IoT in Healthcare
Secure signing, encryption, and data protection
For medical IoT manufacturers, Futurex provides the following digital signing, key management, and data encryption solutions:
Extend this functionality to other devices in production and the field across your enterprise and the globe. Like all Futurex solutions, customers can deploy on-premises, in the cloud, or both.
Futurex FIPS 140-2 Level 3-validated hardware security modules (HSMs) encrypt data from transmission to storage. Their processing power and range of functions –including point-to-point encryption (P2PE)– is highly scalable, with almost unlimited performance options.
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Futurex FIPS 140-2 Level 3-validated key management enterprise servers (KMESs) manage key lifecycles. They secure private keys, forming the basis for public key infrastructure (PKI) and an offline root certificate authority (CA). This enables device and code signing.
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Manufacturers of IoT devices have several infrastructure requirements. They need to sign devices and code, encrypt data sent over networks (locally and globally), and manage encryption keys. Medical IoT devices often deal with highly sensitive patient health data, creating new security risks. Your cryptographic infrastructure must handle these diverse functions to ensure trust among devices and prevent cybersecurity risks and must also scale according to business needs. Manufacturers also need the option to deploy on-premises, in the cloud, or as a hybrid of both. Challenges include:
Futurex encryption solutions secure each data endpoint in the network of medical IoT devices. Our key management servers give you control over every step of the encryption key lifecycle with extensive automation. Futurex devices secure private keys to establish a PKI, which underlies an offline root CA. You can manage certificate trees for digital signing and authentication from a centralized platform. With the VirtuCrypt cloud, you can deploy an army of cloud HSMs within minutes. On-premises and hybrid deployments are also available. Solutions include:
IoMT environments can involve many networked medical devices. You must secure mobile health terminals, insulin pumps, pacemakers, smartpens, and other devices with a security infrastructure that delivers strong, scalable encryption and key management services.
Key management involves generating, loading, distributing, tracking, and retiring encryption keys. With IoT solutions, good key management protects connected devices against cyber threats. With Futurex, scale your healthcare IoT key management to a global level.
You can deploy all Futurex devices on-premises with tamper-proof hardware or in the cloud with virtual cloud HSMs and KMSs. Futurex cybersecurity products include the Excrypt API, a device-agnostic API for easy integration with almost any existing cybersecurity infrastructure.
Futurex provides a remote key loading (RKL) platform where medical device manufacturers and healthcare organizations can remotely inject and securely manage encryption keys. By establishing a PKI-authenticated connection with each medical IoT device, the Futurex RKL solution enables device manufacturers to securely load, rotate, and retire keys across a vast network of medical devices without needing to access most IoT devices physically. You can do the following:
Medical IoT device manufacturers can use Futurex enterprise key management servers to establish a PKI to secure private keys and create an offline root certificate authority (CA). The offline root certificate establishes a working certificate that can digitally sign medical IoT devices and code and authenticate patient data to prevent unauthorized access to a healthcare organization’s network of healthcare IoT devices. Like the PKI, having a CA in your security infrastructure is essential to protecting connected medical devices (and the patient data they relay) and mitigating cybersecurity vulnerabilities.
Point-to-point encryption (P2PE) occurs when encryption and key management devices work together. It begins when encryption keys are injected into IoT devices that relay patient data, such as remote heart monitors or security cameras. When the IoT devices receive communications from other points in the network, the data is encrypted before being transmitted to other medical devices. This prevents data in the clear from being intercepted by cybercriminals while in transit. If hackers intercept the patient data while in transit, its encrypted status makes it indecipherable. The content requested is only decrypted within the secure environment of an HSM. Achieving a solid information security posture starts with encryption strategies like P2PE, which secures each network entry point to reduce the viable attack surface against healthcare systems.
A PKI is an indispensable part of any medical IoT architecture. It secures communication between devices on a network. Using Futurex enterprise key management servers (KMSs), organizations can generate asymmetric private keys using a certificate authority (CA). A highly secure offline root certificate establishes a hierarchy of new certificates beneath it, forming a certificate tree. The new certificates can be distributed to connected medical devices or code hashes to certify that the root CA trusts the device and code. Any time a connected medical device passes data through a network, that data contains a certificate proving that the medical device is trusted. When it comes to a hospital’s network of IoMT devices, having a PKI is one of the most foundational cyber security measures that can mitigate vulnerabilities and protect the hospital network and patients alike.
Manufacturers of medical devices may seek to achieve compliance with the FDA’s quality system regulations (QSRs). These state that device manufacturers take steps to mitigate cybersecurity risks. Futurex’s technology platform makes this an afterthought, with comprehensive hardware-backed cryptography that meets all the latest compliance standards.