3260 papers • 126 benchmarks • 313 datasets
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These leaderboards are used to track progress in parameter-prediction-1
Use these libraries to find parameter-prediction-1 models and implementations
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A novel neural network parametrization is proposed which considerably reduces the number of parameters and the error rate of the classifier on tasks in which the input is a description of the genetic variation specific to a patient, the single nucleotide polymorphisms, yielding millions of ternary inputs.
WISE is presented, an example-based image-processing system that can handle a multitude of stylization techniques, such as watercolor, oil or cartoon stylization, within a common framework and it is demonstrated that jointly training an XDoG filter and a CNN for postprocessing can achieve comparable results to a state-of-the-art GAN-based method.
The proposed network-joint network with the CNN for ImageQA and the parameter prediction network-is trained end-to-end through back-propagation, where its weights are initialized using a pre-trained CNN and GRU.
It is demonstrated on these datasets that SPOTs simultaneously provide higher quality decisions and significantly lower model complexity than other machine learning approaches (e.g., CART) trained to minimize prediction error.
This study interprets meta learning methodology as learning an explicit hyperparameter prediction policy shared by all training tasks, which guarantees that the meta-learned learning methodology is able to flexibly fit diverse query tasks, instead of only obtaining fixed hyperparameters by many current meta learning methods.
This work proposes a hypernetwork that can predict performant parameters in a single forward pass taking a fraction of a second, even on a CPU, and learns a strong representation of neural architectures enabling their analysis.
This paper demonstrates the ability of CNNs to perform predictions of relative diffusion directly from full pore-space geometries and conveniently fuses diffusion prediction and a well-established morphological model which describes phase distributions in partially saturated porous media.
This paper proposes to impute a sample of true prediction targets with data from an existing RS-based prediction map that is considered as pseudo-targets, and demonstrates that when a judicious combination of loss functions is used, the semi-supervised imputation strategy produces results that surpass traditional ALS-based regression models, even thoughsen data are considered as inferior for forest monitoring.
The proposed decoupling of shape and texture enables various options for stylistic editing, including interactive global and local adjustments of shape, stroke, and painterly attributes such as surface relief and contours.
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