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After implementing an electronic medical records (EMR) system in a department, the next step is to assess its effectiveness to ensure it meets goals before broader rollout.

Option A (Proceed with risk identification and prevention): Risk assessment (e.g., FMEA) should precede implementation, not follow it.

Option B (Report the results to senior leadership): Reporting is premature without evaluating performance.

Option C (Implement the system throughout the organization): Organization-wide implementation follows successful pilot evaluation.

Option D (Evaluate the system's performance): This is the correct answer. The NAHQ CPHQ study guide states, “After implementing a new system, evaluate its performance to assess functionality, user adoption, and outcomes before expanding” (Domain 4).

CPHQ Objective Reference: Domain 4: Performance and Process Improvement, Objective 4.5, “Evaluate new system performance,” emphasizes post-implementation evaluation. The NAHQ study guide notes, “Evaluation ensures systems meet quality goals” (Domain 4).

Rationale: Evaluating performance ensures the EMR system is effective, aligning with CPHQ’s improvement principles.

A prioritization matrix is the best tool for sequencing interventions in a performance or process improvement project because it helps teams evaluate and rank multiple options based on defined criteria such as impact, effort, cost, or feasibility.

Here's how the options compare:Tool

Primary Use

A. Prioritization matrix

✅ Used to rank and sequence actions based on multiple weighted criteria. Ideal for choosing which interventions to implement first.

B. Affinity diagram

Used to group ideas or data into themes or categories. Helps with brainstorming, not sequencing.

C. Pareto chart

Visualizes the 80/20 rule—helps identify the most frequent or impactful issues, but does not guide sequencing.

D. Histogram

Displays the distribution of data (e.g., frequency). It shows patterns, but does not assist in prioritizing or sequencing actions.

Human factors engineering is a science that uses a systems approach to consider human psychological, social, physical, and biologic characteristics and applies the information to design equipment, processes, and environments to optimize human performance, health, and safety1.

One of the applications of human factors engineering is forcing functions, which are design features that prevent users from making errors or performing unsafe actions2. For example, a forcing function can prevent a user from inserting a wrong key into a lock, or plugging a wrong device into a socket.

In the case of the defibrillator pads, a forcing function could have prevented the delay by making the pads incompatible with the wrong defibrillator, or by alerting the user of the mismatch before attempting to use the device. This would have ensured that only the correct pads were used with the correct defibrillator, and avoided the potential harm to the patient.

The other options are not applications of human factors engineering, but rather methods or strategies that can be used to improve quality and safety in health care. Checklists are tools that help users remember and follow a series of steps or tasks3. Resiliency efforts are actions that help users cope with and recover from adverse events or situations. Usability testing is a process that evaluates how easy and effective a product or system is to use by the intended users. References: 1: Human Factors in Healthcare | SpringerLink 2: Human Factors Engineering | PSNet 3: Checklist Use in Healthcare: A Practical Guide to Improving Quality and Safety : Resilience in Healthcare: A Systematic Review and Synthesis of the Literature : Usability Testing of Medical Devices

To properly assess the cost and utilization patterns in the population health program, it is essential tounderstand the volume of patients being discharged to various post-acute care settings. By requesting the total number of patients discharged to each location, the healthcare quality professional can calculate the average cost per patient, which is crucial for assessing efficiency and for comparing costs across different discharge locations. This data will also allow for an evaluation of utilization patterns and help identify if certain locations are being used more frequently and if the associated costs are justified based on patient outcomes.