Results for "deep learning"

Generates audio waveforms from spectrograms.

Increasing model capacity via compute.

Human-like understanding of physical behavior.

AI applied to X-rays, CT, MRI, ultrasound, pathology slides.

Adjusting learning rate over training to improve convergence.

Ordering training samples from easier to harder to improve convergence or generalization.

Selecting the most informative samples to label (e.g., uncertainty sampling) to reduce labeling cost.

Learning from data generated by a different policy.

Learning a function from input-output pairs (labeled data), optimizing performance on predicting outputs for unseen inputs.

A model is PAC-learnable if it can, with high probability, learn an approximately correct hypothesis from finite samples.

Learning where data arrives sequentially and the model updates continuously, often under changing distributions.

Learning policies from expert demonstrations.

Learning structure from unlabeled data, such as discovering groups, compressing representations, or modeling data distributions.

A learning paradigm where an agent interacts with an environment and learns to choose actions to maximize cumulative reward.

Methods that learn training procedures or initializations so models can adapt quickly to new tasks with little data.

Controls the size of parameter updates; too high diverges, too low trains slowly or gets stuck.

A theoretical framework analyzing what classes of functions can be learned, how efficiently, and with what guarantees.

Learning only from current policy’s data.

Learning from data by constructing “pseudo-labels” (e.g., next-token prediction, masked modeling) without manual annotation.

Training with a small labeled dataset plus a larger unlabeled dataset, leveraging assumptions like smoothness/cluster structure.

Achieving task performance by providing a small number of examples inside the prompt without weight updates.

Training across many devices/silos without centralizing raw data; aggregates updates, not data.

Built-in assumptions guiding learning efficiency and generalization.

Modifying reward to accelerate learning.

Training one model on multiple tasks simultaneously to improve generalization through shared structure.

Reinforcement learning from human feedback: uses preference data to train a reward model and optimize the policy.

Inferring reward function from observed behavior.

Learning by minimizing prediction error.

Humans assist or override autonomous behavior.

Robots learning via exploration and growth.