ImageNet Classification with Deep Convolutional Neural Networks
A deep convolutional network demonstrated how data, GPU computation and learned representations could transform visual recognition.
From representation learning and Transformers to scaling, preferences and efficient training. Historical foundations are distinct from recent releases.
A deep convolutional network demonstrated how data, GPU computation and learned representations could transform visual recognition.
The Transformer replaces recurrent sequence processing with attention, creating a foundation for many later language and multimodal models.
Masked-language pretraining learns bidirectional representations that can be adapted to language-understanding tasks.
GPT-3 studies how larger autoregressive language models perform new tasks through examples in their input context.
A generative model learns to reverse a gradual noise process, establishing an influential approach to image synthesis.
Contrastive training aligns images with natural-language descriptions, enabling transfer to new visual categories.
Low-rank trainable updates adapt a frozen pretrained model without updating all of its parameters.
Human demonstrations and preference feedback are used to improve how a language model follows instructions.
The study examines how to allocate a training-compute budget between model size and training data.
An IO-aware attention algorithm reduces memory transfers while computing exact attention.
A set of written principles guides critique, revision and AI-generated preference feedback during alignment.
A preference-based objective optimizes a language model directly, avoiding a separate reward-model training stage.
Robot control is formulated as conditional denoising of action sequences, linking diffusion models to visuomotor learning.