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Configuration proto for batch norm to apply after convolution op. See https://www.tensorflow.org/api_docs/python/tf/contrib/layers/batch_norm
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Whether to train the batch norm variables. If this is set to false during training, the current value of the batch_norm variables are used for forward pass but they are never updated.
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Preprocess options.
If true, use self-attention.
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Relation loss weight.
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Detection loss weight.
Post processing config.
If true, override the grounding output. Required for iterative refinement.
Detection feature type.
Number of refining iterations.
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Grounding loss weight.
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Configuation of the graph network.
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Vocabulary file.
Closed vocabulary file.
Minimum frequency to incorporate the word in the vocabulary.
Dimensions of the word embedding vectors.
If true, train the word embedding vectors.
GloVe word tokens.
GloVe word embeddings for initializing the word embedding vectors.
Mode for computing the bias.
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Relation loss weight.
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Pattern of the input files.
Shuffle buffer size.
Interleave cycle length.
Number of parallel calls.
Batch size.
Prefetch buffer size.
Dimensions of the pre-extracted FRCNN features.
Maximum number of proposals.
For DEBUG purpose, use a fixed graph instead of sample one.
Number of hidden layers.
Number of attention heads.
Size of the intermediate layer.
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Positive number of steps for which to evaluate model. if `None`, evaluate util `input_fn` raises an end-of-input exception.
Start evaluating after waiting for this many seconds.
Do not re-evaluate unless the last evaluation was started at least this many seconds ago.
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FastRCNN configs.
Feature extractor config.
Whether to update batch_norm inplace during training. This is required for batch norm to work correctly on TPUs. When this is false, user must add a control dependency on tf.GraphKeys.UPDATE_OPS for train/loss op in order to update the batch norm moving average parameters.
Output size (width and height are set to be the same) of the initial bilinear interpolation based cropping during ROI pooling.
Kernel size of the max pool op on the cropped feature map during ROI pooling.
Stride of the max pool op on the cropped feature map during ROI pooling.
Keep probability of the dropout layer.
If true, add a dropout layer after extracting feature map.
Path to the pre-trained checkpoint.
If true, initialize the FastRCNN model from a classification checkpoint.
Weight decay of the FastRCNN feature extractor.
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Type of Faster R-CNN model (e.g., 'faster_rcnn_resnet101'; See builders/model_builder.py for expected types).
Output stride of extracted RPN feature map.
Whether to update batch norm parameters during training or not. When training with a relative large batch size (e.g. 8), it could be desirable to enable batch norm update.
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Configuration proto for the convolution op hyperparameters. See tensorflow/models/research/object_detection/protos/hyperparams.proto for details.
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Regularizer for the weights of the convolution op.
Initializer for the weights of the convolution op.
BatchNorm hyperparameters. If this parameter is NOT set then BatchNorm is not applied!
Whether depthwise convolutions should be regularized. If this parameter is NOT set then the conv hyperparams will default to the parent scope.
Type of activation to apply after convolution.
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Use None (no activation)
Use tf.nn.relu
Use tf.nn.relu6
Operations affected by hyperparameters.
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Convolution, Separable Convolution, Convolution transpose.
Fully connected
Proto with one-of field for initializers.
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Configuration proto for L1 Regularizer. See https://www.tensorflow.org/api_docs/python/tf/contrib/layers/l1_regularizer
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Configuration proto for L2 Regularizer. See https://www.tensorflow.org/api_docs/python/tf/contrib/layers/l2_regularizer
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Number of stacked layers.
Number of attention heads.
Dimensions of the queries and keys.
If true, add bi-directional edges object-predicate-subject.
If true, add self-loop.
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A graph that directly returns the node/edge embeddings.
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Train reader.
Eval reader.
Test reader.
Model config.
Train config.
Eval config
Random seed.
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Score threshhold for NMS.
IoU threshold to check the overlap.
Maximum detections per class.
Maximum total detections.
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Configuration proto for random normal initializer. See https://www.tensorflow.org/api_docs/python/tf/random_normal_initializer
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Proto with one-of field for regularizers.
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A graph using self attention to update node embeddings.
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Number of stacked layers.
Number of attention heads.
Dimensions of the queries and keys.
If true, add bi-directional edges object-predicate-subject.
If true, add self-loop.
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Learning rate schedule.
Optimizer to use.
Positive number of total steps for which to train model.
The frequency, in number of global steps, that the global step/sec and the loss will be logged during training.
Save summaries every this many steps.
Save checkpoints every this many steps.
The maximum number of recent checkpoint files to keep.
Max gradient norm to be clipped.
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Nubmer of hidden layers.
Number of attention heads.
Size of the intermediate layer.
Attention dropout rate.
Hidden dropout rate.
Configuration proto for truncated normal initializer. See https://www.tensorflow.org/api_docs/python/tf/truncated_normal_initializer
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Configuration proto for variance scaling initializer. See https://www.tensorflow.org/api_docs/python/tf/contrib/layers/ variance_scaling_initializer
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Meta file containing the token to id mapping.
Entity embedding file, data shape=[1 + #entities, dims].
Predicate embedding file, data shape=[1 + #predicates, dims].
Keep probability of dropout layers.
Keep probability of attention dropout layers.
Scale factor of attention.
Hyperparameters for the fully-connected layers.
Entity: number of hidden units.
Relation: number of hidden units.
IoU threshold to compute metrics.
Edge scoring method.
Post processing.
IoU threshold to propogate annotations.
IoU threshold to propogate annotations.
Refine iterations.
If true, the refine process uses sigmoid prediction.
Weight of the MED loss.
Weight of the refine loss.
Weight of the refine loss.
If true, use spatial features.
Weight of the proposal-proposal relation edge.
Dropout keep probability for the relation edges.
If true, use log probability.
Configuation of the graph network.
Sage steps, the (i+1) th refinement will starts `sage_steps` later than the (i) th refinement.
If true, make the graph initial embedding trainable.
If set, the max-norm of the graph initial embedding.
Meta file containing the token to id mapping.
Entity embedding file, data shape=[1 + #entities, dims].
Predicate embedding file, data shape=[1 + #predicates, dims].
Keep probability of dropout layers.
Keep probability of attention dropout layers.
Scale factor of attention.
Hyperparameters for the fully-connected layers.
Entity: number of hidden units.
Relation: number of hidden units.
IoU threshold to compute metrics.
Edge scoring method.
Post processing.
IoU threshold to propogate annotations.
IoU threshold to propogate annotations.
Refine iterations.
If true, the refine process uses sigmoid prediction.
Weight of the MED loss.
Weight of the refine loss.
Weight of the refine loss.
If true, use spatial features.
Weight of the proposal-proposal relation edge.
Dropout keep probability for the relation edges.
If true, use log probability.
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Meta file containing the token to id mapping.
Entity embedding file, data shape=[1 + #entities, dims].
Predicate embedding file, data shape=[1 + #predicates, dims].
Keep probability of dropout layers.
Keep probability of attention dropout layers.
Scale factor of attention.
Hyperparameters for the fully-connected layers.
Entity: number of hidden units.
Relation: number of hidden units.
IoU threshold to compute metrics.
Edge scoring method.
Post processing.
IoU threshold to propogate annotations.
IoU threshold to propogate annotations.
Refine iterations.
If true, the refine process uses sigmoid prediction.
Weight of the MED loss.
Weight of the refine loss.
Weight of the refine loss.
If true, use spatial features.
Weight of the proposal-proposal relation edge.
Dropout keep probability for the relation edges.
If true, use log probability.
Configuation of the graph network.
Sage steps, the (i+1) th refinement will starts `sage_steps` later than the (i) th refinement.
If true, make the graph initial embedding trainable.
If set, the max-norm of the graph initial embedding.
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Meta file containing the token to id mapping.
Entity embedding file, data shape=[1 + #entities, dims].
Predicate embedding file, data shape=[1 + #predicates, dims].
Keep probability of dropout layers.
Keep probability of attention dropout layers.
Scale factor of attention.
Hyperparameters for the fully-connected layers.
Entity: number of hidden units.
Relation: number of hidden units.
IoU threshold to compute metrics.
Edge scoring method.
Post processing.
IoU threshold to propogate annotations.
IoU threshold to propogate annotations.
Refine iterations.
If true, the refine process uses sigmoid prediction.
Weight of the MED loss.
Weight of the refine loss.
Weight of the refine loss.
If true, use spatial features.
Weight of the proposal-proposal relation edge.
Dropout keep probability for the relation edges.
If true, use log probability.
Configuation of the graph network.
Sage steps, the (i+1) th refinement will starts `sage_steps` later than the (i) th refinement.
If true, make the graph initial embedding trainable.
If set, the max-norm of the graph initial embedding.
Number of RNN layers to use.
Number of RNN hidden units.
Keep probability of RNN inputs.
Keep probability of RNN outputs.
Keep probability of RNN states.
Beam size for searching the solution.
Maximum triples to retain.
If true, use transformer to contextualize triple features.
Number of Transformer layers.
Dropout probability of the Transformer attention layers.
Relation feature type.
Number of RNN layers to use.
Number of RNN hidden units.
Keep probability of RNN inputs.
Keep probability of RNN outputs.
Keep probability of RNN states.
Beam size for searching the solution.
Maximum triples to retain.
If true, use transformer to contextualize triple features.
Number of Transformer layers.
Dropout probability of the Transformer attention layers.
Relation feature type.