Post Quantum Cryptography (PQC) for IoT & Embedded Systems

This program focuses on how post quantum cryptography can be engineered into IoT and embedded systems that must remain trustworthy long after large scale quantum computers become practical. Participants explore how lattice based, hash based, and code based schemes can protect constrained devices, gateways, and cloud back ends without breaking performance, memory, or power budgets.

The course links PQC design decisions directly to real world cybersecurity risk for connected products and critical infrastructure, helping teams reduce exposure to future cryptanalytic breakthroughs. Emphasis is placed on key management, firmware signing, secure boot, and update pipelines that uphold cybersecurity assurance from silicon to cloud. By the end, attendees are ready to plan migrations, challenge vendor claims, and define a realistic roadmap that keeps IoT and embedded platforms resilient in a rapidly evolving threat landscape.

Learning Objectives

• Understand the quantum threat to classical cryptography for IoT and embedded ecosystems
• Explain core post quantum cryptographic families and their suitability for constrained devices
• Design secure onboarding, key management, and credential lifecycle for embedded platforms
• Evaluate performance, memory, and bandwidth tradeoffs when deploying PQC in firmware and protocols
• Strengthen cybersecurity for connected products by integrating quantum resistant primitives into architecture and governance
• Plan phased migration strategies that balance legacy compatibility, safety, and regulatory expectations
• Interpret standards, profiles, and vendor offerings to make informed technical and cybersecurity decisions

Audience

• Cybersecurity Professionals
• IoT and embedded systems engineers
• Security architects and product security leads
• Firmware and RTOS developers
• Enterprise and industrial solution architects
• Risk, compliance, and governance specialists
• Technical product managers for connected devices

Program Modules

Module 1: Quantum Threats to Connected IoT Devices

• Quantum computing impact on current cryptography
• Threat models for connected sensors and controllers
• Attack surfaces in constrained and headless devices
• Risk profiling for consumer and industrial deployments
• Prioritizing assets and data with long secrecy lifetimes
• Mapping quantum risks to cybersecurity requirements

Module 2: Post Quantum Primitives for Constrained Hardware

• Overview of lattice based and hash based schemes
• Parameter selection for low power microcontrollers
• Footprint, latency, and bandwidth considerations
• Hardware acceleration and secure element integration
• Tradeoffs between NIST candidates for IoT use
• Interpreting PQC benchmarks for cybersecurity goals

Module 3: Secure Protocols and Firmware with PQC

• Integrating PQC into TLS, DTLS, and QUIC profiles
• Hybrid key establishment with classical algorithms
• Secure boot chains and quantum resistant firmware signing
• Over the air update design for long lived devices
• PQC aware VPN, tunnel, and gateway architectures
• Ensuring end to end cybersecurity in mixed environments

Module 4: Key Management and Identity at Scale

• Identity models for devices, modules, and components
• Post quantum ready PKI and certificate profiles
• Credential provisioning and secure onboarding flows
• Lifecycle management for keys, certificates, and manifests
• Supply chain integrity and provenance for embedded builds
• Monitoring, rotation, and revocation to maintain cybersecurity

Module 5: Migration Roadmaps for Legacy Ecosystems

• Discovery and inventory of cryptographic dependencies
• Impact analysis on protocols, stacks, and hardware limits
• Coexistence strategies for classical and PQC deployments
• Roadmapping by risk, cost, and regulatory drivers
• Working with vendors, integrators, and chip suppliers
• Building business cases that tie PQC to cybersecurity outcomes

Module 6: Testing Certification and Operational Assurance

• Test strategies for PQC enabled devices and stacks
• Interoperability validation across vendors and profiles
• Performance and reliability evaluation under realistic loads
• Security testing for side channel and fault resistance
• Documentation, evidence, and audit support for certification
• Continuous improvement of PQC deployments in cybersecurity programs

Exam Domains

1. Quantum Adversary Modeling and Risk Assessment
2. Mathematical Foundations of Post Quantum Cryptographic Schemes
3. IoT and Embedded Security Architecture Design with PQC
4. Implementation Security and Side Channel Defense Techniques
5. Governance, Compliance, and Policy for Quantum Resilient Systems
6. Operations Monitoring and Incident Response in PQC Enabled Environments

Course Delivery
The course is delivered through a combination of lectures, interactive discussions, focused workshops, and project based learning facilitated by experts in post quantum cryptography, IoT, and embedded security. Participants gain access to curated online resources, including readings, case studies, and practical tools that help translate concepts into real design decisions for connected products and infrastructure.

Assessment and Certification
Participants are assessed through quizzes, structured assignments, and an applied capstone project that maps PQC strategies onto a realistic IoT or embedded architecture. Upon successful completion of the course, participants receive a certificate in Post Quantum Cryptography (PQC) for IoT & Embedded Systems and Post Quantum Certification Program, demonstrating their readiness to lead quantum resilient cybersecurity initiatives.

Question Types

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

Passing Criteria
To pass the Post Quantum Cryptography (PQC) for IoT & Embedded Systems Certification Program exam, candidates must achieve a score of 70% or higher.

Prepare your organization for the coming quantum era by hardening IoT and embedded platforms today. Enroll in the Post Quantum Cryptography (PQC) for IoT & Embedded Systems  Certification Program by Tonex to gain practical skills, credible certification, and the confidence to drive quantum ready cybersecurity roadmaps across your products and infrastructure.