HINF 510 Week 3 Key Design Elements for a Clinical Information System Example

Reviewed by Lenora Whitcombe, MSN, RN · University of Phoenix · Updated

This HINF 510 Week 3 example determines the key design elements of a clinical information system, using a design matrix for the new record that a composite group of 14 community health centers is building after the assessment in the previous paper. The third week of University of Phoenix HINF 510 turns to the design decisions that most affect whether a clinical system helps or hinders care, and HINF/510 MHA students usually compare design options for documentation, decision support, orders, security and reporting and justify their choices. The APA 7 paper sets out eight design elements, the options considered for each, the decision and the evidence behind it. Research showing that outpatient notes grew 60% in a decade, mostly from templated and copied text, shapes the documentation design. Reviews of decision support features and alert override rates guide the alert strategy.

CourseHINF 510 The Systems Life Cycle (HINF/510)
Week3
Paper typeSystem design paper
Lengthabout 1,167 words, 4 double-spaced pages plus title page and references
FormatAPA 7 student paper
SchoolUniversity of Phoenix
ProgramMHA
UpdatedSeptember 2026

Free sample paper for HINF 510 Week 3

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Shorter Notes, Fewer but Better Alerts and One Medication List: A Design Matrix for a Health Center Network's New Electronic Record

[Student Name]

University of Phoenix

HINF/510: The Systems Life Cycle

Week 3 Assignment

[Instructor Name]

[Date]

The health center network, its design choices and data are composites written for a model paper; research findings come from the sources listed.

What this part is doingThe title names three design goals in plain words, so clinicians reading it know what the design promises them.
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When the design sessions for the health centers' new record began, a family physician asked for fewer pop-up alerts and the quality director asked for more reminders to raise cancer screening rates. Both were right. The session made clear that design decisions, not the software itself, would determine whether the new record helped or hindered care. This paper sets out eight key design elements, the options considered for each and the decisions made, in the form of a design matrix.

How Decisions Were Made

Each element was decided by a design group of clinicians, analysts and the vendor's consultant, using the nine requirements from the systems assessment, research evidence and testing with users. The three clinical chiefs, for medicine, dentistry and behavioral health, signed off on the final matrix.

Element One: The Shared Clinical Record

Options: separate modules for medical, dental and behavioral health linked by interfaces, or one record with shared lists. Decision: one record with shared medication, allergy and problem lists visible to all three disciplines, with discipline-specific note types. Rationale: the assessment found split records caused duplicate prescribing, and integrated care is the network's model.

What this part is doingStarting with the shared record connects the design directly to the patient whose story was split three ways in the assessment.
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Element Two: Documentation Templates

Options: comprehensive templates that capture every possible finding, or short problem-based templates with free text. Decision: short templates organized by the patient's problems, with limited auto-inserted data and no copy-forward of whole notes. Rationale: in a study of 2.7 million outpatient notes at one academic center, median note length grew 60.1%, from 401 words in 2009 to 642 in 2018, redundancy rose, and in the final year fewer than a third of the words in a typical note had been typed fresh by its author, with the remainder templated or copied (Rule et al., 2021). Longer notes take longer to write and to read, and redundant text hides what matters.

Element Three: Clinical Decision Support

Options: activate the vendor's full library of alerts, or build a small set of targeted interventions. Decision: a small, targeted set. Rationale: a systematic review of 70 trials found decision support improved practice in 68% of them, and 30 of 32 systems with four features improved practice: support provided automatically within the workflow, recommendations rather than just assessments, support delivered at the moment and location where the clinician decides and computer-based delivery (Kawamoto et al., 2005). The screening reminders the quality director wanted will appear as a list in the visit's opening screen and as orders ready to sign, not as interruptive pop-ups.

Element Four: Drug Safety Alerts

Options: all vendor drug interaction alerts, or a tiered set. Decision: interruptive alerts only for severe interactions, allergies with documented severe reactions and dose errors, with less serious interactions shown passively. Rationale: a review of 17 studies found that between roughly half and nearly all drug safety alerts were overridden, frequently with good reason, because many alerts have low specificity and disrupt workflow (van der Sijs et al., 2006). Every unnecessary alert teaches clinicians to click past the next one, including the one that matters. Override rates will be monitored and alerts with high override rates reviewed quarterly.

Element Five: Order Sets

Options: individual orders only, or standard order sets. Decision: 24 order sets for common conditions and visits, such as diabetes follow-up, prenatal intake and medication-assisted treatment, built from current guidelines and reviewed by specialty leads. Rationale: order sets speed common work and embed evidence, while individual orders remain available.

Element Six: Security Roles and Sensitive Records

Options: broad access for all clinical staff, or role-based access with segmentation. Decision: role-based access, with records from the substance use disorder program labeled, visible to the treating team and shared outside it only with documented patient consent. Access to the records of staff members who are also patients is flagged and audited. Rationale: federal rules for such records and the privacy principle of minimum necessary access.

What this part is doingPairing role-based access with auditing shows that security design includes detecting misuse, not only preventing it.
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Element Seven: Patient Portal

Options: a basic portal for results and messages, or a full portal with scheduling, forms, payments and proxy access. Decision: full portal in English and Spanish, with mobile access, self-scheduling for routine visits, proxy access for caregivers and results released automatically except for sensitive results that a clinician should discuss first. Rationale: portal activation was 22%, and the network's patients rely heavily on phones.

Element Eight: Registries and Reporting

Options: export data to the existing population health tool, or use the record's built-in registries. Decision: built-in registries for diabetes, hypertension, depression, prenatal care and cancer screening, with automated federal health center program reports. Rationale: retiring the separate tool removes a fragile interface and gives care teams daily lists instead of monthly reports.

Resolving the Opening Disagreement

The physician and the quality director were both satisfied by the same principle: fewer interruptions, better placed support. Screening reminders moved from pop-ups to a care gaps list on the visit's opening screen, with pended orders the physician can sign in one step and a standing order protocol that lets medical assistants order routine screenings before the clinician enters the room. The quality director gained more screenings completed; the physician gained fewer interruptions. The design group adopted this as a rule for all decision support: put the right action in front of the right person at the right step, and interrupt only for danger.

Designing for Medical Assistants and Front-Desk Staff

Design often focuses on physicians, but medical assistants, nurses and front-desk staff perform much of the work in a health center. The design group included two medical assistants and a front-desk lead, who shaped rooming templates, intake questionnaires on tablets and a registration screen that captures sliding-fee eligibility, preferred language and social needs in one pass instead of three.

Downtime Design

Every design includes a plan for when the system is unavailable: printed schedules, read-only access to recent records on a protected workstation at each clinic and paper forms matching the templates, with a process for entering data after recovery. Downtime design will be tested before go-live.

Testing the Design With Users

Before build is final, clinicians from each discipline will run 20 scripted scenarios in the test system, timing tasks such as a diabetes visit note and a medication refill and recording confusion or errors. Designs that take longer than the old system for common tasks will be revised.

Measuring the Design After Go-Live

The network will track note length and share of typed text, time spent in the record per visit and after hours, alert override rates, order set use, screening rates, portal activation and safety events related to the record.

Conclusion

The new record's value will depend on eight design decisions: one shared record, short notes, a few well-designed decision support tools, tiered drug alerts, order sets, role-based access with protection for sensitive records, a full portal and built-in registries. Research on note length, decision support features and alert overrides guided the choices, and testing with clinicians before go-live will check them.

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References

Kawamoto, K., Houlihan, C. A., Balas, E. A., & Lobach, D. F. (2005). Improving clinical practice using clinical decision support systems: A systematic review of trials to identify features critical to success. BMJ, 330(7494), 765. https://doi.org/10.1136/bmj.38398.500764.8F

Rule, A., Bedrick, S., Chiang, M. F., & Hribar, M. R. (2021). Length and redundancy of outpatient progress notes across a decade at an academic medical center. JAMA Network Open, 4(7), e2115334. https://doi.org/10.1001/jamanetworkopen.2021.15334

van der Sijs, H., Aarts, J., Vulto, A., & Berg, M. (2006). Overriding of drug safety alerts in computerized physician order entry. Journal of the American Medical Informatics Association, 13(2), 138-147. https://doi.org/10.1197/jamia.M1809

What the HINF 510 Week 3 instructions ask

HINF 510 Week 3 typically asks students to determine the key elements of a clinical information system design, sometimes in a matrix comparing options for an EMR implementation. Students may be asked to identify design elements such as documentation, order entry, decision support, security, interfaces and reporting, compare options for each, choose and justify a design and explain how design supports safety, efficiency and user acceptance. Strong papers organize choices clearly, tie each decision to evidence or requirements from earlier analysis, involve clinicians in decisions, address known design problems such as alert fatigue and note bloat and explain how the design will be tested before go-live.

How this HINF 510 Week 3 example is built

The paper opens with a design session where a physician asks for fewer alerts and the quality director asks for more. Eight design elements follow in matrix form, each with options, a decision and a rationale. A study of 2.7 million notes showing median length rising from 401 to 642 words shapes short, problem-based templates. A review of 70 trials identifying four features of effective decision support, and findings that clinicians override 49% to 96% of drug alerts, lead to a small set of targeted alerts. Security roles, sensitive record segmentation, order sets, the portal, registries and downtime design complete the matrix, followed by scripted user testing and eight measures for after go-live.

HINF 510 Week 3 grading rubric: where the points go

The design week is generally graded on whether design choices are clear, justified and connected to the organization's needs. Instructors look for identification of key design elements, comparison of options, decisions tied to requirements and evidence, attention to safety and usability problems such as alert fatigue and plans for clinician involvement and testing. A matrix or table makes comparisons easy to follow, and showing rejected options demonstrates that choices were real. Research on decision support and documentation adds depth. Organization and APA formatting make up the rest, and design papers that list features of a vendor's product without making design decisions, or ignore usability, typically lose points.

HINF 510 Week 3 help: mistakes to avoid

A frequent weakness in HINF 510 Week 3 is describing what a system can do rather than deciding how it should be designed. For each element, list realistic options, choose one and say why, citing requirements from your assessment or research. Pay attention to alerts: more is not safer, because clinicians override most of them. Design documentation to be short and useful, since templated and copied text inflates notes. Include security roles and handling of sensitive records. Involve clinicians in each decision and test designs with them before go-live. Finally, plan how you will measure whether the design works, such as alert override rates and time in notes, and who will review the results.

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HINF 510 Week 3 questions, answered

What does HINF/510 Week 3 usually ask for?

Prompts usually ask students to determine key design elements for a clinical information system, often in a matrix comparing options for documentation, orders, decision support, security and reporting.

Where can I find a free HINF 510 Week 3 sample paper?

The design matrix paper for a health center network's new record is posted above for free reading; margin comments explain each decision. Share your own system and prompt, and the first paper is free.

What makes clinical decision support effective?

A review of 70 trials found four independent predictors of success: support delivered automatically in the workflow, recommendations rather than just assessments, support at the time and place of decision and computer-based delivery.

How often do clinicians override drug alerts?

A review of 17 studies found that clinicians overrode drug safety alerts in 49% to 96% of cases, often for good reason, pointing to alerts with low specificity.

Why are electronic notes getting longer?

A study of 2.7 million outpatient notes found median length rose 60% from 2009 to 2018, and by 2018 about 70% of note text was templated or copied rather than typed.

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