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Douglas Stebila 27131da895 Update README information about test harness.
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liboqs

liboqs is a C library for quantum-safe cryptographic algorithms.

Overview

The Open Quantum Safe (OQS) project has the goal of developing and prototyping quantum-resistant cryptography.

liboqs is an open source C library for quantum-safe cryptographic algorithms. liboqs initially focuses on key exchange algorithms. liboqs provides a common API suitable for post-quantum key exchange algorithms, and will collect together various implementations. liboqs will also include a test harness and benchmarking routines to compare performance of post-quantum implementations.

OQS will also include integrations into application-level protocols to provide easy prototyping of quantum-resistant cryptography. Our first integration will be in OpenSSL.

More information on OQS can be found in slides 64–67 of this presentation by Douglas Stebila.

Contents

OQS currently contains:

  • rand_urandom_chacha20: pseudorandom number generator seeded from /dev/urandom and expanded using the ChaCha20 stream cipher
  • kex_rlwe_bcns15: key exchange from the ring learning with errors problem (Bos, Costello, Naehrig, Stebila, IEEE Symposium on Security & Privacy 2015, https://eprint.iacr.org/2014/599)

Building and Running

Builds have been tested on Mac OS X 10.11.6 and Ubuntu 16.04.1.

To build, clone or download the source from Github, then simply type:

make

This will generate:

  • liboqs.a: A static library with implementations for the algorithms listed in "Contents" above.
  • test_rand: A simple test harness for the random number generator. This will test the distance of PRNG output from uniform using statistical distance.
  • test_kex: A simple test harness for the default key exchange algorithm. This will output key exchange messages; indicate whether the parties agree on the session key or not over a large number of trials; and measure the distance of the sessions keys from uniform using statistical distance.

Documentation

Some source files contain inline Doxygen-formatted documentation. The documentation can be generated by running:

doxygen

This will generate the docs/html directory.

Contributing and using

We hope OQS will provide a framework for many post-quantum implementations.

In the immediate term, if you have feedback on our API (kex.h or rand.h), please contact us so we can ensure our API covers a wide range of implementation needs.

If you have or are writing an implementation of a post-quantum key exchange algorithm, we hope you will consider making an implementation that meets our API so that others may use it and would be happy to discuss including it directly in liboqs.

If you would like to use liboqs in an application-level protocol, please get in touch and we can provide some guidance on options for using liboqs.

We are also interested in assistance from code reviewers.

Please contact Douglas Stebila <stebilad@mcmaster.ca>.

Current status and plans (2016/08/11)

Our initial launch was on August 11, 2016, containing a single key exchange algorithm (kex_rlwe_bcns15) with a basic test harness. We plan to be making the following updates over the next month:

  • kex_lwe_frodo implementation (https://eprint.iacr.org/2016/659)
  • kex_rlwe_bcns15 generalization to multiple security levels
  • kex_ntru_ees743p1 wrapper around NTRU open source public key encryption (https://github.com/NTRUOpenSourceProject/ntru-crypto)
  • kex_rlwe_newhope wrapper around "NewHope" ring-LWE key exchange (https://eprint.iacr.org/2015/1092)
  • Benchmarking scripts for key exchange algorithms
  • Rigourous test harness for key exchange algorithms
  • Rigourous test harness for random number generator
  • Detailed Doxygen documentation for existing API and public functions
  • Modular build system
  • Integration of liboqs into OpenSSL to enable testing of post-quantum algorithms in TLS connections
  • Finalize open source license for liboqs
  • Coding guidelines

Over the next few months, we plan to be making the following updates:

  • Building on more systems, including building of assembly code / optimizations
  • Inclusion of a McEliece-based key exchange method
  • Inclusion of a supersingular isogeny Diffie–Hellman key exchange method
  • Code reviews including static analysis
  • Integration of liboqs into additional application-level protocols.

In the long term, we are also interested in including post-quantum signature schemes.

Team

The Open Quantum Safe project is lead by Michele Mosca (University of Waterloo) and Douglas Stebila (McMaster University).

Contributors

  • Shravan Mishra (University of Waterloo)

Support

Development of OQS has been supported in part by the Tutte Institute for Mathematics and Computing. Research projects which developed specific components of OQS have been supported by various research grants; see the source papers for funding acknowledgements.