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(1)

Computerized

Physician

Order Entry

(CPOE) Project

HINF4519

Team Omega Members:

Alan Soskel, Captain

Myra Rodgers

Annette Baker

(2)

Computerized

Physician

Order Entry

(CPOE) Project

SUMMARY &

ANALYSIS

(3)

Ohio State University Health System

OSUHS A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S A/P/S The OSU Hospitals OSU and Harding Behavioral Healthcare and Medicine

The OSU Hospitals East The Arthur G. James Cancer Hospital and Richard J. Solove Research

Institute

Quick Facts

• 800,000 patient visits/year

• 6000 employees

• 950 physicians

• 500 residents

• 850 medical students

• Up to 90,000 CPOE orders monthly

A/P/S – Ambulatory, Primary and Specialty Care Offices

(4)

Initiatives Towards EHR

Board began initiatives towards an EHR in the 1970s:

1970’s and 1980’s – ancillary systems and IS infrastructure put in place

towards EHR implementation

Early 1990’s - strategic vision for a computerized patient record (CPR) was

established. Implementation of CPOE seen as key element of CPR

1

1990 - Deployed Clinical Information System (CIS)

(5)

1980s

• Ethernet network

• Health Level 7 (HL7) format for clinical information

• Electronic document transmission enabled by interface engine

1990s

• Single front-end Clinical Information System (CIS) • Siemens CPOE system and lifetime clinical record (LCR)

2000s

• Deployment for CPOE system

• Electronic discharge instruction (EDI) • Patient scheduling system

• Outpatient registration and billing system and electronic signature system • Information warehouse for clinical and financial data access

2010s

• Installation of Siemens Soarian suite

(6)

Measures of Success

Development of a portable and scalable system that could

be implemented across diverse and physically distinct

clinical environments

Identification of the physician as the primary user, and

customization of the system to meet physicians' needs

(7)

5 Phases of CPOE Implementation

Needs analysis and clinical system selection

System analysis and design

System modification

Initial system implementation

(8)

Needs Analysis and Clinical System Selection

Initial Assessment

Physician Order Entry System Requirements

1

:

1. Easy maintenance of the system.

2. Capable of supporting advancing technologies and migration paths.

3. All order requirements met for the patients' medical records.

4. Stability and intuitive use.

5. Business, clinical and ancillary system interfaces.

6. Implementation support of best practice and clinical practice guidelines.

7. Easily expanded system for a variety of clinical users and environments.

(9)

Needs Analysis and Clinical System Selection

Vendor Selection

Why Siemens Chosen as CPOE Vendor:

Integrated with in-house CPR

components

Served inpatient and ambulatory

environments

Graphical user interface

(10)

System Analysis

and Design

Physician Consultant Team •Specialties Represented: •Emergency Medicine •Oncology •Gynecology •Pulmonary •Cardiology •Surgical Oncology •Surgical Transplant •Pathology •Radiology •General Medicine Clinical Staff •Laboratory •Pharmacy •Nursing •Respiratory Therapy •Radiology Information Systems Department •Responded to clinical recommendations by: •Rapid application development principles •Prototype approval •Pathway design for review

(11)

System Analysis

and Design

Physician Centered Design

Physician

Centered

All orders are electronic.

All orders are physician

orders.

Order sets are designed by

physician shadowing. Physician

feedback and participation

led to successful

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System Modification

Alerts for

Patient

Allergies

Alerts for

Drug

Interaction

Drug Route

Restriction

Weight-based

Dosing

Order

Duplicate

Checking

(13)

Initial Implementation

Pilot Studies

February through October, 1998

Check of System Functionality

February 15, 2000

(14)

Complete System Deployment

Initial Deployment

Complete Implementation

By April, 2001, Go Live at

The University Hospital

Dodd Hall Rehabilitation Hospital

April 4, 2000 – Go Live Date

(15)

Clinical Improvements after CPOE Implementation

Patient Safety Measures

Reduced errors in medication orders

Improved medication delivery

Reduced laboratory report time

Reduced radiology report time

Continuity of Care Measures

Improved discharge instructions

Financial Measures

Expedited billing processes

Reduced cost in printing forms

Continuous Quality Improvement

Measures

Before CPOE After CPOE

Transcription

Errors 26.2% 0%

Medication

Delivery 5:28 1:51

Radiology

Completion 7:37 4:21

Lab Results

Reporting 31.3 min. 23.4 min.

Counter-signature at Discharge

(16)

Key Success Factors for CPOE Implementation

Mu

ltidiscipli

nar

y

Multidisciplinary

Committee

• Development of comprehensive protocols and tools • Development of

widely accepted protocols and tools

Sof

tw

are

Software

Integration

• Data from CIS easily integrated • Graphical user

permits graphing and trending results

• Data dictionary permits shared information

R

ollou

t

Rapid

Deployment

• Maximal Physician Utilization

• High Scalability and Portability

(17)

Computerized

Physician

Order Entry

(CPOE) Project

(18)

Strategic IS Planning

▪ Board began initiatives towards an EHR in the 1970s:

▪ 1970’s and 1980’s – ancillary systems and IS infrastructure put in place towards EHR implementation

▪ Early 1990’s - strategic vision for a computerized patient record (CPR) was established. Implementation of CPOE seen as key element of CPR1

▪ 1990 - Deployed Clinical Information System (CIS)

▪ A similar comprehensive integrated health care delivery system, Adventist Health System, spent 4 years migrating all of its hospitals to the same core clinical system.7

▪ Board provided funding for CPOE1 in early 1990s

Grade:

A

▪ Advance organizational and IT strategic planning was not directly discussed in this case study. However it is evident that strategic planning was conducted.

▪ OSUHS had an EHR philosophy and stated goal.

▪ EHR goal: “enhance quality and efficiency of patient care by providing a lifetime of complete patient information – available across time and place – with safeguards for patient privacy and support for teaching and clinical research”9

(19)

SDLC stage 1. System Planning

▪ Correct project planning structure in place:

▪ Information Systems Steering Committee

▪ Task Force Subcommittee

▪ Multidisciplinary project team, physician consultants

▪ Excellent system planning occurred:

▪ Defined specific goals, Analyzed and identified user needs and concerns, Established selection criteria, Conducted clinician surveys and

interviews, Performed workflow analysis, Assembled list of CPOE requirements1

▪ Recommendation made to move forward with selection of vendor-based solution1

▪ Recommendations also made for future phases of the project1

• Recommended that physicians be the primary users of CPOE, with all subsequent decisions driven by this

premise1

• Heavy physician focus. Best ROI would occur if physicians interacted directly with the system.

• Patient-safety focused strategies support the physician as the primary user of the CPOE system and are felt to

positively influence physician acceptance

• Developed three measurement criteria for successful CPOE implementation

• Broad system deployment across diverse clinical environments

• Physicians as primary users

(20)

SDLC stage 1. System Planning, continued

▪ It is interpreted from the case study that change management was acknowledged early on as a key factor and CSFs were identified. Based on the literature, the three top CSFs have been identified as:

▪ 1) the “before go-live training”;

▪ 2) adequate clinical resources during implementation; and

▪ 3) the time needed for physicians to enter orders into CPOE.4

▪ These CSFs, and several more, were addressed during the system planning, design and implementation stages of this project.

▪ The only blemish regarding system planning had to do with flawed resource allocation and project scheduling:

▪ Project stopped for 14 months as the IT department had to divert resources to prepare systems for Year 2000

(21)

SDLC stage 2. System Analysis

Phase 1 - Preliminary investigation

▪ Case study does not discuss

preliminary investigation activities.

▪ According to the literature it is

generally accepted in the healthcare industry that the patient care, quality and standardization benefits of

CPOE have already been well documented and accepted.

Therefore preliminary investigation activity can be minimal.

Phase 2 – Detailed Analysis

• Existing processes were studied

• Functional needs were assessed

• Committee determined core features

• Excellent physician resources allocated to design and analysis phase:1

• Non-physician clinical personnel assigned to project full-time

• Formalized physician consultant team established and empowered to approve system design and policies

• Validation from other physicians, particularly house staff, was sought

• Efforts to standardize practices and policies across the enterprise became an integral part of the CPOE project1

• Determined that advance creation of order sets were necessary to facilitate physician utilization and promote clinical standardization1

(22)

SDLC stage 3. System Design

Phase 1 – System design

▪ System design was adequately done.

▪ Customer requirements were converted into system specs

▪ Decision made to purchase vendor CPOE with integration to existing ancillary systems

Phase 2 – System evaluation

▪ Proper system evaluation activities were conducted. This included:

▪ Committee designed the selection process

▪ Committee developed the evaluation tools

▪ Committee discussed benefits of CPOE during development of RFP

▪ Committee approved contents of RFP

Phase 3 – System selection

▪ Proper system selection activities were conducted. This included:

▪ Final RFP development

▪ Demos

▪ Site visits

▪ User interviews

▪ System comparisons to key attributes

▪ This stage was also used to identify CSFs via interviews with CPOE system users

(23)

SDLC stage 3. System Design, continued

Phase 4 - Design of CPOE prototype:

▪ It is important to standardize as many

elements of the system and resulting work processes as possible across different

environments.2 Understanding current-state

workflows and redesigning inefficient processes are critical steps to ensuring successful adoption of CPOE. CPOE is a disruptive technology that fundamentally changes the processes used to place, review, authorize, and carry out orders.3

▪ To accomplish this Task Force subcommittee embarked on customizing the vendor system based on Physician consultant team

recommendations and results of extensive workflow analysis.

▪ Design of the CPOE prototype involved adapting and customizing the selected

system. This was needed to integrate design specs recommended by physician consultant team.1 This included:

▪ Foundation order elements

▪ Order work flow

▪ Screen design

▪ User interface consistency across all departments

▪ Decision support tools such as order defaults, best-practice order sets and clinical rules.

▪ A critical foundation for CPOE is the rapid development of order sets prior to

deployment. A solid development plan must be built based on clinician workflow.8

(24)

SDLC stage 3. System Design, continued

Phase 4 - Design of CPOE prototype, ctd.:

▪ Development of order sets was approached in a systematic fashion for all departments. In fact it became policy not to implement CPOE system on a nursing unit serving a particular specialty until the necessary order sets had been developed and coded for use. Over 450 standardized order sets were created.2

▪ Each ancillary department had to ensure that order sets were created for all their common orders. “This reengineering was achieved by order pathway and order set development through faculty consensus and strong

registered nurse informatics capability with full time RN’s working in the IS department to translate the clinical requirements into

electronic format.”6

▪ The Task Force and physician consultant team reviewed all orderable services in order to

automate workflow all the way through the ancillary departments.6

▪ Screen design and user interfaces were developed to be as consistent and

standardized as possible.

(25)

SDLC stage 4. Implementation

▪ Project implementation plan was excellent.

▪ Project success was assured because CSFs were identified in advance and plans executed to implement those factors. By involving

physicians at all levels throughout the process and emphasizing the correlation between

CPOE and improved patient care and safety, outstanding physician buy-in and participation was achieved.

▪ Continuous, frequent training and retraining are critical to the success of inpatient CPOE initiatives3. Therefore multiple training and

support programs were implemented, including the use of “red-coats” and super-users. In addition, permanent clinical support positions were created. An effective campaign of change management was implemented.

▪ Keys to project success were: the focus on the physician as the primary user; the intense

concentration on physician participation on all levels; and the advance creation of order sets during system design.

▪ There was an effective pilot program initiated to validate system design stability and further system enhancements and process

improvements. This was similar to Adventist Health System which used pilots to test and build methodology needed for CPOE rollout to the other hospitals and units.7

(26)

SDLC stage 4. Implementation, continued

▪ Implementation included a phased install in different areas of the hospitals. “100% of orderable services were available at the time of each of these installs. All medications, imaging studies, nursing activities, diets, consults, and labs were orderable

electronically at the time of CPOE rollout.”6

▪ Based on studies from the Leapfrog Group2,

the implementation time period was longer than the implementation time for similar healthcare organizations (12 to 30 months). This was attributable to the upfront work in systems design to create standardized order sets - the “first two years of implementation were focused on system programming to meet comprehensive physician workflow requirements. This time was necessary to develop a product that was acceptable for physician use.”1

▪ Similarly, Adventist Health System, prior to CPOE implementation, invested more than two years in development of evidence- and expert-based content based around order sets.7

▪ It is believed that this extra time was well spent as it led to smoother implementation where physicians and clinicians were able to immediately realize the potential for improvements in patient care and safety

Grade:

A-

▪ There was no mention of CPOE-themed kickoff events that are recommended as part of change management.

▪ This, along with the lengthy

implementation period, are two items that affected their grade.

(27)

SDLC stage 5. System Support

▪ System requests and feedback were solicited from users in a variety of ways. These

included help-desk phone calls, conversations with red coats, e-mail, intranet forms,

communication with IS staff, and multiple meetings.

▪ Support requests were monitored. There was a decline in user modification and

enhancement requests since implementation.

▪ Types of requests were tracked. None required significant changes to the system.

▪ There was no mention of a CQI program.

▪ Operational and maintenance costs were not discussed.

▪ Cost savings from process improvements and physician time were not evaluated.6

Grade: B

User requests for enhancements and

modifications. 1 Number of tickets (y

axix) vs. Months gone by (x axis)

(28)

References

1. Ahmad, A., Teater, P., Bentley, T.D., Kuehn, L., Kumar, R.R., Thomas, A., & Mekhjian, H.S. (2002). Key attributes of a successful physician order entry system implementation in a multi-hospital environment.

Journal of the American Medical Informatics Association, Jan-Feb; 9(1), pp.16–24.

http://www.ncbi.nlm.nih.gov/pmc/articles/PMC349384/

2. First Consulting Group, Leapfrog Group. (2003). Computerized physician order entry: Cost, benefits and challenges; A case study approach. Retrieved from http://www.leapfroggroup.org/media/file/Leapfrog-AHA_FAH_CPOE_Report.pdf

3. U.S. Department of Health and Human Services, Agency for Healthcare Research and Quality, National Resource Center for Health Information Technology. (2009). Inpatient computerized provider order entry (CPOE), findings from the AHRQ Health IT Portfolio (AHRQ Publication No. 09-0031-EF). Retrieved from

http://healthit.ahrq.gov/images/jan09cpoereport/cpoe_issue_paper.htm

4. Altuwaijri, M.M., Bahanshal, A., & Almehaid, M. (2011). Implementation of computerized physician order entry in National Guard hospitals: Assessment of critical success factors. Journal of Family & Community Medicine, Sep-Dec; 18(3), 143–151. doi: 10.4103/2230-8229.90014.

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References, continued

5. Not used.

6. Ahmad, A., Rucker, D.W., & Teater, P. (2002) Implementing end-to-end computerized physician order entry. Proceedings of the 2002 Annual HIMSS Conference & Exposition, Session 109. Retrieved from

http://www.himss.org/files/HIMSSorg/content/files/proceedings/2002/sessions/ses109.pdf

7. Prestigiacomo, J. (2011). Automating CPOE success: How Adventist Health System systemized its CPOE rollout in 26 hospitals over 28 months. Healthcare Informatics, Nov. issue. Retrieved from

http://www.healthcare-informatics.com/article/automating-cpoe-success

8. Fear, F. (2011). Governance first, technology second to effective CPOE deployment. Health Management Technology, Aug. issue. Retrieved from http://www.healthmgttech.com/articles/201108/governance-first-technology-second-to-effective-cpoe-deployment.php

9. Curtis, E.H., (2004). Studies in EHR implementation: Computerized physician order entry. AHIMA On Demand series. Retrieved from HINF4519 Systems Design & Implementation D2L course content.

References

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