To protect medical devices with PKI, each device needs to have certain components (certificates, keys) embedded during the manufacturing process. Second, PKI also relies on key and certificate protocols to verify access credentials for devices and users. First, it encrypts sensitive data transmission between medical devices and any host system. PKI is a trusted and widely used cryptographic practice that protects both data and user integrity. To better protect against these threats, medical device producers increasingly seek to protect their devices using Public Key Infrastructure (PKI). A potential hacker can compromise the device’s integrity and safety, or access confidential patient records stored on servers.įor these reasons, medical device security is a top priority. Unfortunately, wireless data is notoriously vulnerable to hacks and exploits. Each device relies on wireless data transmission to relay collected data back to the patient’s phone or other monitoring tool. Being able to track, analyze, and use accurate information is critical to ensuring a patient’s well-being. While wearable medical devices save lives, they also pose a unique set of cybersecurity challenges. This article explores how nTropy successfully designed a solution leveraging Thales Luna HSM to accelerate key injection material for wearable medical devices by 20x. NTropy.io is a Thales Technology Partner with established PKI and IoT expertise providing both advisory and implementation services.
0 Comments
Leave a Reply. |
AuthorWrite something about yourself. No need to be fancy, just an overview. ArchivesCategories |