IoT security in automotive encompasses a wide range of concerns, including data privacy, vehicle safety, and unauthorized access.

Social engineering attacks are typically not considered a type of IoT security attack in automotive, as they rely on human interaction rather than technological vulnerabilities.

Firewalls in automotive IoT systems serve multiple purposes, including preventing unauthorized access, monitoring network traffic, and encrypting data.

All of the mentioned practices contribute to securing IoT devices in automotive.

Encryption plays a crucial role in protecting data both in transit and at rest in automotive IoT systems.

Buffer overflow, cross-site scripting, and SQL injection are all common types of IoT security vulnerabilities that can be exploited in automotive systems.

Secure boot processes in automotive IoT systems serve both purposes: verifying software integrity and preventing unauthorized modifications.

Jamming attacks are a type of IoT security attack that targets the vehicle's physical components by disrupting wireless communication.

Digital certificates in automotive IoT systems serve both purposes: verifying device identity and encrypting data transmission.

All of the mentioned practices contribute to securing IoT data in automotive.

SIEM systems in automotive IoT systems serve both purposes: collecting and analyzing security logs, and detecting and responding to security incidents.

Malware attacks are a type of IoT security attack that targets the vehicle's software by infecting it with malicious code.

Patch management systems in automotive IoT systems serve both purposes: identifying and installing security patches, and keeping software and firmware up to date.

All of the mentioned practices contribute to securing IoT devices in automotive during manufacturing.

SOCs in automotive IoT systems serve both purposes: monitoring and responding to security incidents, and coordinating security efforts across different teams and departments.