C797 Task 1 Clinical Data Analysis Example

This C797 Task 1 example analyzes six months of structured suicide risk screening data from a composite rural emergency department, starting with a data quality review and ending with three decisions for leaders. WGU C797, Data Science and Analytics, is the MSN Nursing Informatics course where data from a new system are put to work. The sample checks the extract against five dimensions of electronic record data quality, then reports a screening rate of 88.4% across 5,902 eligible encounters, the distribution of results with 2.3% high risk, and median time from a high-risk screen to the start of observation. It finds two weaknesses concentrated on the night shift, states the limits of the data and recommends a reminder task, a staffing change and a monthly report.

CourseC797 Data Science and Analytics
TaskTask 1
Paper typeClinical data analysis
LengthAbout 1,100 words, 4 pages
FormatAPA 7
SchoolWestern Governors University (WGU)
ProgramMSN Nursing Informatics
UpdatedSeptember 2026

Free sample paper for C797 Task 1

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What Six Months of Structured Suicide Risk Screening Data Show: A Descriptive Analysis, a Data Quality Review and Three Decisions for a Rural Emergency Department

Student Name

Leavitt School of Health, Western Governors University

C797: Data Science and Analytics, Task 1

Course Instructor

Month Day, Year

What this page is doingThe title promises analysis, data quality and decisions, in that order. Analytics papers are returned when they describe numbers without saying what they mean for practice, so the decisions are named up front.
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What Six Months of Structured Suicide Risk Screening Data Show: A Descriptive Analysis, a Data Quality Review and Three Decisions for a Rural Emergency Department

Purpose and Data Source

Half a year has passed since a composite rural hospital with 110 beds retired its scanned paper screening form. Emergency department (ED) nurses now complete the C-SSRS, the Columbia suicide screener, as discrete fields in the electronic health record (EHR) for all patients 12 years and older. The informatics nurse specialist has been asked to analyze the first six months of data and advise the ED nurse manager and the behavioral health liaison. The data were extracted from the reporting database built for the project, which stores each encounter, each screening with its individual answers and calculated risk level, and each intervention with its order and start times. The extract was de-identified before analysis. The analysis asks four questions: how completely eligible patients were screened, how results were distributed, how quickly high-risk patients received one-to-one observation, and whether the data are trustworthy enough to support those answers.

Data Quality Before Analysis

Data reused from an EHR must be checked before conclusions are drawn. Weiskopf and Weng (2013) identified five dimensions commonly used to assess EHR data quality: completeness, correctness, concordance, plausibility and currency. Each was checked against this extract.

Completeness: of 5,218 screenings, 5,180 (99.3%) had an answer recorded for every displayed question; the 38 incomplete records all carried a deferral reason, as the design requires. Correctness: a sample of 50 screenings was compared with the nurse's narrative note, and the risk level matched in 49; the mismatch was a nurse who documented a patient's retraction of an answer in the note but not in the screener. Concordance: screenings with a high risk level were compared with orders, and 7 of 118 had no observation order at all, which is a clinical gap rather than a data error and is discussed below. Plausibility: 11 observation start times preceded the screening time by a few minutes, all on patients already under observation for another reason; these were excluded from the timing analysis. Currency: data were available in the reporting database within 24 hours, which is adequate for monthly review but not for real-time monitoring.

What this page is doingData quality is examined before any result is reported, using a named framework and the actual numbers found. An evaluator reading an analytics paper looks for this step because conclusions from unchecked EHR data are the most common weakness.
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Screening Completeness

The ED recorded 5,902 encounters by patients aged 12 and older over six months. Of these, 5,218 had a completed or deferred screening, a screening rate of 88.4%. The rate rose from 81.4% in the first month to 92.6% in the sixth. By shift, the rate was 91.8% on days, 89.5% on evenings and 81.2% on nights. Of the 684 unscreened encounters, 402 (58.8%) were patients who left before being seen or were transferred out within an hour of arrival, groups the triage workflow may never reach. The remaining 282 represent missed screens that the design should have prevented.

For comparison, eight EDs that adopted and then refined universal screening reached documented screening in 84% of visits, up from a starting point of 26% (Boudreaux et al., 2016). This ED's rate compares well, but the gap on nights is large enough to act on.

MonthEligible encountersScreenedRate
11,00281681.4%
296884387.1%
395184689.0%
499789489.7%
599390190.7%
699191892.6%
Total5,9025,21888.4%

Distribution of Results

Of the 5,180 completed screenings, 4,872 (94.1%) were negative, 190 (3.7%) were low or moderate risk and 118 (2.3%) were high risk. Among the 420 screened patients whose chief complaint was psychiatric, 132 (31.4%) screened positive at any level, compared with 176 of 4,760 (3.7%) among patients presenting for other reasons. That difference is expected, but the second group matters: 176 positive screens came from patients who presented with problems such as abdominal pain, headache or injury and would not have been screened under the old policy. Screening advocates make exactly this point, that people at risk often come to medical settings for reasons unrelated to mental health and are missed unless everyone is asked (Horowitz et al., 2020).

Time to Observation for High-Risk Patients

Of 118 high-risk screenings, 111 had an observation order, and 100 had a valid start time after the plausibility exclusions. The median time from screening to the start of one-to-one observation was 14 minutes (interquartile range 8 to 26), compared with a median of 34 minutes observed under the paper process. Nine patients (9.0%) waited more than 45 minutes; seven of the nine were on the night shift, when one security officer covers both observation and the building. The seven high-risk screenings without any observation order were reviewed individually: four patients were already in a locked behavioral health room with a sitter, and three were genuine omissions.

Interpretation and Limitations

The data show a process that has improved and is still improving, with two weaknesses concentrated on the night shift: lower screening completeness and longer waits for observation. A run chart of monthly screening rates shows six consecutive rising points, which suggests a real trend rather than random variation, though six months is a short series and the rule should be applied with caution (Provost & Murray, 2011). The analysis is descriptive: it cannot show whether screening prevented any self-harm, and the number of high-risk patients is small enough that a few cases change the timing results noticeably.

Recommendations

First, add a night shift reminder: an EHR task to the primary nurse if a patient 12 or older has been in a room for 60 minutes without a screen. Second, work with security and nursing leadership on a night shift observation plan, such as a trained patient care technician available to the ED on nights, since the longest waits cluster there. Third, make the observation order set fire automatically for provider signature on every high-risk screen, and add the three omissions to the monthly case review. The analysis should be repeated quarterly, with the data quality checks run first each time. Two further questions deserve a larger data set than six months provides: whether screening rates differ by patient language, since interpreter use is recorded, and whether patients with positive screens return to the ED more often within 90 days. Both can be answered from the same reporting database once a full year of data exists.

What this page is doingEach recommendation answers a specific finding: completeness on nights, observation delays on nights and the three missing orders. That traceability from result to action is what the decision-making aspect is looking for.
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References

Boudreaux, E. D., Camargo, C. A., Arias, S. A., Sullivan, A. F., Allen, M. H., Goldstein, A. B., Manton, A. P., Espinola, J. A., & Miller, I. W. (2016). Improving suicide risk screening and detection in the emergency department. American Journal of Preventive Medicine, 50(4), 445-453. https://doi.org/10.1016/j.amepre.2015.09.029

Horowitz, L. M., Roaten, K., Pao, M., & Bridge, J. A. (2020). Suicide prevention in medical settings: The case for universal screening. General Hospital Psychiatry, 63, 7-8. https://doi.org/10.1016/j.genhosppsych.2018.11.009

Provost, L. P., & Murray, S. K. (2011). The health care data guide: Learning from data for improvement. Jossey-Bass.

Weiskopf, N. G., & Weng, C. (2013). Methods and dimensions of electronic health record data quality assessment: Enabling reuse for clinical research. Journal of the American Medical Informatics Association, 20(1), 144-151. https://doi.org/10.1136/amiajnl-2011-000681

What the C797 Task 1 instructions ask

The first C797 task asks you to analyze a clinical data set and turn the results into recommendations. Most versions ask you to describe the data source and question, assess data quality, analyze the data with appropriate descriptive or inferential methods, present results clearly, interpret them with their limitations and recommend actions. The data may come from your workplace, a public source or a set provided by the course. The evaluator reads for analysis that answers a clear question, uses methods suited to the data and leads to decisions a manager could make. It should also be clear who will use the results and what decision they face.

How this C797 Task 1 example is built

The paper opens with the data source and the questions the analysis must answer. Data quality comes first, using a published framework to check completeness, correctness, plausibility and timing, with exclusions stated. Results are reported in the order of the questions: completeness of screening by shift, the distribution of screening results, and time from high-risk screen to observation, each with counts and percentages. The interpretation names the pattern that matters, weaknesses on the night shift, and the limitations that qualify it. Three recommendations each respond to a specific finding and would be simple to monitor in the next report. Each recommendation names the measure that would show whether it worked in the next report.

Where the C797 Task 1 rubric puts the marks

C797 Task 1 aspects are rated competent, approaching competence or not evident. A data source and question aspect checks that the analysis has a clear purpose. A data quality aspect asks whether the data were assessed before analysis. Methods and results aspects look for appropriate techniques and accurate reporting, often with tables or charts. An interpretation aspect wants results explained in context, with limitations. A recommendation aspect looks for actions that follow from findings. Evaluators check calculations, labeling of tables and figures, APA citations of methods sources and professional writing. Evaluators also appreciate when every percentage carries its denominator, which makes the arithmetic easy to verify.

C797 Task 1 help: what sends it back

Tables with no interpretation beneath them are the usual reason C797 papers come back. After each table or figure, explain the finding and its consequence for patient care. Second, data quality is often skipped. Check for missing and implausible values and state what you excluded. Third, methods do not always fit the question; a simple rate or median may answer it better than a complex test. Fourth, recommendations are general, such as improve screening. Tie each to a finding, such as the night-shift gap, and name how it would be measured. Finally, report numbers consistently, with denominators, so the evaluator can check your percentages. Round consistently and keep the same number of decimal places throughout.

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Send the Task 1 instructions and rubric aspects from your C797 course of study, with a description of your data. We write a custom analysis to those exact aspects, returned in 24-48h. The first custom sample is free.

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C797 Task 1 questions, answered

Can I use a course-provided data set for C797?

Yes, if your task allows it. Whatever the source, describe it clearly, assess its quality with a named framework and explain any records you excluded before reporting results.

How much statistics does C797 Task 1 need?

Enough to answer your question accurately. Descriptive statistics such as rates, medians and distributions often suffice, as in the sample; add inferential tests only when the question calls for them.

Should C797 include tables or charts?

Usually yes. Label each clearly and interpret it in the text. The sample reports results in counts and percentages with the denominator stated every time.

Is the C797 screening data in the sample real?

No. The hospital and its six months of figures were invented to demonstrate the method, while the data quality framework and the screening studies it cites are published.

Where can I find a free C797 Task 1 sample paper?

Every table and finding is above with commentary. Working with another data set? Send it with the C797 instructions and your first custom analysis is free.