
Pacemaker Technician Course
Master the clinical and technical skills required to work confidently as a pacemaker technician. From cardiac anatomy and ECG interpretation to device programming and remote monitoring, this course covers every core competency the field demands. Launch or advance your career in cardiac device management with structured, expert-led training.
What you will learn:
Interpret 12-lead ECGs to identify paced rhythms, fusion beats, and device abnormalities.
Apply the universal pacemaker coding system to real-world programming scenarios.
Conduct systematic device interrogations and extract clinically actionable diagnostic data.
Configure advanced pacemaker parameters, including AV delay, rate response, and capture thresholds.
Troubleshoot pacemaker malfunctions using a structured, reproducible diagnostic framework.
Manage remote monitoring platforms and triage patient alerts by clinical urgency.
How you study in practice Pacemaker Technician Course
How you practise Pacemaker Technician Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Cardiac Anatomy and Physiology
Foundations of Cardiac Anatomy and Physiology
Lesson 1 • Common Cardiac Pathologies Overview
Surveys bradyarrhythmias, heart block, and sick sinus syndrome as primary pacing indications. Links pathology to clinical need for device therapy.
Lesson 2 • Heart Structure and Chambers
Covers the four chambers, valves, and major vessels of the heart. Establishes anatomical vocabulary needed for all subsequent pacemaker concepts.
Lesson 3 • Cardiac Electrical Conduction System
Explains the sinoatrial node, AV node, bundle of His, and Purkinje fibres. Connects normal conduction pathways to pacemaker dependency scenarios.
Lesson 4 • The Normal Cardiac Cycle
Details systole, diastole, and pressure-volume relationships during each phase. Provides the physiological baseline for recognising abnormal rhythms.
Lesson 5 • Electrophysiology Basics
Introduces action potentials, depolarisation, and repolarisation at the cellular level. Grounds students in the electrical principles that pacemakers exploit.
Chapter 2HideHide detailsSee detailsIntroduction to Pacemaker Technology
Introduction to Pacemaker Technology
Lesson 1 • Pacemaker Leads and Electrodes
Describes lead construction, fixation mechanisms, and electrode configurations. Connects lead design to sensing and pacing performance outcomes.
Lesson 2 • Regulatory and Safety Standards Overview
Introduces device approval processes, quality standards, and electromagnetic compatibility requirements. Establishes the compliance framework technicians must operate within.
Lesson 3 • Pacemaker Types and Classifications
Differentiates single-chamber, dual-chamber, biventricular, and leadless devices. Prepares students to match device type to clinical indication.
Lesson 4 • Core Pacemaker Components
Identifies pulse generator, battery, circuitry, and lead system as functional units. Builds component-level understanding required for troubleshooting.
Lesson 5 • History and Evolution of Pacemakers
Traces pacemaker development from external units to modern implantable devices. Contextualises current technology within decades of engineering progress.
Chapter 3HideHide detailsSee detailsPacemaker Coding and Programming Fundamentals
Pacemaker Coding and Programming Fundamentals
Lesson 1 • Programmer Interface and Workflow
Introduces the external programmer device, telemetry wand, and session workflow. Builds procedural confidence before hands-on programming practice.
Lesson 2 • Rate Response Programming
Explains accelerometer and minute ventilation sensors used for rate-adaptive pacing. Prepares students to optimise rate response for active patients.
Lesson 3 • Sensing and Pacing Modes
Distinguishes asynchronous, inhibited, and triggered pacing modes and their clinical uses. Connects mode selection to patient safety and haemodynamic goals.
Lesson 4 • Basic Programmable Parameters
Covers lower rate limit, upper rate limit, AV delay, and output settings. These parameters form the foundation of every pacemaker programming session.
Lesson 5 • The Universal Pacemaker Code
Explains each position of the five-letter pacing code and its clinical meaning. Provides the standardised language used across all device programming.
Chapter 4HideHide detailsSee detailsElectrocardiogram Interpretation for Pacing
Electrocardiogram Interpretation for Pacing
Lesson 1 • Identifying Pacemaker Artefacts
Teaches recognition of atrial and ventricular pacing spikes on ECG tracings. Distinguishes paced morphology from intrinsic beats across lead configurations.
Lesson 2 • ECG Basics and Lead Placement
Reviews ECG waveform components, intervals, and standard lead placement. Establishes the measurement skills needed to evaluate paced rhythms.
Lesson 3 • Pacing Abnormalities on ECG
Identifies failure to pace, failure to capture, and failure to sense on ECG. Connects each abnormality pattern to its likely underlying cause.
Lesson 4 • Fusion and Pseudofusion Beats
Explains fusion and pseudofusion as normal phenomena in demand pacing. Prevents misdiagnosis of these benign patterns as device malfunction.
Lesson 5 • Normal Paced Rhythm Patterns
Describes expected ECG patterns for common pacing modes including VVI, AAI, and DDD. Provides the normal baseline against which abnormalities are compared.
Chapter 5HideHide detailsSee detailsDevice Interrogation and Data Interpretation
Device Interrogation and Data Interpretation
Lesson 1 • Stored Electrograms and Event Logs
Teaches retrieval and analysis of stored electrograms, mode switches, and episode logs. Connects stored data to patient symptoms for clinical correlation.
Lesson 2 • Pre-Interrogation Patient Assessment
Covers patient history review, symptom documentation, and device identification before interrogation. Ensures safe and efficient clinic workflow.
Lesson 3 • Conducting a Device Interrogation
Details the step-by-step process of connecting the programmer and retrieving device data. Builds procedural accuracy for routine and urgent interrogations.
Lesson 4 • Interpreting Battery and Lead Data
Explains battery voltage, impedance trends, and lead integrity indicators in reports. Enables early detection of battery depletion and lead failure.
Lesson 5 • Generating and Communicating Reports
Covers report formatting, critical value escalation, and documentation standards. Ensures findings are communicated accurately to the supervising clinician.
Chapter 6HideHide detailsSee detailsPacemaker Programming and Optimisation
Pacemaker Programming and Optimisation
Lesson 1 • Sensing Threshold Optimisation
Covers sensitivity programming to prevent oversensing and undersensing in varied conditions. Balances noise rejection with reliable intrinsic beat detection.
Lesson 2 • Capture Threshold Testing and Management
Teaches systematic threshold testing and safety margin programming for reliable capture. Directly impacts patient safety and device longevity.
Lesson 3 • AV Delay and Interval Optimisation
Explains haemodynamic optimisation of AV delay for maximum cardiac output. Applies echocardiographic and device-based optimisation methods.
Lesson 4 • Cardiac Resynchronisation Therapy Programming
Addresses biventricular pacing optimisation including LV offset and VV timing. Prepares students for the added complexity of CRT device management.
Lesson 5 • Mode Switching and Special Features
Programmes automatic mode switching, sleep rate, and hysteresis for clinical benefit. Expands programming repertoire beyond basic parameter adjustment.
Chapter 7HideHide detailsSee detailsTroubleshooting Pacemaker Malfunctions
Troubleshooting Pacemaker Malfunctions
Lesson 1 • Troubleshooting Framework and Methodology
Introduces a structured problem-solving approach for pacemaker malfunction analysis. Prevents random trial-and-error by establishing a reproducible diagnostic process.
Lesson 2 • Sensing Malfunction Diagnosis
Diagnoses oversensing and undersensing causes including lead fracture and electromagnetic interference. Applies targeted corrections to restore reliable sensing.
Lesson 3 • Pacemaker-Mediated Tachycardia
Explains the mechanism, ECG recognition, and termination of pacemaker-mediated tachycardia. Includes programming strategies to prevent recurrence.
Lesson 4 • Failure to Capture Diagnosis and Resolution
Identifies causes of capture failure including lead dislodgement, perforation, and exit block. Guides corrective programming and escalation decisions.
Lesson 5 • Battery and Lead Integrity Issues
Identifies premature battery depletion, lead insulation failure, and connector problems. Determines urgency of device replacement or lead revision.
Chapter 8HideHide detailsSee detailsRemote Monitoring and Long-Term Device Management
Remote Monitoring and Long-Term Device Management
Lesson 1 • Long-Term Follow-Up Scheduling
Establishes evidence-based follow-up intervals for stable and high-risk device patients. Integrates remote and in-person visits into a comprehensive care plan.
Lesson 2 • Setting Up and Managing Remote Monitoring
Covers patient enrolment, transmitter setup, and alert configuration in monitoring platforms. Ensures reliable data flow from patient home to clinic.
Lesson 3 • Remote Monitoring Technology Overview
Describes home transmitter systems, cellular connectivity, and data transmission protocols. Establishes the technical foundation for remote follow-up workflows.
Lesson 4 • Reviewing and Triaging Remote Transmissions
Teaches systematic review of incoming transmissions and alert prioritisation by clinical urgency. Builds efficient workflow for high-volume remote monitoring clinics.
Lesson 5 • Patient Education for Remote Monitoring
Prepares patients to operate home transmitters, recognise symptoms, and report concerns. Improves adherence and early detection of device-related events.
Your valid completion certificate
This course is for you:
Telemetry technician: wants to specialise in implantable cardiac device management.
Cardiovascular nurse: seeking deeper technical expertise in pacemaker follow-up care.
Medical assistant: aiming to transition into a higher-responsibility cardiac device role.
Allied health graduate: building specialised credentials to enter electrophysiology clinic work.
Career changer: drawn to medical technology and ready to enter cardiac device support.
Biomedical equipment technician: expanding clinical knowledge to include implantable pacing devices.
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