Description

This curriculum spans the technical and procedural rigor of a multi-phase automotive cybersecurity engagement, addressing wireless threat modeling, secure V2X design, and incident response with the depth expected in OEM-level security architecture reviews and third-party penetration testing programs.

Module 1: Threat Modeling and Risk Assessment for Automotive Wireless Systems

Conduct STRIDE-based threat modeling on key wireless interfaces such as Bluetooth, Wi-Fi, and cellular to identify spoofing, tampering, and denial-of-service risks in vehicle ECUs.
Define attack surfaces for over-the-air (OTA) update mechanisms, including vulnerabilities in update manifest validation and cryptographic signature verification.
Evaluate the risk exposure of legacy ECUs that lack hardware security modules (HSMs) when integrated into modern wireless communication architectures.
Map regulatory compliance requirements (e.g., UNECE WP.29, ISO/SAE 21434) to specific threat scenarios involving wireless entry points.
Perform attack tree analysis on keyless entry systems to assess relay attack feasibility and determine required countermeasures like distance bounding protocols.
Assess the impact of shared wireless stacks across multiple vehicle domains (infotainment, telematics, ADAS) on lateral movement risk during a compromise.

Module 2: Secure Design of Vehicle-to-Everything (V2X) Communications

Implement IEEE 1609.2 certificate management and message signing procedures for DSRC-based safety messages while managing certificate revocation list (CRL) distribution latency.
Configure pseudonym certificate pools for C-V2X to balance privacy preservation with traceability requirements during forensic investigations.
Integrate secure time synchronization mechanisms to prevent replay attacks in V2X message exchanges without relying on GPS availability.
Design secure roadside unit (RSU) authentication workflows that prevent rogue infrastructure from injecting false traffic advisories.
Enforce message rate limiting and source validation at the V2X stack to mitigate distributed denial-of-service attacks from compromised vehicles.
Validate the cryptographic agility of V2X implementations to support migration from ECDSA to post-quantum digital signatures as standards evolve.

Module 3: Hardening In-Vehicle Wireless Technologies (Bluetooth, Wi-Fi, NFC)

Enforce secure pairing policies in Bluetooth Low Energy (BLE) key fobs using just-works vs. secure connections based on threat context and user experience trade-offs.
Isolate infotainment Wi-Fi hotspots from critical CAN or Ethernet domains using hardware-enforced network segmentation and firewall rules.
Disable unused wireless profiles and services (e.g., Wi-Fi Direct, OBEX) in production ECUs to reduce attack surface.
Implement secure firmware update mechanisms for wireless co-processors that cannot rely on the main ECU’s HSM for signature validation.
Configure NFC controllers to reject card emulation mode outside authenticated maintenance sessions to prevent unauthorized diagnostics access.
Monitor for rogue wireless access points masquerading as legitimate vehicle hotspots using 802.11w management frame protection.

Module 4: Secure Over-the-Air (OTA) Software and Configuration Updates

Design dual-signed update packages requiring both manufacturer and fleet operator signatures for enterprise vehicle deployments.
Implement delta update verification procedures that prevent rollback attacks while minimizing bandwidth consumption in low-connectivity regions.
Enforce secure boot chain validation after OTA updates, including measurement of updated firmware into Trusted Platform Module (TPM) registers.
Configure update retry logic to prevent denial-of-service via repeated failed update attempts that exhaust ECU storage or processing resources.
Integrate secure rollback protection by storing monotonic counters in write-once memory to prevent downgrade to vulnerable firmware versions.
Coordinate OTA update scheduling across dependent ECUs to maintain vehicle operability during partial update failures.

Module 5: Telematics and Cellular Interface Security

Enforce mutual TLS authentication between the telematics control unit (TCU) and backend servers using embedded hardware-backed certificates.
Implement secure SIM lifecycle management, including remote provisioning (eSIM) and decommissioning procedures for lost or stolen vehicles.
Filter and validate incoming SMS commands to the TCU to prevent unauthorized remote actions like door unlocking or engine start.
Configure cellular modem firmware update processes with secure rollback prevention and integrity checks independent of the host ECU.
Monitor for IMSI-catchers by analyzing unexpected changes in cellular tower signal strength and encryption downgrade patterns.
Segregate diagnostic data streams from consumer-facing services (e.g., navigation, streaming) within the TCU’s data handling pipeline.

Module 6: Intrusion Detection and Anomaly Monitoring for Wireless Channels

Deploy CAN IDS sensors to detect wireless-originated anomalies such as unexpected ECU reprogramming requests from the infotainment gateway.
Establish baselines for normal wireless communication patterns (e.g., Bluetooth connection frequency, Wi-Fi scan intervals) to detect probing behavior.
Correlate wireless interface logs with vehicle state (e.g., ignition off, parked) to flag suspicious remote access attempts.
Implement rate-based thresholds on wireless-initiated diagnostic requests to mitigate brute-force attacks on UDS services.
Integrate ECU-level execution monitoring to detect code injection resulting from wireless protocol stack vulnerabilities.
Forward encrypted IDS alerts to backend security operations centers using authenticated, low-latency channels without exposing raw vehicle data.

Module 7: Security Testing and Validation of Wireless Systems

Conduct protocol fuzzing on Bluetooth stack implementations using tools like AFL or Boofuzz to uncover memory corruption vulnerabilities.
Perform wireless penetration testing using software-defined radios (SDRs) to simulate rogue base stations and man-in-the-middle attacks.
Validate secure key storage in wireless ECUs by attempting physical extraction using JTAG and chip-off techniques in lab environments.
Test resilience of V2X message validation under high-load conditions to ensure safety-critical messages are not dropped during congestion.
Verify secure disposal of cryptographic keys in decommissioned or repurposed telematics units.
Assess the effectiveness of RF shielding and jamming detection mechanisms in preventing unauthorized wireless access during physical vehicle inspections.

Module 8: Incident Response and Forensics for Wireless Attacks

Preserve RF log metadata (e.g., signal strength, channel usage, timestamps) during wireless intrusion investigations for timeline reconstruction.
Isolate compromised wireless ECUs using remote disable commands while maintaining minimal connectivity for forensic data exfiltration.
Recover and analyze firmware images from wireless co-processors to identify persistent malware or backdoors.
Coordinate with mobile network operators to obtain call detail records (CDRs) for forensic correlation during telematics-based attacks.
Document chain-of-custody procedures for wireless modules removed from vehicles for laboratory analysis.
Implement secure remote wipe policies for embedded wireless credentials without disrupting critical vehicle functionality.