| Course | HI540 Project Management of Health Information Systems |
|---|---|
| Unit | Unit 7 |
| Paper type | Risk register |
| Length | About 1,150 words, 7 pages double-spaced |
| Format | APA 7 student paper |
| School | Purdue University Global |
| Program | MS in Health Informatics |
| Updated | October 2026 |
Free sample paper for HI540 Unit 7
A Trigger on Every Line: A Unit 7 Risk Register for a Perioperative Rollout, Tied to the Critical Path and the Contingency
[Student Name]
Purdue University Global
HI540: Project Management of Health Information Systems
Unit 7 Risk Register
[Instructor Name]
[Date]
Ashby Valley Health, its risks and every estimate are composite; the sources cited are real.
Scales
Probability is rated in five bands: very low, under 10 percent; low, 10 to 29 percent; medium, 30 to 49 percent; high, 50 to 69 percent; and very high, 70 percent or more. Impact is stated in two units rather than one rating: working days of delay to either go-live, and dollars. Stating impact in days lets each risk be compared with the float shown in the Unit 5 schedule, and stating it in dollars lets the register test the contingency. Exposure for sorting is the midpoint probability multiplied by dollar impact. Each risk is written as cause, event and effect, so the team can see what to watch and what to protect. The project management guide treats a risk as an uncertain event that, if it occurs, has an effect on objectives, and asks that responses be assigned to an owner able to carry them out (Project Management Institute, 2021).
The Register, Sorted by Exposure
1. R-04. Because orthopedic surgeons have heard validation takes hours, they may not validate about 1,100 cards on time, delaying card load and wave 1. Package 3.1.3; card chain, zero float. Probability medium. Impact 15 days, 140,000 dollars. Owner: orthopedics section chief. Trigger: fewer than half the orthopedic cards validated at the midpoint of the validation window. Response: validation sessions inside block time with a nurse reading each card aloud. Fallback: the perioperative informatics nurse validates cards against the last ninety days of case records, with surgeon sign-off by exception.
2. R-09. Because implant item numbers differ between the supply catalog and the charge master, implants may map to wrong charge codes, so revenue is lost or overbilled after go-live. Package 4.2.1; charge chain, zero float. Probability medium. Impact 10 days, 120,000 dollars. Owner: revenue integrity analyst. Trigger: reconciliation mismatch above 1 percent in the dress rehearsal. Response: a full item-by-item review of the 600 most used implants before integrated testing. Fallback: manual charge review of every implant case for the first two weeks.
3. R-11. Because the laboratory upgrade shares the interface analysts, their hours may fall short during integrated testing, delaying the charge chain. Package 4.2.2; charge chain. Probability high if the contract analyst is not approved, low if approved. Impact 9 days, 98,600 dollars. Owner: project sponsor. Trigger: the contract not signed by pay period 8. Response: approve Option B from the resource plan. Fallback: slip wave 1 by nine days.
4. R-07. Because July resident changeover falls fifteen working days after wave 1, new residents may book cases without training, creating scheduling errors. Package 7.2; after go-live. Probability high. Impact 0 days, 30,000 dollars in rework. Owner: surgery residency program director. Trigger: resident schedule released without the booking module in orientation. Response: a forty-minute booking module added to resident orientation.
5. R-02. Because the enterprise vendor publishes releases on a fixed calendar, a mandatory release may land mid-build and force rework. Package 2; both chains. Probability low. Impact 20 days, 160,000 dollars. Owner: application services director. Trigger: the vendor's release calendar showing a mandatory release within the build window. Response: obtain the calendar now and plan the build around it.
6. R-13. Because circulating nurses at two hospitals are not yet engaged, training attendance may be low, raising go-live errors. Package 7.1; near-critical. Probability medium. Impact 4 days, 45,000 dollars. Owner: perioperative nurse managers. Trigger: under 80 percent attendance in the first training week. Response: rescheduled sessions with backfill already budgeted.
7. R-05. Because the scheduler archive vendor is new, the archive may not be readable before decommission. Package 8.4. Probability low. Impact 0 days to go-live, 60,000 dollars. Owner: health information management director. Trigger: failed read test of archived records. Response: a read test at day 150, well before decommission.
8. R-15. Because an unplanned downtime may occur in the first month, implants used on paper may never be back-entered. Package 6.2.2. Probability medium. Impact 0 days, 35,000 dollars. Owner: perioperative informatics nurse. Trigger: any downtime over thirty minutes. Response: the back-entry procedure and a reconciliation check within one shift (Larsen et al., 2018).
The remaining seven threats, rated low or very low with small impacts, cover scanner supply delays, training room conflicts, a surgeon representative's departure, security role errors, workstation mounting delays, data conversion of retired items and anesthesia boundary confusion. Each has the same columns and an owner. Every trigger is something a person can see on a given day, such as a count of validated cards, so a risk is acted on before it becomes an issue.
The Opportunity
O-01. Because the materials team may finish its inventory project early, item master mapping could start sooner, adding float to the charge chain. Owner: materials management director. Response: ask for weekly progress so the mapping can start the day the inventory work ends. Treating upside uncertainty with the same discipline as threats is argued for in the risk literature (Hillson, 2002), and this entry is the register's small attempt at it.
Testing the Contingency
The budget in Unit 6 held 310,000 dollars of contingency provisionally. Expected value for each of the eight largest threats is the midpoint probability times dollar impact, using 40 percent for medium, 60 percent for high and 20 percent for low.
1. R-04: 40 percent of 140,000 is 56,000.
2. R-09: 40 percent of 120,000 is 48,000.
3. R-11: with the contract analyst approved, 20 percent of 98,600 is about 19,700.
4. R-07: 60 percent of 30,000 is 18,000.
5. R-02: 20 percent of 160,000 is 32,000.
6. R-13: 40 percent of 45,000 is 18,000.
7. R-05: 20 percent of 60,000 is 12,000.
8. R-15: 40 percent of 35,000 is 14,000.
The total is about 217,700 dollars. Adding the seven smaller threats at about 3,000 dollars each brings expected exposure near 238,700. The contingency of 310,000 covers that with roughly 71,000 to spare.
Recommendation on Contingency
Expected value describes an average, while a single large risk such as R-02 could cost far more than its expected share. For that reason the full 310,000 is retained rather than trimmed to the expected figure, and the roughly 71,000 above expected exposure is labeled as reserve for unidentified risks. Large IT projects show heavy tails in cost overruns, with a small share running far over budget (Flyvbjerg & Budzier, 2011), which argues against releasing reserve early.
Review Cadence
Steering looks at the full register at each of its fortnightly meetings. Risks on the zero-float chains are reviewed weekly by their owners, and any trigger reached is reported the same day.
References
Flyvbjerg, B., & Budzier, A. (2011). Why your IT project may be riskier than you think. Harvard Business Review, 89(9), 23-25.
Hillson, D. (2002). Extending the risk process to manage opportunities. International Journal of Project Management, 20(3), 235-240. https://doi.org/10.1016/S0263-7863(01)00074-6
Larsen, E., Fong, A., Wernz, C., & Ratwani, R. M. (2018). Implications of electronic health record downtime: An analysis of patient safety event reports. Journal of the American Medical Informatics Association, 25(2), 187-191. https://doi.org/10.1093/jamia/ocx057
Project Management Institute. (2021). A guide to the project management body of knowledge (PMBOK guide) (7th ed.). Project Management Institute.
HI540 Unit 7 instructions, in plain terms
The seventh unit usually asks you to build a risk register for your project and to explain how risks will be monitored and controlled. Expect defined scales for probability and impact, a register with each risk described, rated and assigned, and a response strategy for the most serious ones. Many instructors also want triggers, fallback plans and a link between the register and the budget or schedule. A cause, event and effect format makes each entry clearer than a one-word label. Owners should be people with authority to carry out the response, not the project manager by default. Including at least one opportunity is often welcomed. Support the method with the PMBOK Guide plus research on how IT or health IT projects go wrong. Expect around five to seven pages with the register itself in numbered rows if tables are limited.
How the HI 540 Unit 7 example is put together
Scales come first, with probability in five bands and impact in both working days and dollars, so each risk can be compared with float and with contingency. The register follows in order of exposure, eight threats written in full with package, chain, rating, owner, trigger, response and fallback. Seven smaller threats are summarized. The highlighted sentence explains why each trigger is something a person can observe on a given day. A margin note shows why owners hold authority, such as a section chief or a residency director. One opportunity, an early finish by the materials team, is handled with the same discipline as the threats. The contingency test multiplies each of the eight largest threats by its midpoint probability and finds expected exposure near 238,700 dollars. A final section keeps the full contingency and sets a review cadence.
Where the points sit in the HI540 Unit 7 rubric
A risk register is usually graded on four things: identification, analysis, response planning and integration with the rest of the plan. Identification marks go to risks specific to the project rather than generic ones like scope creep. Analysis rewards defined scales applied consistently. Response planning carries a large share, judged on whether owners can act and triggers can be observed. Integration, linking risks to the schedule chains and testing contingency against the register, often separates the top score from the next. Writing and APA format take the rest. Students lose points when every risk is rated medium, when the project manager owns everything, or when responses say monitor closely with no trigger. Leaving out opportunities may cost a few points where the prompt asks for them.
HI540 Unit 7 help from the desk
Generic risks are the commonest reason a register comes back: lack of communication or budget overrun, with no cause or effect. Another problem is triggers that only describe the risk happening, which gives no warning. Many drafts assign every risk to the project manager, who cannot change surgeon schedules or sign contracts. Some rate risks with no defined scale, so ratings cannot be compared. Contingency is rarely tested against the register, though the numbers are already there. Responses sometimes cost more than the risk itself. For a register built around your own project, send the schedule, budget, stakeholder analysis and the prompt, and a tailored register with owners, triggers and a contingency test can be prepared from those documents.
Get an HI540 Unit 7 example written to your instructions
Registers need the project's real exposures, so send the scenario, the Unit 7 instructions and rubric, and ideally your schedule and budget so each entry can be tied to float and contingency. A first sample carries no charge and is ready within 24-48h, every threat written with a watched signal and an owner able to act. The paper above is an original model document written by our desk, not a submitted student paper and not an official Purdue University Global document.
More HI540 papers and MS in Health Informatics samples
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- HI540 Unit 3: Work Breakdown Structure
- HI540 Unit 4: Stakeholder Analysis
- HI540 Unit 5: Schedule and Critical Path
- HI540 Unit 6: Resource and Budget Plan
- HI540 Unit 8: Seminar Reflection
- HI540 Unit 9: Change Control Procedure
- HI540 Unit 10: Project Closeout Report
- HI530 Unit 7: Standards Evaluation
- HI520 Unit 7: Aggregation and Grouping Query
- HI510 Unit 7: Patient Portal Evaluation
- HI501 Unit 7: Workflow Redesign Proposal
HI540 Unit 7 questions, answered
Can the project manager own every risk?
Rarely well. The project manager coordinates the register, but ownership belongs to whoever can carry out the response. In the example, the orthopedics section chief owns card validation and the revenue integrity director owns charge mapping, because neither response lies within a project manager's authority. A register with one owner throughout tends to draw a comment asking who would really act.
What makes a trigger usable?
It is observable, dated or measured, and set early enough to leave time for the fallback. Fewer than half the orthopedic cards validated at the window's midpoint qualifies; a validation problem does not. The example writes each trigger as a threshold someone checks on a known schedule and names who checks it. Triggers that fire only once damage is done are warnings, not controls.
Where can I find a free HI540 Unit 7 sample paper?
You can read the entire Unit 7 register here, including the scales, eight full entries, the opportunity and the contingency test.
How was the contingency tested?
Each large threat's midpoint probability was multiplied by its dollar impact; the total, near 238,700 dollars, sat below the 310,000 held.
Why keep the full contingency if expected exposure is lower?
One large risk, such as a mandatory vendor release, could cost far more than its expected share, so the excess stays as reserve.