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P E R S P E C T I V E S E L E C T R O N I C P R E S C R I B I N G W E B E X C L U S I V E
25 May 2004
How To Succeed In Health Information Technology
Involving a broad community of
users at the development stage
is likely to result in usable, durable, and deployable health IT products.
By Jonathan C. Javitt
ABSTRACT:
The United States is poised to move the debate over electronic information
systems for health care beyond the question of whether to computerize to how
to computerize. Developers should heed the experiences of those who have already
attempted similar efforts in vertically integrated environments. A key lesson
is that the expertise and design perspectives of IT professionals should be
supplemented with practical input from the caregivers and administrators who
will actually use these systems. The paper by Douglas Bell and colleagues offers
a ray of hope, as these authors have begun their process by asking the user
community exactly what it needs.
The timely and incisive paper on electronic prescribing by Douglas Bell and
colleagues coincides with the start of a new era in computerizing the U.S. health
care system.1 The United States has seen two decades
of scholarly publications, meetings, and calls to action around the themes of
health information technology (IT), medical errors, and patient safety. Until
spring 2004 the primary goal of those activities was to document for broad action
in the hopes of convincing policymakers, payers, and providers to take action.
Many talked about a tipping point, at which there would be no further
need to talk about whether to computerize and the focus would finally shift
to the question of how to computerize.
I believe that we have reached that tipping point. The imperative of computerizing
the U.S. health care system has gone from the academic discussions of a dedicated
few to a presidential priority.2 Now we turn to
the much more challenging task of exactly how to implement electronic health
records, computerized order entry (including e-prescribing), computer-aided
decision support, and secure electronic health information exchange among caregivers.
From the perspective of one who has been involved in implementing health IT
initiatives for more than twenty years and more recently involved in policy
formulation surrounding health IT, the goals are obvious, but a multitude of
questions remain unresolved. These must be answered as we develop a national
strategy to implement health IT. The recently released draft recommendations
of the Presidents Information Technology Advisory Committee (PITAC) sets
out some broad research and development issues that must be addressed if we
are to have the seamless national health information infrastructure to which
we are committed.3
In posing those questions, PITAC does what advisory committees are best able
to do: poses questions and challenges that must be answered in a practical and
societally acceptable manner. It is critical, however, that we look beyond the
conclusions of advisory committees for those broadly based societal answers.
Bell and colleagues have gone a step further in beginning to assemble the community
of users who will have to function within the implementation policy we develop.
They have not yet gone the next step of testing their conclusions against a
broad national audience, but they are clearly headed down the right path.
Context for health IT.
The simplest way to appreciate the importance of this approach is by examining
past and current efforts to introduce health IT systems into existing systems
of care. Since the only broadly based initiatives that have been mounted in
the United States thus far have occurred within integrated delivery systems,
that is our only point of reference for real-world experience. Clearly, the
myriad of competing incentives and priorities in the rest of the U.S. health
care system will add considerable complexity that is only beginning to become
clear.
One might assume that the development and deployment challenges associated with
health IT are reasonably straightforward in a vertically integrated health care
system, when payer and provider are one and the same and when caregivers are
employed by a single entity. Top-down planning by IT professionals with a modicum
of input from front-line caregivers should result in an efficient and effective
implementation, since both the health care system and the systems providers
should be similarly motivated to make it work. While the logic of this statement
may be obvious, in practice it has been devastatingly wrong.
The most broadly implemented health IT system in the world today is that of
the Veterans Health Administration (VHA). This system, known as VISTA/CPRS,
covers more than 1,200 sites of care, including acute care hospitals, ambulatory
facilities, skilled nursing facilities, and pharmacies. While the admiring visitor
might imagine that he or she is looking at the result of a brilliantly executed,
centrally conceived plan, nothing could be further from the truth. The original
plan to computerize the VHA was specified and contracted in typical government
fashion. It failed spectacularly. The successful system that is apparent today
in every VA hospital is the result of the teaming together of physicians, nurses,
and other caregivers to develop a system that works in real practice, every
day. Naturally, a system as large as that of the VHA requires central management,
but management has learned its lesson. The development sites are decentralized
and as close as possible to front-line caregivers. Every year the entire VA
caregiver community sends representatives to Camp CPRS, where challenges
and opportunities are discussed. Innovators are encouraged to bring developmental
applications and market them to the broader audience of consumers.
In fact, the much-discussed bar-coding application for administration of medication
was brought in this fashion by a front-line nurse who witnessed her rental car
being checked in via a bar-code system at the Minneapolis airport.
The result of this decentralized development environment is an extremely practical
system that works for the people who must actually use it. I have visited three
VA hospitals in three different geographic locations. In each one I have spoken
with medical students and residents who rotate from nearby academic medical
centers (AMCs), asking them about their experiences in learning to practice
in a computerized environment. Consistently, they have told me that after a
one-to-two-day learning curve, they would never choose to go back to pen and
paper, and they return to the manual systems in their home hospitals with regret.
Ironically, many of those home hospitals are AMCs across campus from the affiliated
VA hospital. I can empathize with the sentiments of those students and residents,
since that was my experience when I began carrying a portable computer on rounds
as an intern in 1982.
Unfortunately, the experience of the VHA has not yet been replicated in other
centrally managed health care systems in this country. Our largest health maintenance
organization (HMO) is attempting to implement its third electronic health record
system, after finding the first two centrally specified systems not to be deployable
in practice. The Armed Forces are struggling to implement a multibillion-dollar
electronic health record system, also centrally specified by IT professionals
rather than built in the field by trial and error. The most ambitious project
of all is on the other side of the Atlantic, that of the English National Health
System (NHS), which has contracted with multiple parties to assemble a seamless
$10 billion electronic health record to cover its forty million members. In
each of those projects, there has been relatively little involvement, beyond
some focus groups, of front-line doctors, nurses, and other caregivers.
As a professional entrepreneur in health IT, I have learned a consistent
lesson, sometimes the hard way. That lesson is that one cannot ever spend too
much time talking with the users, showing them prototypes, learning their preferences,
and trying things out. Computerizing a health care system that serves more than
260 million people via community-based doctors, hospitals, nursing homes, and
other providers of care is far from straightforward. The local variations in
way people do things are myriad. Recently, a major U.S. urban hospital unveiled
a state-of-the-art electronic order entry system, only to have its medical staff
rebel and shut it down within a month. Unless IT professionals learn to work
with those who must care for patients, we will reach Mars before we computerize
our health care system.
That brings me back to Bell and colleagues outstanding paper. To begin
to develop priorities for e-prescribing, a key component of our national health
information infrastructure, they began by asking the users for guidance. Clearly,
they didnt ask all of the potential users (yet), and they have not yet
begun to show the users alternative solutions and interfaces. Nonetheless, they
have begun their process in an all-too-unusual way: by asking doctors, nurses,
and pharmacists what they need. In the process, they have highlighted some challenges
that must be solved on a broader level for a national IT infrastructure to succeed.
Some of those challenges were also highlighted in the recent PITAC report.
The challenges.
Bells paper focuses on the challenges of unique patient identification.
While Americans cherish the right to privacy, that cherished right has been
invoked to block any means of centrally and unambiguously identifying patients.
As a society, we will have to wrestle with this in the near future and arrive
at a solution. My guess is that most people would be willing to have a centrally
registered means of identificationassuming that their privacy was assuredrather
than to risk receiving someone elses medicine.
A second focus is the need for access to patients historical data, combined
with real-time alerts on medication use. Without these data, decision-support
systems cannot be implemented to identify errors of omission and commission.
Today most pharmaceutical error-checking systems are able to look only for drug-drug
interactions. The more common area for error is the prescribing of medications
that are incompatible with underlying diagnoses, such as beta-blockers in a
patient with asthma. Even more common is the failure to prescribe medications
that are indicated by underlying diagnoses, such as the failure to prescribe
beta-blockers in patients with a history of myocardial infarction.
A third critical area that Bell and colleagues identified was the importance
of current medication lists. Every doctor in practice is aware of the disconnect
between the medications a doctor thinks the patient is taking, the medications
the patient thinks he or she is taking, and the actual medications being administered.
Without a current, verifiable medication list visible at the time of prescribing,
there is little hope of making an impact on our endemic state of polypharmacy,
not to mention the life-threatening errors that occur as the result of physicians
unawareness of the patients other medications. For the past several years
I have been involved in a venture that builds such lists after the fact from
physician and pharmacy claims, to identify common errors. Despite the clearly
printed black-box warnings mandated by the FDA, instances are identified of
patients being treated with both nitrate-containing afterload reducers
and sildenafil citrate (Viagra). When physicians are contacted about this potentially
life-threatening situation, the most common response is incredulity that a specialist
has prescribed this medication without reviewing the full medication list or
checking with the primary care physician.
Highlighting user involvement.
Bell and colleagues have clearly brought important and actionable findings to
the policy arena. More importantly, they have highlighted the importance of
developing health IT systems through the process of asking the users. If this
process is essential within an integrated health system, it is ever so much
more critical in our highly diverse U.S. health care system, with its local
variations and in which payers and providers, institutions and caregivers often
face very different incentives. The initial approach to consultation introduced
by Bell and colleagues must be followed by ever-broader solicitations for input,
by extensive alpha and beta testing in which the broadest possible user base
is included, and by an ongoing mechanism for actively watching for innovations
from the field. For 3,000 years the practice of medicine has relied upon physicians
pooling their experiences to develop approaches that work for their patients.
The challenge of computerizing our health care system should be no different.
The opinions expressed are the authors own and do not reflect the findings
or policy of any private or governmental entity.
NOTES
1. D.S. Bell et al., Recommendations for Comparing Electronic
Prescribing Systems: Results of an Expert Consensus Process, Health
Affairs, 25 May 2004, content.healthaffairs.org/cgi/content/abstract/hlthaff.w4.305
(25 May 2004).
2. White House, Promoting Innovation and Competitiveness,
www.whitehouse.gov/infocus/technology/economic_policy200404/chap3.html
(3 May 2004).
3. National Coordination Office for Information Technology Research
and Development, Your Federal Networking and R&D Resource, www.nitrd.gov
(3 May 2004).
Jonathan Javitt (JJavitt{at}healthdirections.net)
is an adjunct senior fellow of the Potomac Institute for Policy Studies in Arlington,
Virginia, and an adjunct professor of the Johns Hopkins School of Medicine in
Baltimore, Maryland. In 2003 he was appointed by President George W. Bush to
the President's Information Technology Advisory Committee, whose Health Subcommittee
he chairs. He serves as senior adviser to the chairman of First Consulting Group
Inc., chief medical adviser to the Patient Safety Institute, and chief scientific
adviser to Active Health Management Inc.
Read related papers by:
Douglas
Bell et al., David
Brailer, and W.
Ed Hammond.
DOI: 10.1377/hlthaff.W4.321
©2004 Project HOPEThe People-to-People Health Foundation, Inc.
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