fashion. IRM, then, is a persistent theme in the implementation
of CALS, along with enterprise integration and the extended enterprise
model, all operating within a shared data environment.
Integrated Information Environment
CALS (from the government perspective, at least) could be considered
a systematic approach to resolving IRM problems in the materiel
acquisition and support (MA&S) domain. The problems associated
with inefficient IRM practices are aggravated by the staggering
amount of technical information, the variety of holdings and formats,
the longevity of the information, and the fact that MA&S depends
heavily on industry for spare parts, repairs, and engineering
services. Moreover, each new acquisition brings with it a
system-specific approach to data management. The IRM predicament
in the MA&S domain grows with each new acquisition, and for
this reason CALS is being targeted at the new acquisition programmes
to keep from adding to the legacy data management problem.
In striving to achieve an IIE, it is important to emphasize what
CALS is not:
Notionally, CALS can be considered a collection of best practices
and business strategies that have been assembled under an international
banner called CALS. CALS Offices exist in virtually all NATO
nations, and CALS is rapidly gaining prominence in Japan and other
Pacific Rim countries as a viable business strategy to improve
competitiveness in a globalized economy.
The goal of CALS is for small, medium and large businesses and
governments to be able to work in a digital environment from shared data
repositories. Within an IIE, sometimes referred
to as the CALS
Environment, information is created once and reused
many times throughout
the lifecycle of the product. All participants in an enterprise, whether
customers or suppliers, need to be able to work within a shared
data environment, in real time, on the design, development, manufacturing,
delivery and servicing of products. This shared
data environment could
be a virtual entity distributed throughout
the various supporting
industries and government offices. Each
process relating to a product's
life cycle uses this common, shared
set of information in a number of
different ways. With an integrated
database, there are no hand-off points
between stovepipe systems.
Engineering, manufacturing and logistics data
can be made instantly
available to users in industry and government,
greatly improving
decision making through the use of shared and
up-to-date information.
The cost of transferring data is reduced and the
speed of data
interchange and user access is dramatically increased with
the
elimination of inefficient interfaces. The reduced redundancy
of
information in a shared data environment allows more cost-effective
life
cycle management of the data set.
Information Resource Management
Managing Information
For the most part, managing business, including government business,
is undertaken with a particular approach to information management.
Usually, this approach has been a cost trade-off of sorts, where
perfect information management might be desirable but unaffordable.
However, more and more attention is being given to finding a
solution that meets the stated objectives of the Canadian Federal
Government's Management of Government Information Holdings (MGIH)
policy issued in 1989. According to Michael Nelson in "Federal
Information Policy: An Introduction," Government Information
in Canada/Information gouvernementale au Canada, Vol. 1, No. 3.1.
(1995):
Nelson goes on to explain the policy, where it becomes clear that
MGIH emanated from the records management discipline. He states
that MGIH must coexist with other policies, notably the Government
Communications Policy, the Federal Identity Program, the Access
to Information Policy, the Privacy and Data Protection Policy
and the Security Policy.
The MGIH policy offers the following definition of the information
life cycle:
While there are many different views as to what a Government
information holding is (or is not), there should be at least
a common understanding of what information is. One view is that
information is "the meaningful representation of data"
and, if we assume that communication (for some express purpose)
is the desired outcome in most instances, then this would include
presenting the information in a way that is suitable for human
consumption. Aesthetics aside, it is important to note that data
presented (on paper or on a video screen) without context can
result in miscommunication: the medium should not be the
message.
To some, information is a public good and therefore all information
should be made freely available to everyone. This approach, unfortunately,
is not very practical, and probably impossible to implement from
an IT systems perspective (no one would be foolhardy enough to
claim that he or she could document the needs of such a large and diverse
user community). To others, information is a resource: it can
be owned (intellectual property and copyright concerns), it has
value (and therefore should be managed accordingly), must be protected
(security and privacy issues). Leaving these philosophical differences
aside for the moment, it may be helpful to distinguish data from
information, and information from knowledge.
Data can exist in many forms, in many places, and in increasingly
significant quantities. But without context, data is mostly meaningless.
Consider the number 10, or the date 10 April 1994. Without a
reference or context, these are meaningless bits of data.
Similarly, a database of several thousand data types with millions
of entries against each might achieve data management, but without
tools to assemble and present "digestible" views of
this database, humans would be hard pressed to present a query,
let alone interpret the output correctly. But one thing remains
clear: for knowledge to be communicated there must be a means
to share information across non-homogeneous IM/IT domains. There
is no single database design or data architecture for the world;
neither is there a single data dictionary that would enable disparate
databases to be easily reconciled.
In the past, assembled information (e.g. a catalogue) was distributed
using paper or other hard copy material like microfiche or aperture
cards. But as the pace of business accelerates, predominantly
paper based exchanges can be impediments to the accurate, timely
and efficient sharing of information, whatever the purpose of
that exchange. What is needed is a simple, robust model for the
sharing of information. This is where the scientists at CERN
were heading when they developed the Hypertext Transport Protocol,
or HTTP. The next step in IRM should take us beyond, to an information
architecture that transcends merely viewing web documents, to
integrating information across domains as part of an IRM posture
that responds to the needs of the enterprise's core processes.
Principles of IRM
Several definitions of IRM can be found in articles and Internet
sources, and for the most part all address the IT issues adequately.
There are, however, some interesting differences in approach
when it comes to the information itself. One organization (a
university) chose to address its IRM policy solely to its structured
database holdings. Other IRM departments tend to leave the term
"information" loosely defined. For example, the State
of Montana's Information Policy Office states that the principles
underlying IRM are as follows:
With respect to the "Data Principle", data should be taken
to include the contents of structured databases as well
as other unstructured data objects stored on floppy disks, optical
media, magnetic tapes (e.g. monthly backup tapes), paper records/documents,
photographs, engineering drawings, film, video, and audio. The
challenge for IRM is not just the creation/storage, etc., but
the version control of dynamic documents and the evolving relationships
of objects to other objects. In other words, the integration
of an enterprise's information is much more than a warehousing
or library effort, and must accommodate the sharing/exchange of
information with external partners.
As for the standards principle, this should incorporate information
standards as well as technology standards. CALS standards are
primarily open international standards for the neutral representation
of structured text, graphics, and audio/video,
etc. See http://www.acq.osd.mil/cals/specstds.html
for a current list of CALS standards. The use of non-proprietary
formats (i.e. hardware and software independent) is critical to
the longevity of information, especially information that must
persist beyond the life of the IT systems used to create it.
Managing Government Business
It is not uncommon for governments to apply accepted business
solutions to problems common to both the public and private sectors:
financial management, strategic planning, human resource management,
materiel management, etc. In the same vein, governments have
often adopted (or adapted) IT solutions developed in the private
sector. IRM, however, continues to pose a significant problem
for large bureaucracies as well as big business because of the
explosive growth of information holdings and the diversity (and
incompatibility) of systems used to support them.
Established records management procedures have not adapted well
to the era of automated workflow, electronic files, email and
hybrid documents consisting of text, graphics, and audio/video,
and have never tried to encompass the automated systems that use
or create information objects. Nonetheless, the discipline of
IRM (if it is indeed a discipline) continues to draw on the past,
deploying traditional management methods in hopes of resolving
the problem of too much information with too little control.
Investigation of IRM initiatives has shown that established lifecycle
management techniques normally reserved for materiel are being
applied to information as simply another resource that adds value
to the enterprise and should be managed accordingly. However,
it is one thing to call "information" a valuable strategic
resource, and quite another thing to manage it in traditional
ways. What is the value of information in dollar terms? Does
it appreciate/depreciate? How much should be spent to manage
the information holdings? What are the metrics that would support
a business case return on investment (for amassing a database,
or to build a new system)? What are the cost implications of
not managing information assets, or managing them poorly? How
much should be spent on security and access, given that
these are opposing forces?
Government Examples
As IRM gains prominence as a strategic thrust, various government
entities have taken it upon themselves to both define their IRM
strategy, and in some cases, publish it as well. The US Department
of the Interior (
http://www.ios.doi.gov/oirm/oirm/oirmvisn.html
),
in describing its IRM strategy, offers as its objective an axiom from the
materiel management domain:
"the delivery of relevant information to the right people
at the right time at the lowest possible cost." DOI goes
on to state that this will be accomplished by using IT to streamline
or re-engineer business processes to improve service to the customer.
"Customer" would seem to be the average citizen seeking
something (service, information) from the government.
Using a somewhat different approach, the State of Oregon has developed
an interesting model tracing a history that should seem familiar
to most users of IT in the public and private sector (see http://www.state.or.us/IRMD/irmplan/integrate.gif).
The appeal of this view is the integration of IRM planning into
the program planning cycle. For many years, an ADP Services department
that tended to focus on technology issues likely handled the strategic
planning of IRM. Functional line managers were essentially left
to their own devices to figure out how their business activities
could be improved by deploying IT. Even today, with all the attention
being devoted to business planning, process-driven business plans
that identify budgets for computers seldom explain how this investment
will fit into the corporate IRM strategy of "create once
and share across organizational boundaries" (assuming that
there is an established IRM strategy to that effect). The danger
here is that different organizational units will fill in the gaps
themselves, duplicating information that resides in another system
that is "unreachable" (e.g. a financial information
system) in an attempt to achieve a complete corporate view from
one narrow perspective (e.g. human resources). Top-down direction
has yet to achieve the vision of the integrated information environment
(IIE), but relying on bottom-up solutions is unlikely to work without
determined orchestration of efforts and development of systems
focused on common and understood corporate objectives. Thus,
the role of IRM for an enterprise should be to manage the "white
spaces" between the various functional domains as they develop
and implement their IM/IT solutions.
Transition
The ability of most enterprises to keep pace with technological
change is limited chiefly by cost constraints and downsizing.
There is, however, also some hesitancy to jump into the new world
of Intranets and enterprise-wide client/server architectures, given
the dismal track record of large scale IM/IT projects to deliver
as promised. What will likely occur in the next 5-10 years may
not be the "paperless office" but rather, a hybrid of
paper and other physical media with the corporate electronic holdings.
However, it is only through the use of open standards and flexible/extensible
data architectures and IT architectures that an enterprise can
ensure that its valuable information assets will persist into
the future.
Database technologies have helped address structured information,
but best estimates put structured enterprise information holdings
at 20%, and the remaining 80% in unstructured formats such as
documents (paper and electronic), letters, email, photographs,
drawings, etc. These same estimates suggest that 80% of IT expenditures
have traditionally been devoted to the structured information
holdings. If IRM is to succeed in its primary objective, it will
need to resolve the problem of managing the many-to-many relationships
that typify complex documents (hybrid documents especially).
This requires powerful object-oriented tools, at a time when object-oriented
technology is admittedly in its infancy, but gaining prominence
is the key component of IRM for the future. Commitment to CALS
strategies by major manufacturing sectors and government is key
to ensuring that systems developed in the future accommodate technology
changes without compromising information integrity or operational
readiness.
Randy Platt, "CALS: Integrating the Enterprise," Government Information in Canada/Information gouvernementale au
Canada 3, no. 3 (1996-7). [http://www.usask.ca/library/gic/v3n3/platt/platt.html]
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