GRAIMATTER Green Paper: Recommendations for disclosure control of trained Machine Learning (ML) models from Trusted Research Environments (TREs)
Project Overview
The document explores the integration of generative AI in education, emphasizing the implementation of machine learning (ML) models within Trusted Research Environments (TREs) to safeguard personal data. It highlights the increasing demand for ML in educational contexts while underscoring the necessity for robust disclosure control measures to protect sensitive information. The discussion includes the ethical implications and challenges of employing ML, such as the risks of data disclosure and the requirement for tailored controls that differ from traditional statistical methods. Furthermore, it stresses the importance of transparency, accountability, and the training of researchers and staff to comply with legal and ethical standards when managing these AI models. Through various case studies, the document illustrates potential risks associated with ML, particularly in terms of data privacy, revealing how unintended disclosures can occur through model predictions. This reinforces the urgent need for effective data protection strategies and ethical considerations in the deployment of AI technologies within both educational and healthcare settings. Overall, the document advocates for careful governance of generative AI applications to ensure their ethical use and the protection of personal data in educational environments.
Key Applications
Machine Learning for Educational Data Analysis and Safe Model Deployment
Context: In educational research and analysis, sensitive data is analyzed within secure environments. Researchers and educators utilize machine learning models to derive insights while ensuring compliance with data protection legislation. This includes both training models and deploying them safely in educational settings.
Implementation: Utilization of tools like TensorFlow and scikit-learn within Trusted Research Environments (TREs) and the creation of 'Safe Wrappers' to enforce safe hyperparameters. This approach ensures models are developed and deployed in a manner that prioritizes data privacy and protection compliance.
Outcomes: Enhanced analytical capabilities for educational data while protecting personal information. Improved efficiency in research processes and increased safety in releasing machine learning models, maintaining educational insights.
Challenges: Ensuring models do not unintentionally disclose personal data, managing compliance with evolving legal frameworks, and the need for continuous updates and maintenance of safety protocols.
Predictive Models for Cancer Risk and Treatment Success
Context: In clinical settings, healthcare professionals and researchers utilize predictive models based on patient data to assess cancer risk and predict treatment success. These models aim to facilitate personalized medicine and improve patient outcomes.
Implementation: Training machine learning models on patient data to predict risks of cancer diagnosis and treatment responses. These models are integrated into clinical systems for querying risk predictions and treatment planning, ensuring data security and compliance with medical standards.
Outcomes: Enabled clinicians to assess individual cancer risks and provided probabilities for treatment success, facilitating personalized medicine.
Challenges: Risks associated with disclosing sensitive patient information, particularly regarding high-profile individuals, and maintaining patient confidentiality in clinical applications.
Predictive Models for Employment Outcomes
Context: In recruitment settings, models are employed to predict employment outcomes, specifically focusing on factors such as potential insolvency among candidates with a history of drug use.
Implementation: The model was designed to analyze candidate data to provide insights into employment risks related to drug use. However, the implementation was misused by recruitment agencies for candidate screening.
Outcomes: Intended to help drug users by providing support; however, it resulted in discrimination against candidates based on inferred drug usage.
Challenges: Misapplication of the model led to privacy violations and significant ethical concerns regarding discrimination and bias in recruitment practices.
Implementation Barriers
Technical
Complexity of ML models makes it difficult to assess disclosure risks; traditional disclosure control methods are inadequate. Technical expertise required to implement and maintain machine learning models safely.
Proposed Solutions: Develop tailored disclosure control guidelines specifically for ML models and training programs for researchers and TRE staff to enhance their understanding of machine learning and disclosure controls.
Ethical and Legal
Compliance with data protection legislation is challenging due to the potential for ML models to encode personal data. Legal complexities surrounding the release of machine learning models and the potential for data breaches.
Proposed Solutions: Implement comprehensive ethical and legal frameworks for assessing risks and controls associated with ML models, along with clear legal frameworks and guidelines for data sharing, including contractual obligations for researchers.
Privacy Risk
Potential for sensitive patient information to be disclosed through model predictions.
Proposed Solutions: Implementing differential privacy measures and ensuring that sensitive data is not included in training datasets.
Misuse of AI Models
Models intended for beneficial uses can be misapplied for discriminatory practices.
Proposed Solutions: Establishing strict guidelines and oversight for the use of AI models in sensitive contexts.
Data Security
Vulnerabilities in the model that can lead to attribute and membership inference attacks.
Proposed Solutions: Developing and utilizing more secure modeling techniques, such as differential privacy, to protect training data.
Project Team
Emily Jefferson
Researcher
James Liley
Researcher
Maeve Malone
Researcher
Smarti Reel
Researcher
Alba Crespi-Boixader
Researcher
Xaroula Kerasidou
Researcher
Francesco Tava
Researcher
Andrew McCarthy
Researcher
Richard Preen
Researcher
Alberto Blanco-Justicia
Researcher
Esma Mansouri-Benssassi
Researcher
Josep Domingo-Ferrer
Researcher
Jillian Beggs
Researcher
Antony Chuter
Researcher
Christian Cole
Researcher
Felix Ritchie
Researcher
Angela Daly
Researcher
Simon Rogers
Researcher
Jim Smith
Researcher
Contact Information
For information about the paper, please contact the authors.
Authors: Emily Jefferson, James Liley, Maeve Malone, Smarti Reel, Alba Crespi-Boixader, Xaroula Kerasidou, Francesco Tava, Andrew McCarthy, Richard Preen, Alberto Blanco-Justicia, Esma Mansouri-Benssassi, Josep Domingo-Ferrer, Jillian Beggs, Antony Chuter, Christian Cole, Felix Ritchie, Angela Daly, Simon Rogers, Jim Smith
Source Publication: View Original PaperLink opens in a new window
Project Contact: Dr. Jianhua Yang
LLM Model Version: gpt-4o-mini-2024-07-18
Analysis Provider: Openai