Karol Nemoga Vojenské spravodajstvo Brunovce , 26. September 201
Dec 2013 – Dec 2016 NPD: Otokar Grosek, SK PPD: Eran Tromer, IL CoD: Rainer Steinwandt, US CoD: Viktor Fischer,FR NIST (US National Institute of Standard and Technology) announced: Post-Quantum Project submissions for quantum resistant PKC algorithm, deadline Nov 30, 2017 Brunovce, 26. September 2018
SK Team FEI STU Prof. Grosek + 5 members of the team NATO “Godfather” Karol Nemoga, SK END Users 2013 ◦ Military Intelligence, Ministry of Defence, Slovakia ◦ NSA Slovakia ◦ ST Microelectronics, France ◦ First Data Corporation, USA Brunovce, 26. September 2018
Project - identified secure parameter sets and implementations for asymmetric encryption and digital signatures in a post- quantum setting: ◦ On the cryptanalytic side, our objective is to identify realistic assumptions and parameter sets that can withstand a well-funded attacker ◦ On the implementation side, our objective is to provide implementations which can withstand common side-channel attacks, including physical (power analysis, electromagnetic analysis, etc.) and software-based ◦ Collecting the results, identification of methods which are able to withstand side-channel attacks and which offer long term security in a post-quantum environment Brunovce, 26. September 2018
Several Meetings/Conferences of the Project Scientific project, main results - formaly ◦ 46 scientific papers (LNCS series Proc., Quantum Inform. Process., IEEE journals, ACM journals, …) ◦ 22 Conference presentations (Crypto, CHES, SAC, ACNS, ACM, PQC, …) Brunovce, 26. September 2018
Research/results on McEliece cryptosystem Side channel attacks, McEliece, general systems results, identification of methods and params which are able to withstand side-channel attacks, with long term security in a post- quantum environment Side products – ◦ Acoustic attacks ◦ Ground attacks ◦ Emanation attacks (0.5m from PC ) Brunovce, 26. September 2018
Tel Aviv University, September 26-31, 2016 O. Grosek, V. Fischer Trajan Horse Inst Math ISEG Meeting, February 2017
Thomas Eisenbarth: Side Channel Analysis for McEliece Implementations Pierre-Louis Cayrel: Side Channel Analysis of the McEliece PKC Using Binary Goppa Codes Rainer Steinwandt: Understanding the Cost of Grover's Algorithm for Finding a Secret Key David Naccache, Remi Geraud: Thrifty Zero- Knowledge When Linear Programming Meets Cryptography ISEG Meeting, February 2017
Pavol Zajac: McEliece in Practice Viliam Hromada: Side Channel Analysis of McEliece Cryptosystem Eran Tromer: Physical Side Channel Attacks on PCs Cetin Kaya Koc: Hardware Trojans in Incompletely Specified Digital Systems Boaz Tsaban: Nonabelian Cryptosystems, for a Change? ISEG Meeting, February 2017
Oscar Reparaz: Side-Channel Countermeasures for Lattice-Based Post -Quantum Cryptographic Implementations Dorian Goldfeld: Quantum Resistant Group Theoretic Public Key Methods ISEG Meeting, February 2017
P.-L. Cayrel, E. Tromer Rainer Steinwandt Çetin Kaya Ko ç ISEG Meeting, February 2017
Workshop for Call I, June 7-8, NATO HQ, Brussels ◦ Invited speakers Profs. Grosek (SK), Steinwandt (US), Kiraz (Turkey) NATO: Dr. Deniz Beten, Dr. Catharina Candolin NATO ISEG: Nemoga (SK), Souza (Port.), Unal (Tur) SPS CYBER DEFENCE CLUSTER WORKSHOP, December 11, NATO HQ Brussels ◦ Invited speakers Profs. Zajac (SK), Ziman (SK), Kiraz (Turkey), Baykal (Tur) NATO: Dr. Deniz Beten, Dr. Catharina Candolin, Illimar Lepik von Wirén (NATO CCDCOE Center of Excellence, Tallin) NATO ISEG: Nemoga (SK), Souza (Port.), Unal (Tur), Ionita (RO), Muylaert (Belg) Brunovce, 26. September 2018
Winner of NATO Call (4 projects from 22 proposals) Oct 2018 – Sept 2021 NPD: Otokar Grosek, SK PPD: Christian Colombo, Malta CoD: Rainer Steinwandt, US CoD: Maria Isabel Gonzales Vasco, Spain NATO “Godfather” Karol Nemoga, SK SK Team Prof. Grosek + 5 researchers END Users: ◦ Military Intelligence, Ministry of Defense, SK ◦ Centro Criptologico Nacional, Madrid ◦ Rhode&Schwarz Cybersecurity, Berlin Brunovce, 26. September 2018
This proposal will ◦ design , ◦ analyze , ◦ Implement PQ solutions to securely establish cryptographic keys among a group of participants. Cryptographic theory to establish structural guarantees at the protocol level and explore performance through implementation on different platforms. Hardness assumptions are chosen to be quantum- safe (based on coding theory or/and lattices). Brunovce, 26. September 2018
Develop general techniques and concrete efficient protocols for quantum-safe authenticated group key establishment (AGKE). Develop techniques for securely implementing quantum-safe AGKE protocols and provide actual secure implementations on different target platforms. efficient solutions using either lattice techniques or tools from code-based cryptography Brunovce, 26. September 2018
Start -lattice-based 2-party protocol with constructions using coding theory. Next work-plan ◦ Choice ice of of securit rity model ◦ Imple lement ntat ation ion security rity of cryptographic raphic primitive itives ◦ Ident ntif ify candidat idate protocol ◦ Ident entify ify protocol-lev evel el securit rity mechan anism isms ◦ Protoco col and parameter r optimiza ization ion ◦ Deploy loy implement ntat ation ion-le level security rity mecha hanism nisms Brunovce, 26. September 2018
Brunovce, 26. September 2018
Recommend
More recommend
