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arXiv research

A locally-built, LLM-digested index of recent arXiv papers in quant finance, geometry/topology, and statistical ML — keyword search served straight from SQLite on this machine.

169,291 papers · 148 categories

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48 results for Fully Convolutional Network

Convolutional networks outperform fully-connected ones in certain tasks.

problem Understanding the computational advantage of convolutional networks over fully-connected networks.
method Demonstrated a computational advantage through a specific problem class.
result Convolutional networks can solve certain problems that fully-connected networks cannot, even with gradient descent.

FCC-GAN combines fully connected and convolutional layers for improved GAN performance.

problem Lack of understanding in choosing GAN network architectures.
method Proposes FCC-GAN, a hybrid architecture combining fully connected and convolutional layers.
result FCC-GAN outperforms traditional GAN architectures in terms of learning speed and sample quality.

Convolutional layers can be mathematically equated to fully connected layers.

problem Understanding the equivalence between convolutional and fully connected layers for neural networks.
method Demonstrated that convolutional operations can be converted to matrix multiplication, showing equivalence.
result Convolutional layers and fully connected layers are mathematically equivalent in linear cases.

Paper presents efficient algorithms for convolutional neural networks using Winograd minimal filtering.

problem Resource-efficient implementation of convolutional neural networks.
method Winograd minimal filtering trick applied to M-tap filters (M=3,5,7,9,11) for parallel hardware implementation.
result Approximately 30% reduction in multipliers for fully parallel hardware implementation.

Convolutional nets require fewer samples than fully-connected nets for image classification.

problem Understanding why convolutional nets are more sample-efficient than fully-connected nets.
method Construction of a natural distribution and target function to demonstrate a sample complexity gap.
result Convolutional nets require O(1)O(1) samples for a single target function, while fully-connected nets require Ω(d2)Ω(d^2) samples.

Proves DCNNs with expansive convolution are strongly universally consistent.

problem Theoretical consistency of deep convolutional neural networks (DCNNs).
method Empirical risk minimization on DCNNs with expansive convolution (with zero-padding).
result DCNNs with expansive convolution are strongly universally consistent.

The study shows removing fully connected output layers improves efficiency without sacrificing performance.

problem Large number of parameters in fully connected layers for high-category datasets.
method Examined architectures replacing fully connected output layers with fixed layers and compared performance.
result Fixed classifiers offer no additional benefit over removing the output layer and its parameters.

Paper uses CNNs for eye tracking data segmentation, generation, and reconstruction.

problem Semantic segmentation and reconstruction of raw eye tracking data.
method Fully convolutional neural networks (FCNNs) for data segmentation and generation, variational auto-encoder for data generation.
result FCNNs can process any input size directly without preprocessing, generating raw eye tracking data.

FCN model enhances speech by processing raw waveforms, outperforming existing methods.

problem Restoring high frequency components in speech enhancement.
method End-to-end fully convolutional network (FCN) model for raw waveform-based speech enhancement.
result FCN model outperforms DNN and CNN in terms of intelligibility and quality metrics.

The fully connected layers of a deep convolutional neural network typically contain over 90% of the network parameters, and consume the majority of the memory required to store the network parameters. Reducing the number of parameters while preserving essentially the same predictive performance is critically important …

2014-12-22abs ↗pdf ↗

U-Time uses a fully convolutional network for sleep stage classification.

problem Challenges in tuning and optimizing recurrent neural networks for sleep data.
method U-Time is a fully feed-forward deep learning approach based on U-Net architecture.
result U-Time outperforms state-of-the-art models for sleep stage classification.

Large filters improve performance but are costly; this work uses learned box filters and summed-area tables.

problem Improving performance in dense prediction tasks like human pose estimation with large filters.
method Adopted learnable box filters and summed-area tables to reduce computational cost and maintain performance.
result Demonstrated competitive performance on human pose estimation benchmarks.

New method shows fully-connected networks can learn convolutional structures from data.

problem How to learn convolutional structures from translation-invariant data.
method Data-driven emergence of convolutional structure in neural networks.
result Initially fully-connected networks can learn convolutional structures from their inputs.

Random convolutional networks can be fooled with adversarial examples.

problem Existence of adversarial examples for random convolutional networks.
method Utilizing isoperimetric inequalities on the special orthogonal group so(d)\mathbb{so}(d).
result Adversarial examples exist for various random convolutional networks.

Paper proposes a technique to reduce deep neural network parameters without sacrificing accuracy.

problem Designing smaller networks that approximate the operation of larger, more powerful networks.
method Randomized tensor sketching technique applied to convolutional and fully connected layers.
result Smaller networks trained with sketching technique achieve comparable accuracy to original networks.

Stanza separates convolutional and fully connected layers for faster deep learning training.

problem Heavy data transfer between workers and servers in distributed deep learning.
method Layer separation: most nodes train convolutional layers, others train fully connected layers only.
result Significant acceleration of training time (1.34x--13.9x) over current systems.

Paper tackles depth estimation and optic disc-cup segmentation from color fundus images.

problem Depth estimation and optic disc-cup segmentation from color fundus images.
method Uses fully convolutional networks for monocular retinal depth estimation and optic disc-cup segmentation.
result Demonstrates improved accuracy in depth estimation and optic disc-cup segmentation.

Global Planar Convolution boosts brain tumor segmentation by enhancing context perception.

problem Improving context perception in brain tumor segmentation networks.
method Introduced Global Planar Convolution module to enhance context aggregation in brain tumor segmentation.
result Global Planar Convolution eliminates the need for multiple representation levels in segmentation networks.

Proposes LC-ST-FCN for better ride-sourcing demand forecasting.

problem Local statistical differences in ride-sourcing demand across a city.
method LC-ST-FCN framework combining 3D and 2D convolutions, locally connected layers.
result Significant improvements in demand forecasting compared to baselines.

Pruning FCNs reveals sub-networks that match CNNs' performance.

problem Understanding the inductive bias of pruning in neural networks.
method Iterative magnitude pruning of a simple FCN followed by analysis of the resulting architecture.
result Pruned FCNs exhibit key features of CNNs, suggesting new architectural biases.

Deep learning improves sparse representation for better classification.

problem Improving classification accuracy using sparse representation.
method A transductive deep learning network combining convolutional autoencoder and fully-connected layers.
result The proposed network achieves better classification results than state-of-the-art SRC methods.

Develops deep neural networks for efficient salient object detection.

problem Efficiency and accuracy in detecting salient objects of various scales and semantic information.
method Hybrid contrast-oriented deep neural networks combining fully convolutional and segment-level spatial pooling streams, with an attentional module for fusion.
result Significantly outperforms state-of-the-art methods on six benchmark datasets.

Gradient descent on deep linear CNNs converges to a penalty-based solution.

problem Understanding gradient descent convergence in deep linear convolutional networks.
method Gradient descent on full-width linear convolutional networks of varying depth.
result Gradient descent converges to a penalty-based solution, not the hard margin SVM solution.

The paper improves CNN models for polyp segmentation, enhancing their accuracy and interpretability.

problem Uncertainty and interpretability in CNNs for medical image analysis.
method Develop and evaluate recent advances in uncertainty estimation and model interpretability in FCNs for polyp segmentation.
result Highest performing model achieves 76.06% mean IOU accuracy on the EndoScene dataset.

Tensor regression networks improve neural network compression and regularization.

problem Improving neural network compression and regularization with low-rank tensor approximations.
method Investigating various low-rank tensor approximations in tensor regression networks.
result Tensor regression networks with Global Average Pooling layer outperformed in deep CNNs, while shallow CNNs with tensor regression and dropout achieved lower test error.

Paper uses FMCW radar and FCN for object detection and 3D estimation.

problem Object detection and 3D estimation using FMCW radar.
method Employed deep learning (FCN) over traditional signal processing. Normalization method applied to radar signal.
result System successfully detects and estimates 3D position of objects in noisy environments.