Course description

The Implementation of a Biometric Authentication System on Automobile is a cutting-edge automotive security and user-experience technology that uses unique biological or behavioral characteristics of individuals to verify and grant access to a vehicle. This system replaces or works alongside conventional mechanical keys, smart keys, and remote entry systems with more secure, user-friendly biometric methods.

What will i learn?

  • **Course Learning Outcomes: Implementation of Biometric Authentication System on Automobile** ### Overall Course Outcome By the end of this course, participants will be able to **design, develop, integrate, and validate a secure, reliable, and production-ready biometric authentication system for modern automobiles**, meeting automotive industry standards for safety, cybersecurity, and user experience. ### Specific Learning Outcomes #### 1. Knowledge Outcomes (What you will understand) - Explain the principles, strengths, limitations, and suitability of various biometric modalities (fingerprint, facial, iris, voice, ECG, vein pattern, gait, etc.) in automotive environments. - Describe automotive electronic architectures and how biometric systems integrate with ECUs, CAN/LIN/Ethernet networks, immobilizers, and ADAS. - Understand key standards: **ISO/SAE 21434** (Cybersecurity), **ISO 26262** (Functional Safety), **UNECE WP.29**, and data privacy regulations (GDPR, CCPA). - Analyze real-world challenges such as environmental variations, spoofing attacks, sensor degradation, and user diversity. #### 2. Technical & Practical Skill Outcomes (What you will be able to do) - Select, interface, and calibrate appropriate biometric sensors for vehicle integration (door handles, steering wheel, dashboard, etc.). - Develop embedded software (C/C++) for biometric data acquisition, feature extraction, template matching, and liveness detection. - Implement secure biometric template storage and matching using encryption, TPM/HSM, and anti-tampering techniques. - Build multi-modal and multi-factor authentication systems with fallback mechanisms. - Integrate the biometric system with vehicle functions: door access, engine start, driver personalization (seat, mirrors, climate, infotainment), and safety features. - Use automotive tools (CANoe, Vector, oscilloscopes) to test and debug communication between biometric modules and vehicle networks. - Perform security testing: spoofing attacks, side-channel analysis, and penetration testing of biometric systems. - Apply machine learning / deep learning (TensorFlow Lite, OpenCV) for improved accuracy and adaptation in real driving conditions. #### 3. Professional & Soft Skill Outcomes - Design user-centric systems while addressing privacy, ethical, and inclusivity concerns. - Conduct risk assessments and develop mitigation strategies for biometric system failures. - Work effectively in cross-functional teams (hardware, software, cybersecurity, design). - Document and present technical designs compliant with automotive development processes (V-model, ASPICE). - Evaluate the business and societal impact of biometric authentication in future mobility (autonomous vehicles, car-sharing, fleet management). ### Measurable / Demonstrable Outcomes (Capstone Project) Upon successful completion, you will have: - A fully functional prototype of a multi-modal biometric vehicle access and start system. - Complete technical documentation (requirements, architecture, test reports, security analysis). - A professional presentation and demonstration ready for industry review or academic defense. - Portfolio piece showcasing embedded development, AI integration, and automotive cybersecurity skills. ### Career & Industry Outcomes Graduates of this course will be equipped to: - Join leading automotive OEMs (BMW, Mercedes, Tesla, Toyota, etc.) as Biometric Systems Engineers. - Work with Tier-1 suppliers (Bosch, Continental, Denso, Harman) on next-generation security solutions. - Contribute to autonomous vehicle and connected car projects. - Pursue roles in automotive cybersecurity consultancies or research institutions. - Add significant value in the growing “Software-Defined Vehicle” (SDV) and biometric mobility market. **Certification Statement** Participants who successfully complete all assessments and the capstone project will receive a formal certificate stating they have achieve

Requirements

  • **Course Requirements: Implementation of Biometric Authentication System on Automobile** ### 1. Academic & Educational Requirements - **Minimum Qualification**: Bachelor’s degree (or equivalent) in one of the following fields: - Automotive Engineering - Electrical/Electronics Engineering - Mechanical/Mechatronics Engineering - Computer Science or Computer Engineering - Embedded Systems / Cybersecurity - **Alternative Entry**: Diploma holders with 3+ years of relevant industry experience in automotive electronics or embedded systems may be considered (subject to interview/portfolio review). ### 2. Technical Prerequisites (Must-Have Knowledge) | Area | Required Knowledge | |-------------------------------|------------------------------------------------------------------------------------| | Embedded Systems | Microcontrollers (ARM, STM32, ESP32), GPIO, interrupts, PWM | | Programming | Strong C/C++ skills; Python (intermediate) | | Automotive Networks | CAN bus, LIN, Automotive Ethernet basics | | Electronics | Basic analog & digital circuits, sensors & actuators | | Operating Systems | Real-Time Operating Systems (RTOS) fundamentals | | Security | Basic cryptography, encryption concepts | **Nice-to-Have (Advantageous)**: - Machine Learning / Deep Learning basics - Computer Vision (OpenCV) - Signal Processing - Automotive Functional Safety (ISO 26262) - Automotive Cybersecurity (ISO/SAE 21434) ### 3. Hardware Requirements (For Hands-on Labs & Projects) **Minimum Setup (Student must have or arrange access):** - Laptop/Desktop: Windows 11 / Linux (Ubuntu 22.04+), 16 GB RAM minimum, 500 GB SSD - Development Board: STM32 Nucleo / ESP32 DevKit / Arduino Due (or equivalent) - Biometric Sensors: - Fingerprint module (e.g., AS608 or R307) - Camera module (OV2640 or higher for facial recognition) - Microphone for voice recognition - CAN Bus Tools: USB-CAN adapter (e.g., PCAN-USB or cheap MCP2515 module) - Power Supply, Breadboards, Jumper wires, Multimeter **Recommended (for advanced projects):** - Automotive-grade ECU simulator or real vehicle test bench (provided in lab/hybrid mode) - High-quality biometric modules (e.g., Bosch or Goodix fingerprint sensors) - Raspberry Pi 5 (for edge AI processing) ### 4. Software Requirements - **Development Tools**: - STM32CubeIDE or Keil MDK - VS Code + PlatformIO - Python 3.10+ with libraries: OpenCV, TensorFlow Lite, NumPy, SciPy - **Automotive Tools**: - CANoe / CANalyzer (student license) - Vector tools or open-source alternatives - **Simulation Software**: - MATLAB & Simulink (Automotive Toolbox) - Proteus or Tinkercad for circuit simulation - **Version Control**: Git & GitHub ### 5. Time & Commitment Requirements - **Weekly Time Commitment**: 8–12 hours (4–6 hours theory + 4–6 hours practical) - **Attendance**: Minimum 75% for live/online sessions - **Language Proficiency**: Good command of English (all materials and instruction in English) ### 6. Additional Requirements - **Operating System**: Dual boot or virtual machine with Linux strongly recommended - **Internet**: Stable high-speed internet (for online mode and cloud-based ML training) - **Safety & Ethics**: Students must agree to follow ethical guidelines regarding biometric data handling - **Legal**: Students are responsible for complying with local data protection laws when working with real biometric data ### 7. For Online / Hybrid Participants - Webcam and microphone required for interactive sessions and proctored assessments - Access to cloud lab environments will be provided for those without full hardware

Frequently asked question

This course provides a comprehensive, hands-on guide to designing, developing, and implementing biometric authentication systems in modern vehicles. It covers fingerprint, facial recognition, iris, voice, and multi-modal biometrics integrated with automotive ECUs, security protocols, and user personalization features.

Automotive engineers and embedded systems developers Cybersecurity professionals in the automotive sector Mechatronics and Electronics Engineering students Researchers and professionals working on connected/autonomous vehicles Anyone interested in automotive security and future mobility technologies

Free

Lectures

6

Quizzes

3

Skill level

Advanced

Expiry period

12 Months

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