HLTH 4100 Week 2 Open Systems Analysis Paper Example

Healthcare Organization Theory and Behavior Walden University Free custom sample in 24 to 48h

This HLTH 4100 Week 2 systems analysis example applies open systems language to one real service: moving an admitted patient from the emergency department decision to an inpatient bed at a 240-bed community hospital, where it takes a median of five hours. Walden HLTH 4100 tests whether BS in Healthcare Administration students can apply the language rather than recite it, and this paper names inputs with numbers, traces six throughput steps and finds the longest is a unit charge nurse's acceptance, 95 minutes in a sample of 40 admissions. It lists outputs, citing Asplin and colleagues' model of crowding, and finds the feedback loop broken because units never see boarding times. It locates the key boundary inside the hospital, between departments, explains how each part protects its core under pressure, citing Katz and Kahn and Scott and Davis, and proposes two changes a bed shortage view would miss.

CourseHLTH 4100 Healthcare Organization Theory and Behavior
WeekWeek 2
Paper typeOpen systems analysis
LengthAbout 1,020 words, 6 pages
FormatAPA 7 student paper
SchoolWalden University
ProgramBS in Healthcare Administration
UpdatedOctober 2026

Free sample paper for HLTH 4100 Week 2

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The Emergency Admission Process as an Open System: Inputs, Throughputs, Outputs, Feedback and the Boundary Where the Hospital Stops Controlling the Flow

Student Name

Walden University

HLTH 4100: Healthcare Organization Theory and Behavior

Instructor Name

Month Day, Year

What this page is doingThe title names the open-systems elements and promises to locate the boundary, which is the test of applying the language rather than reciting it.
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The Emergency Admission Process as an Open System: Inputs, Throughputs, Outputs, Feedback and the Boundary Where the Hospital Stops Controlling the Flow

Why an Open Systems View

In open systems theory, an organization draws resources from outside, converts them through connected internal parts, sends results back out and corrects itself using what it learns from those results (Katz & Kahn, 1978). The language is easy to recite: inputs, throughputs, outputs, feedback, boundary. It is harder to apply to a real service in a way that explains anything. This paper applies it to one process at the 240-bed community hospital where I work in the quality department: the movement of a patient from the decision to admit in the emergency department to arrival in an inpatient bed. At our hospital, that process takes a median of about five hours, more than twice as long as at a similar hospital in our system. The aim is to see whether the systems view explains the delay better than the usual complaint that there are not enough beds.

What this page is doingThe opening defines the theory briefly and applies it to one real process with a stated problem, which is what makes the analysis useful.
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Inputs

The process has four main inputs. The first is patients: on an average weekday, about 38 emergency department patients are admitted, arriving unevenly, with a peak between 2:00 and 8:00 p.m. The second is beds: about 225 staffed inpatient beds, of which, on a typical afternoon, fewer than ten are empty and clean. The third is staff: nurses on each unit, the hospitalist physicians who accept admissions, transport aides and environmental services staff who clean rooms. The fourth is information: the admission order, the bed request, the patient's condition and the unit's current workload. Inputs from the environment that the hospital does not control include the number of patients arriving at the emergency department and the number of patients other facilities are willing to accept on discharge.

What this page is doingInputs are named concretely with numbers, and the paper distinguishes inputs the hospital controls from those it does not.
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Throughputs

The throughput is the series of steps that turn an admission decision into a patient in a bed. Six steps were traced from the record and from interviews: the emergency physician decides to admit; a hospitalist accepts and writes orders; the emergency department enters a bed request; a unit charge nurse decides whether and when to accept the patient; environmental services cleans the room if needed; and transport moves the patient. At our hospital, the longest step is the fourth. The charge nurse's acceptance, which involves a phone call between the emergency department nurse and the unit, took a median of 95 minutes in a sample of 40 admissions last month, longer than all the other steps combined except waiting for a clean room.

What this page is doingThe throughput is traced step by step with a measured bottleneck, which turns the systems language into a diagnosis.
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Outputs

The intended output is an admitted patient in an appropriate bed, with treatment continuing without interruption. Unintended outputs include patients boarding in the emergency department for hours, emergency department rooms unavailable for new arrivals, ambulance diversion on the busiest evenings and frustration among staff in both departments. Research on emergency department crowding has linked boarding to delays in care and worse patient experience, and has identified inpatient capacity and hospital flow, not emergency department processes alone, as the main drivers (Asplin et al., 2003).

What this page is doingOutputs include unintended ones, which is where the systems view shows the process's full effect, supported by a framework on crowding.
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Feedback

Feedback is how the system learns from its outputs. At our hospital, feedback on the admission process is weak in two ways. First, the emergency department tracks boarding time, but the inpatient units do not see it; their own dashboards show discharges and length of stay, not how long admitted patients waited downstairs. Second, feedback is delayed. Boarding times are reported monthly in a quality committee meeting that charge nurses do not attend. The units that control the bottleneck therefore receive no direct feedback about it. In open systems terms, the loop that should connect outputs to the part of the system that could change them is broken.

What this page is doingThe analysis of feedback identifies a broken loop, which is the paper's most important explanatory finding.
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How the System Responds to Pressure

Open systems tend to respond to pressure in ways that protect their core work. On the busiest evenings, the inpatient units protect their core, safe care for current patients, by slowing acceptance of new ones. The emergency department, under the same pressure, protects its core, treating new arrivals, by boarding admitted patients in hallways and asking for ambulance diversion. Each response is rational for the part of the system that makes it. Together, they move the pressure onto patients who have already been admitted but have nowhere to go.

A systems view also predicts what happens when one part improves alone. When our emergency department shortened its own treatment times last year, boarding grew, because patients reached the admission decision faster and then waited longer for beds. Improving one part of a system without changing the connection between parts can make the whole perform worse.

What this page is doingDescribing how each part responds to pressure, and what happened when one part improved alone, shows the systems view predicting behavior rather than just labeling it.
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The Boundary

Every system has a boundary where its control ends. For the admission process, the boundary is not the hospital's outer wall but the line between the emergency department and the inpatient units. Each side optimizes for what it controls: the emergency department for moving patients out, the inpatient units for managing their current patients safely. Nobody owns the handoff between them. A second boundary sits at discharge: the hospital cannot control how quickly nursing homes and rehabilitation facilities accept patients, which affects how many beds open each day. The systems view makes clear that the first boundary is internal and could be redrawn, while the second is external and must be managed through relationships.

What this page is doingLocating the boundary inside the hospital, not at its walls, is the insight that makes the systems analysis more than a recitation.
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What the Systems View Adds

The common explanation, not enough beds, focuses on a single input. The systems view shows that inputs are similar to the comparison hospital's, and that the difference lies in the throughput, the charge nurse acceptance step, and in feedback, the units never see boarding times. It suggests two changes that a bed-shortage explanation would never suggest: give inpatient units direct, daily feedback on how long their admitted patients waited, and redraw the internal boundary by giving one role authority over the handoff, as the comparison hospital does with its bed manager. Organization theory describes open systems as able to adapt when feedback reaches the parts that can act on it (Scott & Davis, 2007). At our hospital, the problem is that the parts that can act are the ones that never hear.

What this page is doingThe closing shows what the systems view explains that the usual complaint does not, and leads to changes in feedback and boundaries.
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References

Asplin, B. R., Magid, D. J., Rhodes, K. V., Solberg, L. I., Lurie, N., & Camargo, C. A., Jr. (2003). A conceptual model of emergency department crowding. Annals of Emergency Medicine, 42(2), 173-180. https://doi.org/10.1067/mem.2003.302

Katz, D., & Kahn, R. L. (1978). The social psychology of organizations (2nd ed.). Wiley.

Scott, W. R., & Davis, G. F. (2007). Organizations and organizing: Rational, natural, and open system perspectives. Pearson Prentice Hall.

What the HLTH 4100 Week 2 instructions ask for

A systems analysis at this point usually asks you to apply open systems concepts to a real service in a way that explains something. Choose one process and a problem it has. Describe its inputs concretely, separating those the organization controls from those it does not. Trace the throughput step by step and measure the slowest step if you can. List outputs, including unintended ones. Examine feedback: who learns about the outputs and whether that information reaches the parts that could change them. Locate the boundary where control ends, which may be inside the organization rather than at its walls. Finish by showing what the systems view explains that a simpler explanation does not, and what changes it suggests.

How the HLTH 4100 Week 2 example is put together

The opening defines open systems theory with Katz and Kahn and states the five-hour problem. The inputs section counts admissions, beds, staff and information and notes outside inputs. The throughput section traces six steps and measures the 95-minute acceptance step. The outputs section lists boarding, unavailable rooms, diversion and frustration, citing Asplin and colleagues. The feedback section shows units never see boarding time. A section explains how each department protects its core under pressure and how improving emergency treatment times increased boarding. The boundary section places the key boundary between departments. The closing cites Scott and Davis and proposes feedback and authority changes.

HLTH 4100 Week 2 rubric: what earns full marks

Graders in this assignment reward application over recitation. Every systems term should be attached to something concrete in the chosen service, and a measured bottleneck in the throughput is especially persuasive. The feedback section often decides the grade: a strong paper shows who learns about the outputs and whether that information reaches the people who could act. Locating a boundary inside the organization, and explaining why it matters, shows real understanding of the theory. Instructors also value evidence that the systems view predicts behavior, such as what happens when one part improves alone. A conclusion that the simple explanation could not have produced, and properly cited sources, round out a strong submission.

HLTH 4100 Week 2 help: mistakes that cost marks

Systems analyses often fill a diagram with generic inputs, such as staff and money, and generic outputs, such as healthy patients, without tracing a real process. Others never mention feedback, which is the part of the theory that explains how systems learn. Some put the boundary at the organization's outer wall by default. Pick one process with a known problem, walk it step by step with someone who does the work and time the slowest step. Then ask who hears about the results and who could change them. For a systems paper on your own hospital process, a member of our writing staff can trace the inputs, the slow step and the missing feedback with you.

Get a HLTH 4100 Week 2 example written to your instructions

Forward the Week 2 instructions, the rubric that sits beneath them and the organization the section wants mapped, and a model systems analysis comes back with every category filled, one feedback loop traced and the boundary argued in prose. The first custom sample is free and it lands within 24 to 48 hours, built on the unit you name.

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HLTH 4100 Week 2 questions, answered

Where can I find a free HLTH 4100 Week 2 sample paper?

The systems analysis of the emergency admission process is printed above in full and free for students.

Which process does the HLTH 4100 Week 2 paper analyze?

The movement of an admitted patient from the emergency department decision to an inpatient bed, which takes a median of five hours.

What is the slowest throughput step?

The unit charge nurse's decision to accept the patient, which took a median of 95 minutes in a sample of 40 admissions.

Why is the feedback loop described as broken?

Because the inpatient units that control the slowest step never see boarding times, which are reported only in a monthly meeting they do not attend.

Where is the key boundary?

Inside the hospital, between the emergency department and the inpatient units, where no one owns the handoff.