gradient compression techniques, distributed training
Reduce gradient communication.
355 technical terms and definitions
Reduce gradient communication.
Gradient compression reduces communication in distributed training. Quantize or sparsify gradients.
Constrain gradients to preserve knowledge.
Maintaining gradients in very deep models.
Maintain gradient flow in sparse networks.
Make gradients uninformative.
Add noise to gradients for regularization.
Normalize gradient magnitude.
Regularize gradient magnitude (GANs).
Quantize gradients for transmission.
Reverse gradients for adversarial training.
Scale gradients to prevent underflow.
Send only significant gradient components.
Aggregate gradients across devices.
Mask tokens with large gradients.
Optimize architecture with gradients.
Optimize continuous prompt embeddings using gradients.
Gradient-based pruning estimates weight importance using gradient information.
Use gradients to determine importance.
Backpropagation computes gradients via chain rule, flowing error from output to input. Gradients update weights via optimizer.
Gradio creates ML demo interfaces quickly. Hugging Face integration. Share instantly.
Slowly increase traffic to new version.
Gradually increase traffic to new model: 1%, 10%, 50%, 100%. Monitor metrics at each stage.
Unfreeze from top to bottom gradually.
Grafana dashboards visualize metrics. Alerts on thresholds. Operations visibility.
Visualization platform for metrics.
Interfaces between crystallites.
Analyze grain boundary structure and energy.
Energy per area of boundary.
Impurities collect at boundaries.
Increase grain size to reduce resistance.
Grammar-based decoding generates text following formal grammar specifications.
Grammar-based generation uses formal grammars to ensure syntactic validity of generated graphs.
Generate following formal grammar.
Sample tokens that conform to formal grammar.
Grammar and spelling correction. Style suggestions.
Graph Recurrent Attention Networks generate graphs through sequential block-wise generation with recurrent state tracking for scalability.
Granger causality tests whether past values of one time series provide statistically significant information for predicting another series.
Granger non-causality tests null hypothesis that past values of one series don't help predict another.
Flat reference for mechanical measurements.
Find correspondence between graphs.
Use attention in GNNs.
Create unique representation of graph.
Group similar nodes.
Create simplified version of graph.
Graph completion predicts missing nodes or edges in incomplete graphs for knowledge graph construction.
Graph convolutional networks in MARL aggregate information over agent interaction graphs capturing structured multi-agent dependencies.
Graph convolution generalizes convolutional operations to irregular graph structures by aggregating features from neighboring nodes with learnable weights.
Convolutional operations on graphs.
Measure dissimilarity via edit operations.