Introduction
Huge amounts of data exist about every one of us, the use of which has the potential to improve our lives and the world we live in. However, concerns about the privacy of this data have naturally become an increasingly prevalent issue. The aim of privacy-preserving analysis is to utilise this data to its fullest potential without compromising our privacy.
Explaining the science
Aims
- To understand the interplay between different privacy-enhancing techniques and how they can be used in practice for privacy-preserving data analysis.
- It is important to develop a unified approach to secure, privacy-preserving data analysis as well as finding an effective, mathematically robust definition of privacy.
- We will organise periodic workshops and talks at the Turing, as well as lectures and tutorials aimed at a general audience. Although the focus of the group is on technical aspects, engaging with researchers on ethical and regulatory aspects will be one of the workshops’ goals.
Why now?
- Privacy-preserving data analysis has become a crucial aspect of data science, and is recognised as an important problem within several research communities.
- Recent advances in cryptography, systems, and hardware security, have made privacy-preserving computation practical.
- There are several deployments in existing and new products, and lots of interest both from industry and the government.
Talking points
Finding secure ways of providing public access to private datasets
Challenges: Technical issues, security breaches, human errors or scalability
Example output: Making health data accessible to researchers
Enabling joint analysis on private data held by several organisations
Challenges: Privacy concerns
Example output: Joining data from two medical organisations to produce more accurate analysis
Securely outsourcing computations on private data
Challenges: A cryptographic approach or a hardware based approach, or a combination
Example output: Leveraging cloud infrastructure to free organisations from having to maintain their own secure data centres
Securely decentralising services that rely on private data from individuals
Challenges: Avoiding storing particular individual’s data in a central server, avoiding re-identification
Example output: Computing aggregate statistics from user data collected from mobile devices or internet browsers
How to get involved
Organisers
Researchers
Dr Adrian Weller
Programme Director for Artificial Intelligence, and Turing Fellow
Professor Jon Crowcroft
Researcher at Large
Dr Nathanaël Fijalkow
Turing Research Fellow
Dr Matt Kusner
Turing Fellow
Dr Brooks Paige
Turing Fellow
David Butler
Former Research Assistant and Doctoral Student
Professor Carsten Maple
Turing Fellow
Dr Louis Aslett
Health Programme Fellow
Dr Hatice Gunes
Turing Fellow
Dr Lukasz Szpruch
Programme Director for Finance and Economics, and Turing Fellow
Dr Derek Snow
Research AssociateContact info
External researchers
Amir Houmansadr, University of Massachusetts Amherst
Antti Koskela, University of Helsinki
Aurélien Bellet, Inria
Georgi Ganev, Hazy and UCL
Boris Köpf, Microsoft Research
Borja Balle, DeepMind
Bristena Oprisanu, UCL
Benny Pinkas, Bar-Ilan University
Carmela Troncoso, EPFL
Florian Tramèr, Stanford University
Hamed Haddadi, Imperial College
Jamie Hayes, DeepMind
Jason McFall, Privitar
Lorenzo Cavallaro, King’s College London
Luca Melis, AWS Security
Mohammad Naseri, UCL
Nicolas Papernot, University of Toronto
Olya Ohrimenko, University of Melbourne
Santiago Zanella-Béguelin, Microsoft Research
Shruti Tople, Microsoft Research
Tejas Kulkarni, Aalto University
Yang Zhang, CISPA Helmholtz Center for Information Security
Calendar
Please click here to view the calendar of upcoming seminars. You can also download the calendar in ICS format here.
