2021
DOI: 10.48550/arxiv.2102.11566
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Multi-Knowledge Fusion for New Feature Generation in Generalized Zero-Shot Learning

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Cited by 3 publications
(4 citation statements)
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“…where β is the weighting factor. Since then, the conditional GAN (CGAN) has been combined with different strategies to generative discriminative visual features for the unseen classes, including optimal transport-based approach [142], TFGNSCS [143] which is an extended version of f-CLSWGAN that considers transfer information, meta-learning approach [111] which is based on model-agnostic meta-learning [144], LisGAN [145] which focuses on extracting information from soul samples, SP-GAN [146] which devises a similarity preserving loss with classification loss, Semantic rectifying GAN (SR-GAN) [147] which employs the semantic rectifying network (SRN) [148] to rectify features, CIZSL [149] which is inspired by the human creativity process [150], MGA-GAN [151] which uses multi-graph similarity, and MKFNet-NFG [152] which is adaptive fusion module based on the attention mechanism. Xie et al [153] proposed cross knowledge learning and taxonomy regularization to train more relevant semantic features and generalized visual features, respectively.…”
Section: Generative Adversarial Networkmentioning
confidence: 99%
“…where β is the weighting factor. Since then, the conditional GAN (CGAN) has been combined with different strategies to generative discriminative visual features for the unseen classes, including optimal transport-based approach [142], TFGNSCS [143] which is an extended version of f-CLSWGAN that considers transfer information, meta-learning approach [111] which is based on model-agnostic meta-learning [144], LisGAN [145] which focuses on extracting information from soul samples, SP-GAN [146] which devises a similarity preserving loss with classification loss, Semantic rectifying GAN (SR-GAN) [147] which employs the semantic rectifying network (SRN) [148] to rectify features, CIZSL [149] which is inspired by the human creativity process [150], MGA-GAN [151] which uses multi-graph similarity, and MKFNet-NFG [152] which is adaptive fusion module based on the attention mechanism. Xie et al [153] proposed cross knowledge learning and taxonomy regularization to train more relevant semantic features and generalized visual features, respectively.…”
Section: Generative Adversarial Networkmentioning
confidence: 99%
“…For example, the class jumping represents the action of individuals propelling themselves off the ground using both feet. GZSAR enables models to adapt to new action classes without extensive retraining or fine-tuning [10], [11]. Secondly, the increasing number of classes makes collecting labeled data for each category more challenging because models have to distinguish among more classes some of which can be quite similar.…”
Section: Introductionmentioning
confidence: 99%
“…Secondly, the increasing number of classes makes collecting labeled data for each category more challenging because models have to distinguish among more classes some of which can be quite similar. GZSAR models can recognize new classes without the need for additional labeled data [10], [11]. Thirdly, GZSAR reduces the dependency on large volumes of labeled data, resulting in more efficient training processes and decreased computational resource demands [10], [11].…”
Section: Introductionmentioning
confidence: 99%
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