Our Data can Be ours, where individuals and citizens are considered the rightful owners of their own data, is generally known as Data Ownership or Data Sovereignty.
This framework is a fundamental shift from traditional models, where corporations or governments often hold control over user data. Instead, it emphasizes that individuals have legal and ethical rights regarding the control, usage, and distribution of their personal information.
The shift toward citizens owning their data is central to modern data governance. In many countries, this is being codified through new laws and frameworks that grant individuals explicit rights:
Federated Learning (FL) is revolutionizing AI by enabling organizations to train shared models without moving sensitive data. Instead of centralizing information, FL keeps the data on the client side. No client data is moving to the central server or cloud; rather, only the hyperparameters are moving in an encrypted way. Server/cloud then trained its model on this encrypted data and returned encrypted results to the client. Now, only the client will be able to decrypt the results. This way, the server/ cloud model will be trained while keeping raw data secure and private.
This decentralized approach is ideal for complying with data privacy laws like GDPR, as data remains within its original jurisdiction. FL significantly reduces breach risks and ensures regulatory compliance.
In fraud detection, FL empowers financial institutions to collaborate on smarter AI models without exposing customer data. By sharing insights instead of information, they enhance accuracy and threat response—while preserving privacy.
FL is a critical solution for financial institutions, prioritizing privacy-by-design by allowing AI model training without centralizing sensitive data. While FL keeps raw data local, it uses sophisticated techniques like secure aggregation and anonymization to protect model updates during the collaborative process.
FaceOff’s ACE engine, powered by FL, protects financial data by keeping it local and sharing only encrypted model updates. Using advanced cryptography like MPC, masking, and homomorphic encryption, it prevents the exposure of individual data. Techniques like Differential Privacy add noise to ensure anonymity, enabling secure, regulation-compliant fraud detection across institutions, without compromising customer privacy.