HKIE Professional Assessment - Biomedical Discipline study materials
HKIE Professional Assessment - Biomedical Discipline study resources

HKIE Professional Assessment - Biomedical Discipline study plan

HKIE Professional Assessment - Biomedical Discipline · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Biomedical engineering fundamentals (biomechanics, biomaterials, physiology for engineers)

  • Derive and apply the stress-strain relationships for cortical bone and a typical titanium alloy, then compute the axial stiffness of a simplified femoral stem under a 2 kN load

  • Explain the physiology of the cardiac cycle, glomerular filtration and pulmonary gas exchange in engineering terms, linking each to a measurable quantity such as pressure, flow or clearance

  • Classify biomaterials by degradation behaviour and contrast the host response to a permanent metal implant versus a resorbable polymer

  • Solve three worked biomechanics problems on joint reaction forces and beam bending of long bones without referring to notes

Your checkpoint

A one-page formula sheet plus three fully worked numerical problems with units checked, self-marked against textbook solutions

Week 2

Medical devices and instrumentation (design, sensors, signal acquisition, safety)

  • Design a signal chain for an ECG front end, selecting electrode type, amplifier gain, filter cut-offs and sampling rate with stated justification

  • Calculate the leakage current and patient auxiliary current limits applicable to a Type CF applied part and identify which IEC 60601-1 clauses govern them

  • Compare optical, piezoelectric and capacitive sensing principles for SpO2, blood pressure and respiration respectively, stating one failure mode for each

  • Draw a block diagram of a closed-loop infusion pump safety architecture including independent over-infusion protection

Your checkpoint

A two-page instrument design note for one device, including block diagram, component selection table and a safety limits summary

Week 3

Clinical engineering and healthcare technology management (maintenance, calibration, lifecycle) & Medical device standards, regulation and quality systems (ISO 13485, ISO 14971, IEC 60601, HK MDACS/MDD)

  • Build a preventive maintenance schedule for a ventilator and an electrosurgical unit, specifying intervals, tests and acceptance criteria

  • Perform a full ISO 14971 risk assessment on one device, producing a hazard list, severity and probability scoring, and at least three risk control measures traced to verification evidence

  • Map the clauses of ISO 13485 to the lifecycle stages of a device from design input to post-market surveillance

  • Explain how the Hong Kong MDACS listing process differs from the mainland NMPA and EU MDR routes, and state which documents each requires

  • Calibrate a simulated pressure transducer against a reference, record readings and compute measurement uncertainty

Your checkpoint

A risk management file excerpt for one device containing a hazard analysis table, risk control traceability and a calibration record with uncertainty budget

Week 4

Medical device standards, regulation and quality systems (ISO 13485, ISO 14971, IEC 60601, HK MDACS/MDD) & Professional practice, ethics, safety and risk management in healthcare

  • Interpret the IEC 60601-1 third edition collateral and particular standards structure and identify which particular standard applies to three named device types

  • Analyse two published medical device incident reports, identifying the root cause, the violated control and the corrective action taken

  • Apply the four principles of biomedical ethics to a case where a clinician requests off-label use of a device, and justify a recommendation

  • Draft a health technology assessment recommendation for a new imaging modality using clinical, technical and economic criteria

  • Explain the professional obligations of an engineer signing off a medical device acceptance test in Hong Kong, including record retention and duty to report

Your checkpoint

A written ethics and incident analysis of 800 words covering two cases with a defensible recommendation for each

Week 5

Biomedical signal and image processing, health informatics and data

  • Implement a digital filter in code to remove baseline wander and 50 Hz interference from a sampled ECG record, and report the signal-to-noise improvement

  • Compute and interpret the frequency spectrum of a biomedical signal, distinguishing physiological content from artefact

  • Explain the reconstruction pipeline of CT and MRI in engineering terms, including projection, back-projection, k-space and image quality metrics

  • Assess a health informatics scenario for data privacy obligations under the Personal Data (Privacy) Ordinance and propose an anonymisation approach

  • Evaluate the performance of a diagnostic classifier using sensitivity, specificity, ROC curve and positive predictive value at a stated prevalence

Your checkpoint

A reproducible analysis notebook or script with one filtered signal plot, one spectrum, one ROC curve and a short interpretation of each

Week 6

Tissue engineering, regenerative medicine and advanced therapeutics engineering & Sustainability, emerging technologies and continuous professional development

  • Compare scaffold material options for a cartilage repair application on mechanical, degradation and biocompatibility criteria

  • Explain the regulatory pathway and evidence expectations for a combined cell-scaffold product, and identify where device and biological requirements diverge

  • Critically appraise one emerging technology such as surgical robotics or AI-based diagnosis, stating its maturity, evidence base and adoption barriers

  • Produce a personal continuing professional development plan aligned to the competencies the assessment tests, with specific activities and evidence

Your checkpoint

A two-page technology and CPD brief covering one regenerative medicine product and one emerging technology, with a personal 12-month development plan

Week 7

Engineering management, project delivery and healthcare facility interfaces

  • Produce a project schedule for installing a new imaging suite, including dependencies, critical path, procurement lead times and commissioning milestones

  • Identify the facility interfaces for that installation, covering electrical supply, cooling, shielding, structural loading and infection control

  • Draft a stakeholder communication plan distinguishing clinical users, estates, infection control and finance

  • Quantify the cost of downtime for a critical device and justify a redundancy or service contract decision

Your checkpoint

A one-page project plan with Gantt summary, interface register and risk log for a simulated equipment installation

Week 8

Biomedical engineering fundamentals (biomechanics, biomaterials, physiology for engineers) & Medical devices and instrumentation (design, sensors, signal acquisition, safety) & Clinical engineering and healthcare technology management (maintenance, calibration, lifecycle) & Medical device standards, regulation and quality systems (ISO 13485, ISO 14971, IEC 60601, HK MDACS/MDD) & Biomedical signal and image processing, health informatics and data & Tissue engineering, regenerative medicine and advanced therapeutics engineering & Professional practice, ethics, safety and risk management in healthcare & Engineering management, project delivery and healthcare facility interfaces & Sustainability, emerging technologies and continuous professional development

  • Sit a timed mock examination under exam conditions and mark it strictly against model answers

  • Re-derive the ten formulas most frequently needed across the domains from memory

  • Identify the three weakest domains from the mock result and close each gap with targeted practice

  • Rehearse concise verbal explanations of risk management, device lifecycle and professional ethics suitable for a viva

Your checkpoint

A marked mock examination with a scored breakdown by domain and a written remediation list for the three weakest areas

Milestones

Week 2: Can explain a full device signal chain and its safety limits without notes, and has completed the design note deliverable

Week 4: Can produce a hazard analysis and cite the applicable IEC 60601-1 standard for any named device; scoring at least 60 percent on a self-set 20-question standards and ethics quiz

Week 6: Can filter a signal, interpret an image reconstruction pipeline and appraise an emerging technology; all three week 5 and 6 deliverables complete

Week 8: Mock examination completed under time pressure with a domain-by-domain score; every domain at or above 50 percent and the three weakest areas documented with a remediation action