Hospital Operations Management

Chapter 9
Quality Management, Patient Safety and Infection Prevention

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Hospital Operations Management   •   Advance Diploma

Quality Management, Patient Safety and Infection Prevention

Introduction and Context

Hospitals are complex socio-technical systems in which clinical practice, infrastructure, technology, supply chains, information systems and human behaviour interact continuously. A hospital may possess highly skilled clinicians yet still produce avoidable harm if communication fails, equipment is unavailable, medicines are incorrectly labelled, or infection-prevention procedures are inconsistently applied. Hospital operations management therefore has a central responsibility: to design reliable systems that deliver safe, effective, timely, equitable, patient-centred and efficient care.

Quality management is not limited to inspection or the correction of individual mistakes. It is an organisation-wide approach to understanding patient needs, defining standards, measuring performance, reducing variation and improving processes. Patient safety focuses specifically on preventing avoidable harm and reducing unnecessary risk. Infection prevention and control (IPC) is a major patient-safety function concerned with preventing transmission of infectious agents among patients, staff, visitors and the community.

These areas are closely connected. Poor hand hygiene can cause infection; inadequate staffing can cause both infection and medication errors; weak incident reporting can prevent the organisation from learning; and poorly designed work processes can make correct practice difficult. Effective management therefore combines quality improvement, clinical governance, safety science, occupational health, environmental controls and ethical accountability.

Learning Objectives

By the end of this chapter, the learner should be able to:

  1. Explain total quality management (TQM), continuous quality improvement (CQI) and clinical governance in hospitals.
  2. Distinguish quality assurance, quality control, quality improvement and accreditation.
  3. Apply the Plan–Do–Study–Act cycle to an operational problem.
  4. Select and interpret quality, patient-safety and IPC indicators.
  5. Describe clinical audit, incident reporting, root-cause analysis (RCA) and failure mode and effects analysis (FMEA).
  6. Explain the elements of a positive safety culture and a fair accountability system.
  7. Design practical controls for standard precautions, transmission-based precautions and healthcare-associated infection (HAI) prevention.
  8. Evaluate ethical, legal, governance and technological issues in quality and safety management.

1. Foundations of Quality Management in Hospitals

1.1 Meaning of quality

Healthcare quality is multidimensional. The Institute of Medicine traditionally describes high-quality care as safe, effective, patient-centred, timely, efficient and equitable. These dimensions may conflict: reducing waiting time must not compromise safety, and improving efficiency must not deny clinically necessary care. Quality is consequently judged against explicit standards and the outcomes and experiences that matter to patients.

A useful operational distinction is:

  • Structure: resources and conditions, such as staffing, equipment, facilities, policies and information systems.
  • Process: what is done, such as identity checking, hand hygiene, medication reconciliation and sterilisation.
  • Outcome: the result, such as mortality, infection, functional recovery, readmission or patient experience.

A structure measure may show that an isolation room exists; a process measure may show that appropriate personal protective equipment (PPE) was used; an outcome measure may show the rate of HAI. A complete quality programme uses all three because outcomes alone may be affected by case mix and chance.

1.2 Quality assurance, quality control and quality improvement

Quality assurance (QA) provides confidence that services meet defined requirements. It includes policies, credentialling, training, standard operating procedures, external review and scheduled audits. QA is predominantly preventive and system-oriented.

Quality control (QC) detects non-conformity through inspection, testing, monitoring and corrective action. For example, microbiological testing of sterilisation indicators or checking refrigerator temperatures is QC.

Quality improvement (QI) uses structured methods to improve processes and outcomes continuously. It asks why performance varies, tests changes on a small scale and measures whether improvement is sustained. QI is not synonymous with adding more rules; it seeks better system design.

1.3 Total quality management

TQM is an organisation-wide philosophy based on customer or patient focus, leadership commitment, staff involvement, process management, evidence-based decisions, supplier partnership and continuous improvement. In a hospital, “customer” includes patients, families, clinicians, support departments, payers and the wider community, although the patient’s welfare remains the primary ethical concern.

TQM has several implications for hospital managers:

  • quality is the responsibility of every department, not only the quality office;
  • senior leaders must allocate resources and model expected behaviour;
  • patients should participate in service design and evaluation;
  • errors should be examined as signals of system weakness;
  • improvement should be based on reliable data rather than anecdote;
  • suppliers and contractors must be included in quality controls.

TQM is sometimes criticised when treated as a slogan or when documentation becomes more important than patient outcomes. Its value depends on visible leadership, staff capability, meaningful measures and action based on evidence.

1.4 Clinical governance

Clinical governance is the framework through which a healthcare organisation is accountable for continuously improving service quality and safeguarding high standards of care. Its components commonly include clinical effectiveness, risk management, patient experience, professional education, audit, research and information management. Hospital operations managers support clinical governance by ensuring that operational systems enable, rather than obstruct, safe clinical work.

2. Continuous Quality Improvement

2.1 The PDSA cycle

The Plan–Do–Study–Act (PDSA) cycle is a practical method for testing change.

  • Plan: define the problem, aim, measures, proposed change and prediction.
  • Do: implement the change on a limited scale and record observations.
  • Study: compare results with the prediction, examine unintended effects and interpret the data.
  • Act: adopt, adapt or abandon the change, then begin another cycle.

For example, if inpatient medication delays are frequent, a ward may plan a standardised morning medication-round process, test it for one week, study administration timeliness and missed-dose reports, and then revise the process before wider implementation.

A QI aim should be specific and time-bound, such as: “Reduce the proportion of inpatient doses administered more than 30 minutes late from 18% to below 8% within four months, without increasing medication errors.”

2.2 Process mapping and variation

Process mapping displays the sequence of activities, decisions, handoffs and information flows. It can reveal duplication, waiting, unclear responsibility and opportunities for error. A flowchart should include the actual process, not merely the policy version. Staff and patients who perform or experience the process should participate in mapping.

Variation may be:

  • Common-cause variation: inherent in the current system, such as predictable workload fluctuations.
  • Special-cause variation: produced by an unusual event, such as equipment failure or an untrained temporary worker.

A single adverse event does not always prove that a process is unsafe, while an apparently acceptable average may conceal dangerous variation between shifts or departments. Run charts, control charts, stratification by ward or shift, and qualitative feedback help managers interpret performance.

For a proportion or rate, a basic indicator is:

Rate = (Number of events ÷ Number of opportunities or population at risk) × k

Here, k is a multiplier such as 100, 1,000 or 100,000. The numerator and denominator must refer to the same period and population, and the unit must be stated. For example, 12 HAI cases during 4,000 patient-days equals 3 cases per 1,000 patient-days. Rates should not be compared without considering case mix, surveillance definitions, exposure time and data quality.

2.3 Selecting measures

A balanced QI measurement set may include:

Measurement typeExampleManagement question
OutcomeSurgical-site infection rateDid patient outcomes improve?
ProcessProportion of procedures with documented identity verificationWas the reliable practice completed?
BalancingStaff overtime or emergency transfers after a changeDid improvement create harm elsewhere?
ExperiencePatient-reported communication scoreWas care acceptable and understandable?
EquityWaiting time by disability, sex, language or socioeconomic groupWho benefits or loses from the process?

Data should be valid, complete, timely and understandable. Managers should avoid gaming, excessive indicators and targets that encourage unsafe behaviour, such as discouraging admission of complex patients to improve apparent outcomes.

3. Accreditation, Standards and Clinical Audit

3.1 Accreditation

Accreditation is an external assessment of an organisation against published standards by an authorised or recognised body. Standards may address governance, patient assessment, medication management, surgery, IPC, facilities, information management, staff competence and patient rights. Accreditation can strengthen consistency and public confidence, but it is not a guarantee that every clinical decision is correct. Preparation should be integrated into everyday practice rather than becoming a short-term document-production exercise.

Managers should maintain a standards crosswalk showing each requirement, responsible owner, evidence source, current status, corrective action, deadline and verification method. Evidence may include direct observation, record review, interview, training records, maintenance logs and outcome data.

3.2 Clinical audit

Clinical audit is a quality-improvement process in which current practice is measured against explicit criteria, differences are identified, changes are implemented and practice is re-measured. The audit cycle is:

  1. select a significant topic;
  2. define evidence-based criteria and a performance threshold;
  3. collect a representative sample;
  4. compare practice with the standard;
  5. agree and implement improvement;
  6. re-audit and report results.

A criterion should be observable and unambiguous. “Appropriate assessment completed” is weaker than “A venous-thromboembolism risk assessment is documented within 24 hours of admission.” Audit is different from research: audit evaluates care against an accepted standard, whereas research seeks generalisable new knowledge. Local rules may still require ethical review or information-governance approval.

4. Patient Safety and Risk Management

4.1 Patient safety concepts

Patient safety concerns the prevention of errors and adverse events and the reduction of risk of unnecessary harm associated with healthcare. A near miss is an event that could have caused harm but did not, either by chance or because it was intercepted. A no-harm incident reaches the patient without detectable harm. An adverse event causes harm. A never event is a clearly identifiable, serious, preventable incident defined by the relevant national policy.

The Swiss-cheese model illustrates how accidents occur when weaknesses in several defensive layers align. Defences include competent staff, protocols, alarms, pharmacy checks, supervision and reporting systems. The model does not imply that every event has a single cause or that blaming the last person in the chain is appropriate.

4.2 Incident reporting

An effective reporting system is confidential where appropriate, easy to use, timely and focused on learning. A report should describe what happened, when and where, the people and equipment involved, immediate actions, actual or potential harm, witnesses and contributing conditions. It should avoid speculation and accusatory language.

After an event, the organisation should first provide immediate clinical care, preserve relevant evidence, notify responsible leaders, communicate honestly with the patient and family, and meet legal and regulatory reporting duties. Confidentiality must be balanced with transparency, safeguarding and the patient’s right to information. Aggregated reports should be shared with staff together with visible improvement actions; otherwise reporting declines.

4.3 Safety culture and just culture

Safety culture is the shared pattern of values, attitudes and behaviours concerning risk and learning. A mature safety culture includes psychological safety, teamwork, reliable communication, leadership engagement, learning from weak signals and willingness to stop unsafe work.

A just culture distinguishes among:

  • human error, managed through consolation, redesign and coaching;
  • at-risk behaviour, addressed by removing incentives for unsafe shortcuts and increasing awareness;
  • reckless behaviour, which involves conscious disregard of substantial risk and may require disciplinary action.

A just culture is not a no-accountability culture. It seeks fair, consistent and evidence-based responses. Managers should investigate workload, staffing, equipment, training, interface design and organisational pressures before concluding that individual misconduct caused an event.

5. Root-Cause Analysis and FMEA

5.1 Root-cause analysis

RCA is a structured retrospective investigation of an incident or recurring problem. It should identify contributory factors and system improvements, not merely produce a single “root cause.” A multidisciplinary team reconstructs the timeline, verifies facts, interviews relevant people and examines policies, environment, technology, communication and management decisions.

Useful tools include the five-whys technique, fishbone diagrams, timeline analysis and barrier analysis. The five-whys method asks successively why a condition occurred, but it should not be used mechanically: human behaviour is rarely explained by one chain of five answers. Corrective actions should follow a hierarchy of effectiveness:

  1. eliminate the hazard;
  2. substitute a safer process or product;
  3. use engineering controls, such as forcing functions or standard connectors;
  4. use administrative controls, such as policies and training;
  5. use reminders or PPE as supplementary controls.

Actions should have an owner, deadline, required resources, success measure and follow-up review. “Staff reminded to be careful” is generally a weak action because it does not change the system reliably.

5.2 Failure mode and effects analysis

FMEA is a prospective method used before harm occurs. A team lists process steps, possible failure modes, effects, causes and existing controls, then prioritises risks for action. A traditional risk priority number is:

RPN = S × O × D

where S is severity, O is occurrence likelihood and D is detectability, each assigned a defined ordinal score. Because ordinal scores are not necessarily equal-interval measurements, the product should be treated as a prioritisation aid, not a precise probability of harm. High-severity failures should receive attention even if their numerical RPN is not the highest. Many modern systems therefore use action matrices or separate severity and likelihood categories.

Process stepFailure modePossible effectStronger control
Patient identificationSimilar names confusedWrong medication or procedureTwo identifiers and barcode verification
Specimen collectionLabel applied away from patientIncorrect result linked to patientBedside labelling and electronic confirmation
DischargeAllergy omitted from summaryUnsafe future treatmentStructured reconciliation and pharmacist review

FMEA is strongest when frontline workers participate and when the analysis examines the real workflow rather than an idealised policy.

6. Infection Prevention and Control

6.1 Chain of infection

Transmission requires an infectious agent, reservoir, portal of exit, mode of transmission, portal of entry and susceptible host. IPC interrupts one or more links. Examples include treatment of infection, environmental cleaning, respiratory hygiene, hand hygiene, safe injection, sterilisation, vaccination and isolation.

Standard precautions apply to every patient, regardless of known infection status. They include risk assessment, hand hygiene, appropriate PPE, respiratory hygiene, safe injection and sharps practices, cleaning and disinfection, safe handling of linen and waste, and appropriate patient-care equipment. Transmission-based precautions are additional measures for contact, droplet or airborne transmission according to the pathogen and clinical circumstances.

6.2 Hand hygiene and PPE

Hand hygiene should be performed at the recognised moments of patient care, including before touching a patient, before a clean or aseptic procedure, after body-fluid exposure risk, after touching a patient and after touching the patient’s surroundings. Alcohol-based hand rub is generally preferred when hands are not visibly soiled and the product is suitable; soap and water are required in circumstances specified by local IPC guidance, including visibly soiled hands.

Gloves do not replace hand hygiene. PPE selection is based on anticipated exposure, and donning and doffing order should follow local policy to prevent self-contamination. Managers must ensure supplies are available at the point of care, staff are trained and compliance is observed ethically without creating punitive surveillance.

6.3 Environmental and device-related controls

IPC programmes should address cleaning schedules, high-touch surfaces, ventilation, water safety, waste and linen management, sterilisation and disinfection, food safety and construction risks. Reusable devices require clear responsibility for cleaning between patients. Invasive devices should be inserted only when clinically indicated, maintained using evidence-based bundles and removed promptly when no longer required.

Antimicrobial stewardship is also an IPC responsibility. It promotes the right antimicrobial, dose, route and duration, based on clinical assessment and microbiological information. Stewardship reduces resistance, adverse effects and unnecessary expenditure while preserving treatment effectiveness.

6.4 Surveillance and outbreak response

HAI surveillance requires standard case definitions, consistent denominators, laboratory and clinical data, timely analysis and feedback. When an outbreak is suspected, the hospital should verify the diagnosis, establish a case definition, identify cases, construct a line list, describe time-place-person patterns, implement immediate controls, communicate with relevant authorities and evaluate whether transmission has stopped.

Managers should avoid premature conclusions. An increase may reflect improved detection rather than true transmission, while a stable rate may conceal under-reporting. IPC committees should link surveillance findings to action, such as cohorting, environmental remediation, device review, vaccination or targeted education.

7. Integrated Operational Application

Quality and safety are most effective when embedded in daily management. A ward manager can begin each shift with a safety huddle covering staffing, high-risk patients, isolation requirements, equipment, deteriorating patients, pending procedures and anticipated discharges. Standardised handover tools reduce omissions but should not replace clinical judgement. Escalation policies must identify who has authority to stop a procedure, isolate a patient, obtain supplies or call senior expertise.

Digital systems can support barcode medication administration, electronic prescribing, automated alerts, dashboards, laboratory surveillance and predictive risk identification. However, alerts can create fatigue, inaccurate data can produce false reassurance, and poorly designed interfaces can introduce new errors. AI-based tools require validation in the local population, monitoring for bias, explainability appropriate to the decision, human oversight, cybersecurity and clear accountability. An algorithm should support—not replace—professional judgement and patient communication.

Illustrative Case: Reducing Central-Line-Associated Infection

Background

A fictional 250-bed hospital observed that central-line-associated bloodstream infections in its adult medical wards were higher than its internal target. The infection-control team reported 6 events over 3,000 central-line days during one quarter.

Problem and analysis

The rate was:

(6 ÷ 3,000) × 1,000 = 2 infections per 1,000 central-line days

A multidisciplinary team reviewed insertion records, maintenance observations, supply availability, staffing patterns and incident reports. It found inconsistent documentation of line necessity, variable dressing-change technique, occasional shortages of chlorhexidine preparation and poor visibility of daily line review. No single clinician was identified as the cause.

Approach

The team used PDSA cycles. It introduced a central-line insertion checklist, a standard maintenance bundle, daily necessity prompts during ward rounds, point-of-care supply carts, competency assessment and weekly feedback. Nurses and physicians were empowered to pause insertion when essential safety steps were missing. A balancing measure tracked delays in urgent line placement and staff workload.

Outcome

In the following quarter, there were 2 events over 3,200 central-line days:

(2 ÷ 3,200) × 1,000 = 0.625 infections per 1,000 central-line days

The apparent rate improved, but the team did not claim that the intervention alone caused the change without considering case mix, surveillance consistency and statistical fluctuation. It continued monitoring for six months and audited bundle reliability. Staff feedback showed improved supply availability but identified documentation burden, leading to integration with the electronic record.

Learning points

The case demonstrates that outcome improvement requires process reliability, adequate supplies, interdisciplinary participation, measurement over time and attention to unintended consequences. It also shows why blaming a single practitioner is less useful than redesigning conditions in which safe practice must occur.

8. Challenges, Ethics and Governance

Quality programmes face under-reporting, incomplete records, denominator problems, inconsistent definitions, alert fatigue, staff turnover and competing financial priorities. Small hospitals may lack specialist IPC expertise, microbiology support or data analysts. Managers should use regional networks, standardised tools and escalation arrangements rather than lowering safety expectations.

Ethically, patients have rights to dignity, informed participation, privacy, non-discrimination and honest communication after harm. Reporting systems must protect sensitive information while allowing legitimate learning and regulatory oversight. Quality indicators can stigmatise services or groups if published without context. Data should be governed according to law, purpose limitation, access controls, retention rules and cybersecurity requirements.

Accreditation and regulatory compliance are important, but compliance should not become performative. A hospital may pass an inspection yet have poor psychological safety or weak learning from incidents. Conversely, a service may demonstrate innovation that exceeds minimum standards but still require formal assurance. Leaders should therefore combine external standards with local improvement, patient involvement and professional accountability.

Best-Practice Checklist

A hospital quality and safety programme should:

  • define quality and safety priorities with patient and staff participation;
  • assign accountable leaders and multidisciplinary committees;
  • maintain current policies based on evidence and law;
  • use reliable structure, process, outcome, experience and balancing measures;
  • encourage reporting of near misses and unsafe conditions;
  • investigate serious events using RCA and prospective risks using FMEA;
  • apply fair accountability and protect psychological safety;
  • conduct clinical audits and close the audit cycle;
  • implement standard precautions and risk-based transmission precautions;
  • monitor HAI, antimicrobial use, device risks and environmental controls;
  • ensure staff competence, adequate supplies and safe staffing;
  • test digital tools for usability, bias, privacy and unintended harm;
  • verify that corrective actions are completed and sustained.

Chapter Summary

Hospital quality management is an organisation-wide discipline aimed at safe, effective, timely, efficient, equitable and patient-centred care. TQM establishes a culture of patient focus, leadership, staff participation, process management and continuous improvement. QA provides confidence that standards are met, QC detects non-conformity, and QI tests and sustains better ways of working.

PDSA, process mapping, clinical audit and performance measurement translate quality principles into operational practice. Patient safety requires reliable defences, incident reporting, learning systems and a just culture that distinguishes human error, at-risk behaviour and reckless conduct. RCA examines incidents retrospectively, while FMEA anticipates failure before harm occurs. Both methods are valuable only when they lead to specific, owned and verified actions.

IPC interrupts the chain of infection through standard precautions, hand hygiene, PPE, environmental controls, device management, surveillance, outbreak response and antimicrobial stewardship. Accreditation supports external assurance but cannot substitute for everyday safety culture. Ethical governance requires transparency, privacy, fairness, patient involvement and responsible use of data and technology. The hospital manager’s central task is to create conditions in which safe, high-quality practice is the easiest and most reliable way to work.

Key Terms

Quality: The degree to which health services meet accepted requirements and achieve desired patient outcomes.

Patient safety: Prevention of avoidable harm and reduction of unnecessary risk associated with healthcare.

Total quality management: Organisation-wide management philosophy focused on patient needs, participation and continuous improvement.

Quality assurance: Planned activities that provide confidence that standards will be met.

Quality control: Inspection and monitoring used to detect non-conformity.

Continuous quality improvement: Structured, ongoing effort to improve processes and outcomes.

Clinical governance: Framework for accountability, improvement and maintenance of professional care standards.

Accreditation: External assessment against published healthcare standards.

Clinical audit: Comparison of current practice with explicit criteria followed by improvement and re-measurement.

Near miss: An incident that could have caused harm but did not.

Adverse event: An incident that causes harm to a patient.

Safety culture: Shared values and behaviours concerning risk, reporting and learning.

Just culture: Fair approach that distinguishes error, at-risk behaviour and reckless conduct.

Root-cause analysis: Retrospective investigation of contributory system factors in an incident.

FMEA: Prospective analysis of possible process failures, effects, causes and controls.

Infection prevention and control: Measures that prevent or limit transmission of infectious agents.

Standard precautions: Minimum infection-prevention measures applied to every patient.

Healthcare-associated infection: Infection acquired in connection with healthcare delivery.

Antimicrobial stewardship: Coordinated action promoting appropriate antimicrobial use.

Patient-days: The total number of days of inpatient care used as a denominator for selected rates.

Review Questions

Short Answer Questions

  1. Distinguish quality assurance from quality improvement.
  2. What are the four stages of the PDSA cycle?
  3. Define a near miss and explain why it should be reported.
  4. State the six links in the chain of infection.
  5. Why do gloves not replace hand hygiene?

Long Answer Questions

  1. Explain how TQM and clinical governance can be integrated into hospital operations.
  2. Describe the process of conducting a clinical audit, including the importance of re-audit.
  3. Compare RCA and FMEA in terms of timing, purpose, methods and outputs.
  4. Discuss the characteristics of a mature safety culture and a just culture.
  5. Explain how a hospital should design an integrated IPC programme.

Analytical / Application Questions

  1. A ward reports frequent specimen-labeling errors but no confirmed patient harm. Design a PDSA project, including an aim statement, process measure, outcome measure and balancing measure.
  2. A hospital’s HAI rate falls after a new checklist is introduced, but observation shows only 60% compliance with the checklist. Analyse the result and recommend further action.
  3. Following a medication error, the manager proposes retraining the nurse involved and issuing a warning. Use just-culture principles and the hierarchy of controls to evaluate this response and propose a stronger investigation and improvement plan.

Multiple Choice Questions with Answers

Question 1

Which activity is primarily associated with continuous quality improvement?

A. Testing and refining a process using measured results

B. Inspecting every employee for disciplinary violations

C. Replacing all local policies with accreditation documents

D. Reporting only incidents that caused permanent harm

Correct Answer: A. Testing and refining a process using measured results

Question 2

A hospital records 12 infections during 4,000 patient-days. What is the rate per 1,000 patient-days?

A. 0.3

B. 3

C. 30

D. 300

Correct Answer: B. 3

Question 3

Which statement best describes clinical audit?

A. It seeks to discover entirely new scientific knowledge

B. It compares practice with explicit standards and supports improvement

C. It replaces professional judgement with financial targets

D. It investigates only incidents involving negligence

Correct Answer: B. It compares practice with explicit standards and supports improvement

Question 4

Which response best reflects a just culture after an honest human error?

A. Automatic dismissal

B. No review because harm was unintended

C. System review, support and process redesign

D. Public identification of the staff member

Correct Answer: C. System review, support and process redesign

Question 5

FMEA is mainly used to:

A. Predict and prioritise possible failures before harm occurs

B. Calculate hospital revenue

C. Replace infection surveillance

D. Determine whether a patient gave informed consent

Correct Answer: A. Predict and prioritise possible failures before harm occurs

Question 6

Which measure is an example of a balancing measure?

A. Number of infections per 1,000 device-days

B. Percentage of staff completing training

C. Emergency delays created by a new safety process

D. Number of patients admitted

Correct Answer: C. Emergency delays created by a new safety process

Question 7

Standard precautions should be applied:

A. Only to patients with confirmed infection

B. Only in operating theatres

C. To every patient according to the anticipated exposure risk

D. Only when isolation rooms are unavailable

Correct Answer: C. To every patient according to the anticipated exposure risk

Question 8

Which action is generally stronger than education alone in the hierarchy of controls?

A. A reminder poster

B. A compulsory annual lecture

C. An engineering control that prevents incorrect connection

D. A memo asking staff to be more careful

Correct Answer: C. An engineering control that prevents incorrect connection

Question 9

What is the main purpose of a clinical safety huddle?

A. To replace formal incident investigation

B. To identify immediate risks and coordinate safer work

C. To rank staff performance publicly

D. To approve hospital construction plans

Correct Answer: B. To identify immediate risks and coordinate safer work

Question 10

A traditional FMEA risk priority number is calculated as:

A. Severity plus occurrence plus detectability

B. Severity multiplied by occurrence multiplied by detectability

C. Occurrence divided by severity

D. Detectability minus occurrence

Correct Answer: B. Severity multiplied by occurrence multiplied by detectability

Hospital Operations Management
Chapter 9 of 15