Length: 2 Days

Certified Medical Device Cyber Protection Engineer (CMD-CPE) Certification Program by Tonex

Certified Medical Device Cyber Protection Engineer (CMD-CPE) Certification Program by Tonex

Certified Medical Device Cyber Protection Engineer (CMD-CPE) prepares engineering focused professionals to design, build, and maintain secure connected medical technologies that protect both patients and clinical workflows. The program bridges R&D, systems, and software engineering practice with regulatory expectations for safe and secure medical devices through the full product lifecycle. Participants learn how design choices, firmware updates, connectivity, and cloud integration can introduce exploitable weaknesses if not engineered with strong cybersecurity controls and defensible architectures.

The course explains how cybersecurity failures can lead to loss of availability, compromised integrity of measurements, or unauthorized therapy changes with direct patient safety impact. It also connects cybersecurity to compliance expectations from regulators, standards bodies, and hospital buyers, helping engineers justify design decisions and documentation. By the end, participants are ready to collaborate across engineering, quality, and cybersecurity teams to harden devices, respond to threats, and sustain secure products in the field.

Learning Objectives

  • Understand medical device architectures and safety critical engineering constraints
  • Analyze how threats exploit firmware, interfaces, and connectivity in medical environments
  • Apply secure by design principles to embedded platforms and software components
  • Map technical controls to regulatory and standards requirements for medical devices
  • Develop practical approaches for vulnerability management and secure updates in the field
  • Collaborate effectively with clinical, quality, and cybersecurity teams to strengthen overall device cybersecurity posture

Audience

  • R&D and product development engineers
  • Systems and architecture engineers
  • Embedded and application software engineers
  • Quality assurance and regulatory affairs engineers
  • Clinical engineering and biomedical technology teams
  • Cybersecurity Professionals
  • Product managers and technical project leads in medical device companies

Program Modules

Module 1: Medical Device Threat Landscape

  • Connected medical ecosystems overview
  • Common attack paths in hospitals
  • Safety and security co engineering
  • Legacy and brownfield device risks
  • Supply chain and third party exposure
  • Business and patient impact scenarios

Module 2: Secure Device Architecture Foundations

  • Hardware trust anchors and boundaries
  • Secure boot and firmware integrity
  • Segmentation of safety and non safety functions
  • Cryptography choices for constrained devices
  • Identity and authentication for devices
  • Secure logging and event visibility

Module 3: Software and Firmware Protection

  • Secure coding for embedded platforms
  • Memory safety and fault handling patterns
  • Secure configuration and hardening baselines
  • Update mechanisms and rollback protection
  • Secure storage of keys and credentials
  • Static and dynamic analysis integration

Module 4: Connectivity and Interoperability Security

  • Networked device communication patterns
  • Wireless and remote access protections
  • Secure integration with hospital systems
  • API and cloud connectivity hardening
  • Protocol and interface security considerations
  • Monitoring traffic for abnormal behaviors

Module 5: Risk Management and Compliance Alignment

  • Threat modeling for medical devices
  • Safety and security risk integration
  • Mapping controls to key standards
  • Documentation to support regulatory submissions
  • Vulnerability disclosures and coordinated response
  • Third party and supplier security oversight

Module 6: Operations, Incident Response, Sustainment

  • Field deployment and commissioning security
  • Monitoring and detection in clinical use
  • Incident triage and containment approaches
  • Patch management and long term support
  • End of life and decommissioning strategies
  • Cross functional incident review and learning

Exam Domains

  1. Medical Device Cyber Risk and Safety Foundations
  2. Secure Embedded Software and Firmware Engineering
  3. Networked Interoperability and Healthcare Environment Security
  4. Regulatory, Standards, and Compliance for Medical Cyber Protection
  5. Lifecycle Risk Management and Vulnerability Governance
  6. Incident Response and Postmarket Cybersecurity Oversight

Course Delivery
The course is delivered through a combination of expert led lectures, interactive discussions, case based group work, and project oriented learning tailored to medical device engineering realities. Participants gain access to curated online resources, readings, regulatory guidance excerpts, and practical tools that support threat modeling, secure design reviews, and documentation. Realistic engineering scenarios and structured exercises help attendees connect concepts to day to day design, implementation, and maintenance decisions.

Assessment and Certification
Participants are assessed through quizzes, short written assignments, and a focused capstone exercise that integrates architecture, risk, and protection strategies for a representative medical device. Upon successful completion of all required activities and the final exam, participants receive the Certified Medical Device Cyber Protection Engineer CMD CPE certificate from Tonex.

Question Types

  • Multiple Choice Questions (MCQs)
  • Scenario-based Questions

Passing Criteria
To pass the Certified Medical Device Cyber Protection Engineer (CMD-CPE) Certification Training exam, candidates must achieve a score of 70% or higher.

Strengthen the safety and resilience of your connected medical technologies and become a trusted engineering partner for regulators, hospitals, and patients. Enroll in the Certified Medical Device Cyber Protection Engineer (CMD-CPE) Certification Program by Tonex and advance your ability to design, build, and sustain secure medical devices across their entire lifecycle.

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