FutureTPM will provide a new generation of TPM-based solutions, incorporating robust and formally verified QR cryptographic primitives.
The goal is to enable a smooth transition from current TPM environments, based on existing standardised cryptographic techniques, to systems providing enhanced security through QR cryptographic functions, including secure authentication, encryption and signing functions.
FutureTPM will fill the gaps that currently threaten its long-term security and will generate a secure root of trust that can be used for interacting with Cloud services, accessing corporate services, performing eCommerce transactions, along with a wide range of other services. Furthermore, since the TPM shares many functions with other widely deployed devices such as smart cards, the FutureTPM solutions will also benefit their applications.
Who is the project designed for?
The FutureTPM project is aimed at designing and developing a Quantum-Resistant (QR) Trusted Platform Module (TPM). FutureTPM will provide a new generation of TPM-based solutions, including hardware, software and virtualization environments, by incorporating robust and physically secured Quantum-Resistant cryptographic primitives. This will allow long-term security, privacy and operational assurance for future ICT systems and services.
FutureTPM solutions will also improve the security of Hardware Security Modules, Trusted Execution Environments, Smart Cards, and the Internet of Things. FutureTPM focuses on, but is not limited to TPMs. Hosted under the umbrella of secure hardware, and taking as granted the fact that in the very near future nearly all devices (and software modules) will need to incorporate secure hardware (and software) modules, the innovation capacity of the project outcomes extends to a vast plethora of market segments indicatively including ECUs in the automotive industry, network devices and mobile phones in the telecommunications sector, smart sensors in the smart cities domain etc. Other examples include Intelligent Transportation Systems, eHealth, Industry 4.0, Digital Media and Content protection, etc.
How is your project benefitting the end-user?
FutureTPM aims to prove and validate the applicability, usability and effectiveness of the QR TPM concepts, models and algorithms in real-world settings, including industry and commerce, which may be affected by the advent of quantum computing.
By delivering a holistic approach safeguarding strong and solid implementation of cryptographic protocols, securing hardware and software against current but also future threats, FutureTPM will facilitate increased trust in many existing and forthcoming applications and systems including e-banking, e-wallets, access control, activity tracking, IoT devices, industrial controls, sensors, smart home appliances, smart phones, secure storage, biometric authentication, anonymous access, etc. Furthermore, FutureTPM will deliver future-proof, QR cryptographic algorithms, safeguarding the fundamental rights of user's privacy and data protection.
This will be achieved by examining their application to the following predefined set of use cases:
Please briefly describe the results your project achieved so far
The FutureTPM project started in January 2018. After the kick-off meeting on 23rd-24th January in Graz, Austria the consortium started working on FutureTPM System Requirements and the Use Cases.
The focus has been on:
In conjunction with research partners, the use case partners have made progress in shaping their use case requirements from narrative user stories into technical requirements. In addition to that the consortium started to individuate possible quantum-resistant constructions for the TPM, and the possible security scenarios depending on the computational capabilities of the adversary (i.e., whether the adversary has access to a quantum computer).
FutureTPM already build up cooperation with the H2020 PROMETHEUS project, plans for common dissemination activities and transfer of knowledge were made.
What are the next steps for your project?
After finalizing the envisioned use case requirements, FutureTPM will design an overall architecture to define multiple components which meet these requirements and also define the intercommunication among these components in order to address all the requirements in an integrated manner. Furthermore, the FutureTPM consortium will keep on investigating the QR cryptographic primitives and algorithms for use.
This will be coupled with an in-depth (formal) security analysis of the chosen algorithms, in the context of advanced trust, threat and adversary models. The development of a reactive risk-assessment framework, to ensure security in the face of emerging threats, will also commence.