The effectiveness of the lens functions is demonstrated in two use cases and their computational cost is analysed in a synthetic benchmark.
In addition, efficient and effective interactions between multi-modal representations need to be further explored, lacking insightful exploration of prognostic correlation in multi-modality features.
To this end, we first develop OpenGait, a flexible and efficient gait recognition platform.
At the core of DCMHA is a $\it{Compose}$ function that transforms the attention score and weight matrices in an input-dependent way.
However, these works have the following limitations in modeling the high-order relationships over unlabeled data: (i) They primarily focus on maximizing the agreements among individual node embeddings while neglecting the capture of group-wise collective behaviors within hypergraphs; (ii) Most of them disregard the importance of the temperature index in discriminating contrastive pairs during contrast optimization.
Self-supervised pretraining (SSP) has been recognized as a method to enhance prediction accuracy in various downstream tasks.
We propose Endoscopic Depth Any Camera (EndoDAC) which is an efficient self-supervised depth estimation framework that adapts foundation models to endoscopic scenes.
We present an active automata learning algorithm which learns a decomposition of a finite state machine, based on projecting onto individual outputs.
To this end, we first construct two multimodal dense and occlusion vehicle detection datasets for large-scale events, utilizing RGB and height map modalities.
We propose a simple strategy for masking image patches during visual-language contrastive learning that improves the quality of the learned representations and the training speed.