Every organizational problem can be described at several altitudes, and the altitude you choose determines which solutions are even visible. This stage of NR-720 typically asks you to take a problem that is being managed locally and analyze it as a system: where the constraint actually sits, which parts interact, and why local effort has not fixed it. The graded idea is that a system produces its results reliably, so a problem that keeps returning is being generated rather than merely occurring. Your section may print this as NR 720 or NR720; it is the same course. Chamberlain publishes no syllabi outside Canvas. The placement here is our teaching judgment from the course's catalog arc; your section's rubric decides what your week actually asks.
What NR-720 Week 3 asks for
Three medical-surgical units were each running their own discharge improvement effort, and all three were working. Discharge orders were being written earlier, education was being completed the day before, and each unit could show its own progress. Average time from discharge order to bed available had not moved in eighteen months. Mapping the whole path explained it in an afternoon: the constraint was a transport pool sized for a mid-morning peak that no longer existed, and a discharge lounge with four chairs and no clinical cover after 1600. Every hour the units gained upstream arrived at the same choke point and waited there. Nobody on any of the three units could see it, because each of them was measuring the part of the path they owned, and each part was improving.
That is the analytic content of this stage. The written work usually asks for a systems-level problem analysis, sometimes using a named systems thinking, process mapping or constraint framework, sometimes as a root cause analysis raised above the unit. What is being scored is whether you can locate the constraint rather than the symptom, and whether you can show the interactions that produce the result.
Doctoral treatment demands three things beyond a good diagram. It demands data at each stage of the path, so the constraint is demonstrated rather than asserted. It demands attention to the measurement system itself, because problems persist in organizations that measure parts rather than wholes, and that observation is often the most valuable thing in the paper. And it demands the leadership implication: which decisions belong to which level, and what a senior leader has to do that a unit manager cannot.
Keep the practice-doctorate frame visible. You are applying established systems and improvement methods to a local problem in order to produce a change, not investigating whether those methods work. Write in that register and the analysis stays on the right side of the line between improvement and research.
The NR-720 Week 3 method, step by step
Six moves for raising a problem to the level where it can be solved.
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Trace the whole path end to end
From the first triggering event to the final outcome, across every department it passes through, including the waits between steps. Most systems problems live in the handoffs, which are precisely the parts no single manager owns or measures.
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Attach elapsed time and volume to every step
A map without numbers is a picture. Use timestamps the record already produces, name the report they come from, and give each step a median and a spread rather than an average alone, because variability is often the real problem.
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Locate the constraint and prove it
The constraint is the step where work accumulates and whose capacity sets the pace of the whole path. Show the queue, show that improvements upstream do not move the result, and say what would happen if the constraint were relieved.
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Examine what each part is measured on
Local optimization is usually rational behaviour under local measurement. Write what each department is scored on and show where those measures pull against the outcome you care about, because that is a systems finding a senior leader can act on immediately.
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Identify the feedback loops that hold the pattern in place
Delays that create rework, workarounds that hide the problem from the people who could fix it, or a surge response that consumes the capacity needed to prevent the next surge. Naming one real loop is worth more than a page of general systems vocabulary.
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Assign each implication to a decision level
Say which findings a unit manager can act on, which need a service line, and which require executive authority over capital or staffing. That assignment is the bridge from analysis to leadership and it is what makes the paper belong in this course.
A layout and word budget for a systems problem analysis
Our frame for this stage, sized for roughly 1,300 to 1,600 words, with a process map or stage table carrying the path detail. This outline is ours rather than anything the university issues, and your week's rubric outranks it wherever the two disagree.
| Section | What belongs in it | Word target |
|---|---|---|
| The result being produced | The outcome as the system currently delivers it, measured, with its source and period. | 150 to 190 |
| The path, stage by stage | Every step and handoff with elapsed time, volume and variability, and the departments each belongs to. | 280 to 340 |
| The constraint, demonstrated | Where work accumulates, the evidence that it sets the pace, and what relieving it would change. | 230 to 280 |
| Measurement misalignment | What each part is scored on and where those incentives pull against the whole-path outcome. | 200 to 250 |
| Loops that sustain it | One or two real feedback mechanisms that return the system to its current behaviour. | 180 to 220 |
| Decisions by level | What belongs to the unit, the service line and the executive, with the reason for each assignment. | 200 to 250 |
Evidence craft for systems analysis
Cite the systems or improvement method you are using. Constraint theory, lean and value stream methods, systems thinking archetypes and improvement science models are published bodies of work. Name the one you are applying, with its source and year, and use its actual terms rather than a loose paraphrase.
Take timings from the record, not from recollection. Order timestamps, bed management logs, transport dispatch records and discharge times exist and are retrievable. A path built from what staff estimate is a hypothesis, and it should be labelled as one if that is all you have.
Report spread, not only central tendency. A median wait of 40 minutes with a tail reaching four hours is a different problem from a consistent 40 minutes, and the tail is usually where the patients and the complaints are. Executive readers act on the tail.
Compare against a defensible reference. Your own historical performance, another site in the same organization, or a published benchmark with its source named. Avoid inventing a target; if no benchmark exists, say what would count as acceptable and on what reasoning.
Keep departments described by function, not by fault. Transport capacity is sized to a demand pattern that has shifted is analysis. Transport is unreliable is a complaint, and it produces no design change.
Five mistakes that cost points in this week's territory
- A symptom analyzed as a cause. Late discharges are a result; the question is which step in the path produces them and why it persists.
- A map with no data. Boxes and arrows without elapsed times cannot locate a constraint and cannot support a recommendation.
- Systems vocabulary without a mechanism. Words like complexity and interdependence do no work unless a specific loop or constraint is named.
- Ignoring the measurement system. Most persistent problems are held in place by what each part is scored on, and papers that skip this miss the highest-yield finding.
- Every recommendation aimed at the unit. If the analysis found a systems constraint and the recommendations are all local, the paper has argued against itself.
Before you submit
- The whole path is traced across departments, including handoffs and waits
- Every stage carries elapsed time and volume from a named record
- The constraint is demonstrated with evidence rather than asserted
- Spread and tail behaviour are reported, not just averages
- What each part is measured on appears in the analysis
- The systems or improvement method is cited with its source and year
- Recommendations are assigned to the decision level that can act on them
Building the systems analysis for NR-720?
Send the rubric and your process data out of Canvas. A premium original draft comes back in 24 to 48 hours with the constraint demonstrated, the measurement misalignment named and recommendations sorted by decision level, and revisions run until the grade lands.