LEARNING THEORY & OPTIMISATION
Generalisation, statistical learning, optimisation methods, uncertainty, and the mathematical foundations of reliable learning.
Dates: February 2-3, 2027Location: Berlin, Germany
ML FORWARD SUMMIT
Explore machine learning research, systems and applications across 16 topic areas.
February 2-3, 2027 / Berlin, Germany
Connect the 16 topic areas through prediction, model lifecycle engineering, efficient deployment and applied case studies.
Generalisation, statistical learning, optimisation methods, uncertainty, and the mathematical foundations of reliable learning.
Neural architectures, self-supervised learning, transfer learning, feature representations, and training methods.
Language understanding, speech, retrieval-augmented generation, adaptation, reasoning, and language-model evaluation.
Image and video understanding, detection, segmentation, 3D vision, and visual learning across real-world environments.
Generative models, diffusion methods, cross-modal representations, and learning across text, images, audio, and video.
Sequential decisions, offline and model-based reinforcement learning, planning, multi-agent learning, and policy evaluation.
Graph neural networks, relational data, knowledge graphs, ranking, recommendations, and personalisation.
Temporal validation, leakage prevention, forecasting with limited history, anomaly detection, and learning from changing demand.
Causal discovery, causal inference, Bayesian methods, uncertainty estimation, and robust decision support.
Data quality, labelling, synthetic data, feature freshness, training-serving consistency, and reproducible evaluation datasets.
Reproducible pipelines, model registries, release gates, rollback, drift signals, retraining decisions, and maintenance ownership.
Compression, quantisation, distillation, hardware-aware learning, and measuring accuracy, memory and end-to-end latency together.
Distributed learning, differential privacy, secure aggregation, and collaboration across sensitive datasets.
Robustness, fairness, explainability, security, alignment, and evidence-based evaluation of machine learning systems.
Scientific discovery, healthcare, biology, climate modelling, sustainability, and rigorous domain-specific validation.
Learning for perception, control, manipulation, autonomous systems, simulation, and interaction with the physical world.