Ongoing Industry Partnerships
Previously Funded Projects
The R&D project AIDA aims to develop a learning platform that will allow companies to improve their performance by making artificial intelligence a core part of their operational systems. IBM, Université Paris-Saclay, Softeam, Decisionbrain and STET have come together to create AIDA; a major development project aimed at boosting the competiveness of French companies.
The AIDA platform combines AI and automation, allowing the companies taking part in the project to:
Identify new automation possibilities to boost productivity
Increase the efficiency of automated systems, in particular with regard to monitoring
Make better decisions and provide better recommendations.
The project is at the very heart of the development of the Paris-Saclay ecosystem and France’s innovation landscape.
In many real-world applications, the training data include potentially sensitive information which need to be kept confidential. However, once trained, the software is typically made available to third parties, either directly, by selling the software itself, or indirectly, by allowing it to be queried. This access can be used to extract sensitive information about the training data, which is still present, although hidden in the parameters determining the trained model.
The overall project goal is to develop a fundamental understanding with experimental validation of the information-leakage of training data from deep learning systems:
Analyze in depth the state-of-the-art attacks to privacy in learning systems. In particular, model inversion attacks, attribute inference attacks, and membership inference attacks.
Based on the uncovered attacks, develop appropriate measures to quantify the amount of sensitive information which can be retrieved from the trained software. The resulting leakage measures will serve as a basis for the formal analysis of attacks and for the development of robust mitigation techniques.
Explore strategies to reduce the privacy threats and minimize the potential information leakage of a trained model, while trying to preserve its utility as much as possible. Suitable training strategies as well as appropriate criteria for the architecture will be explored.
The planned objectives are split into 3 work-packages:
Information-theoretic criteria and statistical tradeoffs for extracting good representations
Structured architectures/algorithms for learning
Use of stochastic complexity to assess the descriptive power (model selection) of deep neural networks.
Accomplishing the challenging goals of this proposal requires a variety of methodologies with a rich potential for transfer of knowledge between the involved fields of information theory, statistics and machine learning.