LC Engineering study plan

Define each major physiological measurement modality (ECG, SpO2, NIBP, capnography, temperature, ultrasound) and state the physical quantity each sensor converts

Calculate series and parallel resistance, capacitive reactance, and RC time constants for representative patient-coupled circuits

Explain how differential amplifiers, common-mode rejection, and driven-right-leg circuits reduce interference in biopotential front ends

Map each measurement modality to its typical signal amplitude, bandwidth, and electrode or transducer type on a one-page table

Trace the cardiac conduction pathway and correlate each ECG waveform segment with the underlying electrical event

Describe pulmonary mechanics (compliance, resistance, tidal volume) and how a ventilator's pressure, flow, and volume sensors support each phase of the breath cycle

Relate renal physiology and dialysis clearance principles to the settings a hemodialysis machine exposes to the operator

Explain the physiological basis of electrosurgical injury risk, including current density and return-electrode contact area

Classify devices by risk class under a major regulatory framework and list the premarket submission pathway each class typically follows

Distinguish the roles of consensus standards, manufacturer instructions for use, and adverse-event reporting in post-market surveillance

Build a preventive-maintenance checklist for a patient monitor and an infusion pump, citing the specific performance parameters to verify

Perform and document electrical safety tests (ground continuity, chassis leakage, patient leakage, lead leakage) on a simulated device and interpret pass/fail against applicable limits

Select the correct test instrument (safety analyzer, electrosurgical analyzer, defibrillator analyzer, ventilator tester, infusion pump analyzer) for a given verification task and justify the choice

Diagnose faults at the component level using schematic reading, continuity checks, and voltage/current measurement

Explain calibration traceability and how to record an as-found versus as-left condition

Differentiate verification, calibration, and validation and state which is required for which maintenance activity

Construct a device inventory schema capturing asset ID, risk score, maintenance interval, and network status, and explain how each field drives a maintenance decision

Apply a risk-based prioritization method to rank a sample fleet for scheduled maintenance and replacement planning

Calculate total cost of ownership and a replacement-versus-repair decision for one aging device

Identify environment-of-care requirements for electrical distribution, emergency power, temperature/humidity, and medical gas systems in patient care areas

Explain the layered defense model for medical device networks: network segmentation, access control, patching, and monitoring

Describe how device manufacturers disclose vulnerabilities and how a clinical engineering team triages and remediates them

Identify the privacy and security obligations that attach to devices storing or transmitting patient data

Draft a response procedure for a suspected compromised networked medical device, including isolation, notification, and restoration steps

Apply a professional code of ethics to three realistic scenarios involving patient safety disclosure, vendor pressure, and scope-of-practice boundaries

Explain the clinical engineer's role and reporting lines within a healthcare organization and how that affects escalation during a safety event

Describe how to communicate a device hazard to clinical staff in language that drives a behavior change

Outline the documentation and follow-up expected after a device-related incident or recall

Complete a timed full-length practice assessment under exam conditions and record the score by domain

Re-teach the two weakest domains from notes without consulting references, then verify against source material

Consolidate a one-page formula and reference sheet covering electrical calculations, safety limits, and risk-scoring methods

Build a final-week review schedule that allocates remaining time in proportion to practice-test domain deficits