| Course | CIS 450 Informatics in Healthcare |
|---|---|
| Module | Module 7 |
| Paper type | System evaluation paper |
| Length | About 1,028 words, 6 pages |
| Format | APA 7 student paper |
| School | Aspen University |
| Program | Health Care Administration |
| Updated | September 2026 |
Free sample paper for CIS 450 Module 7
Does the Scanner Keep Patients Safe? Evaluating Bar-Code Medication Administration on One Unit
Student Name
Health Care Administration Program, Aspen University
CIS 450: Informatics in Healthcare
Instructor Name
Month Day, Year
Does the Scanner Keep Patients Safe? Evaluating Bar-Code Medication Administration on One Unit
Installing a health information system is only the beginning; evaluating whether it achieves its purpose is essential. This paper evaluates bar-code medication administration on a composite hospital's surgical unit one year after go-live, using a sociotechnical framework and several data sources, and recommends improvements.
The System
With bar-code administration, a nurse scans the wristband and then every dose before anything reaches the patient. The system checks the scan against the electronic medication administration record and alerts the nurse to the wrong patient, drug, dose, route or time. The hospital implemented it to reduce administration errors.
What the Evidence Predicts
A landmark study of bar-code medication administration with an electronic medication administration record in a large academic hospital found that nontiming administration errors dropped from about 12 to about 7 per 100 observed doses, and potential drug harms from those errors roughly halved (Poon et al., 2010). The unit's leaders hoped for similar gains.
Evaluation Framework
Sittig and Singh's eight-part sociotechnical model gave the evaluation its structure, covering technology, content, interface, staff, workflow, internal policy, outside rules and measurement (Sittig & Singh, 2010). This framework directs attention beyond whether the scanner works to whether the whole system supports safe administration.
Data Sources
The evaluator reviewed scan compliance reports for 12 months, observed 200 medication administrations across shifts, analyzed override reasons, surveyed 32 unit nurses and reviewed medication error reports before and after go-live.
Findings
The table summarizes key findings by dimension.
| Dimension | Finding |
|---|---|
| Hardware and software | Two of eight scanners failed often; wireless dead zone in one hallway |
| Clinical content | Some drugs from pharmacy lacked scannable barcodes |
| Interface | Alerts for early doses fired too often |
| People | Night staff less trained; float nurses unfamiliar |
| Workflow | Medications prepared for several patients at once |
| Organizational policy | Override policy unclear; no feedback on compliance |
| External rules | Accreditation expectations met on paper |
| Measurement | Scan compliance 91% for patients, 84% for medications |
Observed Errors
Among 200 observed administrations, the evaluator noted 9 nontiming errors, a rate of 4.5%, lower than the pre-implementation audit's 10% but with three errors occurring when medications were scanned after, rather than before, administration. The unit's error reports showed fewer wrong-patient and wrong-dose events than the year before go-live.
Workarounds
Nurses described workarounds: scanning a barcode taped to the medication cart instead of the patient's wristband when the wristband was hard to reach, and scanning after giving medications during busy periods. Workarounds usually arise from system and workflow problems, such as failing scanners and dead zones, and they undermine the safety the system is meant to provide.
Acceptance
Survey results showed that 78% of nurses believed the system improved safety, but only 44% found it easy to use during busy periods. The technology acceptance model helps explain the pattern: nurses saw the system as useful but not easy, and difficulty drove workarounds (Holden & Karsh, 2010).
Comparison With the Trial
The unit's error reduction was meaningful but smaller than in the landmark trial. Differences likely reflect lower medication scan compliance, hardware problems and workarounds. The comparison suggests that the unit has not yet achieved the system's full potential.
Recommendations
The evaluator recommended replacing failing scanners and fixing the wireless dead zone; working with pharmacy to barcode all dispensed medications; tuning early-dose alerts; clarifying the override policy and requiring a reason for each override; training night and float staff; posting monthly scan compliance by shift; and redesigning medication preparation to one patient at a time.
Follow-Up Plan
The unit will repeat observations and surveys six months after changes, targeting 95% medication scan compliance and fewer observed nontiming errors. Monthly compliance reports will continue, and override reasons will be reviewed quarterly.
Lessons for Evaluation
Evaluating a system requires several data sources: automated reports show compliance but not why it falls short; observation reveals workarounds; surveys capture perceptions; error reports show outcomes. A sociotechnical framework ensures that technical, human and organizational factors are all examined.
Costs of the System
The evaluation also considered costs: scanners, wireless upgrades, pharmacy barcoding, training and informatics time. Estimating the costs of preventable adverse drug events avoided helped leaders see that fixing the unit's problems was worth the investment. Evaluations that include costs are more persuasive to administrators.
Engaging Front-Line Staff
The evaluator shared preliminary findings with nurses before finalizing recommendations. Nurses added that barcode labels on some intravenous bags smudged, which explained scan failures the reports had not. Involving the people who use the system improves both the accuracy of the evaluation and support for changes.
Patient Perspective
Patients noticed the scanning. Some found it reassuring; a few found the wristband scans during sleep disruptive. The unit began bundling night medications to reduce awakenings and explained the purpose of scanning at admission, turning a safety process into a visible sign of care.
Data Limitations
Each data source had limits. Compliance reports count scans but cannot show whether a scan preceded administration. Observation may change behavior while observers are present. Surveys reflect perception, and error reports undercount events. Combining sources compensates for these limits, and the report states them plainly.
Linking to Organizational Goals
The evaluation tied its recommendations to the hospital's medication safety goals and accreditation priorities. Framing technical fixes in terms of organizational goals helped the evaluator secure budget for scanners and pharmacy labeling that might otherwise have waited.
Timing of Evaluation
Evaluating one year after go-live allowed initial learning curves to settle while habits were still changeable. Evaluations too early may measure inexperience, and evaluations too late may find workarounds deeply entrenched.
Sharing Results
The evaluator presented findings to the unit, the nursing leadership council and the medication safety committee, tailoring each presentation to the audience's decisions. Sharing results widely built support and let other units apply the lessons before their own problems grew.
Conclusion
One year after go-live, bar-code medication administration had reduced errors on the surgical unit but less than a landmark trial achieved. A sociotechnical evaluation traced the gap to hardware failures, unbarcoded medications, alert fatigue, training gaps, workflow habits and unclear policy, which produced workarounds. Targeted fixes and ongoing measurement offer a path to the system's full safety benefit.
References
Holden, R. J., & Karsh, B.-T. (2010). The technology acceptance model: Its past and its future in health care. Journal of Biomedical Informatics, 43(1), 159-172. https://doi.org/10.1016/j.jbi.2009.07.002
Poon, E. G., Keohane, C. A., Yoon, C. S., Ditmore, M., Bane, A., Levtzion-Korach, O., Moniz, T., Rothschild, J. M., Kachalia, A. B., Hayes, J., Churchill, W. W., Lipsitz, S., Whittemore, A. D., Bates, D. W., & Gandhi, T. K. (2010). Effect of bar-code technology on the safety of medication administration. New England Journal of Medicine, 362(18), 1698-1707. https://doi.org/10.1056/NEJMsa0907115
Sittig, D. F., & Singh, H. (2010). A new sociotechnical model for studying health information technology in complex adaptive healthcare systems. Quality and Safety in Health Care, 19(Suppl. 3), i68-i74. https://doi.org/10.1136/qshc.2010.042085
Reading the CIS 450 Module 7 assignment instructions
Aspen's CIS 450 description covers information systems in a variety of settings, and because the classroom holds the module's exact wording, evaluating one system in one setting was chosen for this example. Evaluation assignments usually ask you to choose a system, apply an evaluation framework, gather or describe evidence and recommend improvements. Check whether your prompt names a framework. Use several data sources, since each shows something the others miss. Compare local results with published benchmarks. Make recommendations specific and tied to findings, and plan a follow-up evaluation so improvement can be measured. State the limits of each data source so readers know how much to trust the findings.
How the CIS 450 Module 7 example is put together
About 1,040 words fill twenty-one headings here, including an eight-row findings table. It describes the system, the benchmark trial, the sociotechnical framework and data sources. The findings table follows, then observed errors, workarounds, acceptance, comparison with the trial, recommendations, follow-up and lessons for evaluation. Costs of the system, engaging front-line staff, patient perspective, data limitations, linking to organizational goals, timing of evaluation and sharing results close the body. A note beside the trial section explains why a benchmark matters for judging local results. Recommendations follow the order of the findings table, making it easy to see which problem each change addresses. Costs and patient perspective follow the recommendations.
Where the marks sit in the CIS 450 Module 7 rubric
System evaluations tend to be graded on use of a framework, quality and variety of evidence, balanced findings and actionable recommendations. The sociotechnical model is applied across all eight dimensions. Evidence combines reports, observation, surveys and error data, with limitations stated. Findings are balanced, noting real gains alongside gaps. Recommendations are specific and linked to causes. The landmark trial and theory sources carry APA references. Evaluations also score well for cost analysis and front-line input, both included, because they show how an evaluation leads to funded change. Stated data limitations show honesty about what the evaluation can and cannot prove. Linking recommendations to organizational goals shows how evaluation earns support and budget. Attention to patients' experience of scanning adds a human dimension.
Common CIS 450 Module 7 mistakes, and how to avoid them
Students often evaluate a system using only one source, such as vendor reports. Combine several. Another common gap is describing problems without causes; the framework helps find them. Some papers also recommend replacing a system when targeted fixes would work. Plan a follow-up measurement. If you would like help choosing an evaluation framework, one of our tutors can talk through your system with you and suggest which model fits. Tie recommendations to organizational goals so leaders see why they matter. Share findings with front-line staff before finalizing, since they often explain what the data cannot. Mention patients' experience of the system. State the limits of every data source and choose a sensible time after go-live for the evaluation.
Write yours, or have the desk draft it
This paper is an original model document written by our desk, not a submitted student paper and not an official Aspen University document. Read it for the moves, then write your own to the instructions in your classroom. If you want one built to your exact prompt and rubric, the first custom sample is free and arrives in 24 to 48 hours.
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CIS 450 Module 7 questions, answered
What does CIS 450 Module 7 usually ask for?
Aspen's CIS 450 description covers information systems in health care settings, so evaluating one system in one setting is a typical assignment. Follow your Aspen classroom prompt.
How much can bar-code medication administration reduce errors?
A landmark study found a 41.4% relative reduction in nontiming administration errors when bar-code technology was used.
Why do workarounds happen?
Usually because of system or workflow problems, such as failing equipment or time pressure, that make the intended process hard to follow.
Where can I find a free CIS 450 Module 7 sample paper?
The bar-code evaluation, findings table and recommendations included, is posted above. It is the seventh CIS 450 sample.
What is a workaround in CIS 450 Module 7?
An improvised shortcut around the system's intended steps, such as scanning a copied barcode instead of the patient's wristband.