The implementation of deeplearning-based fault diagnosis methodologies has been increasingly observed across diverse sectors within the power industry. This is particularly relevant in contexts where power stations g...
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With the development of deeplearning, deep convolution neural networks for medical image segmentation tasks have become more and more complex in pursuit of higher accuracy. In most scenarios, medical image segmentati...
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ISBN:
(数字)9781665496209
ISBN:
(纸本)9781665496209
With the development of deeplearning, deep convolution neural networks for medical image segmentation tasks have become more and more complex in pursuit of higher accuracy. In most scenarios, medical image segmentation pursues accuracy rather than speed, However, real-time performance is crucial in some scenarios, such as surgical navigation and diagnosis of acute stroke. So design of high-precision, lightweight and real-time medical image segmentation network has become an urgent need. To this end, a novel lightweight dual-domain network (LDD-Net) has been proposed in this paper. LDD-Net is comprised of two branches, learning respectively from the frequency domain and the spatial domain. In the frequency domain branch, the image spatial resolution is compressed via discrete cosine transform to have a large receptive field, so that better semantic context features can be learned. In the spatial domain branch, high-resolution feature representations with more details are learned. Finally, the learned features of these two branches are fused to yield high accuracy with low computational cost. The proposed method has been validated on two medical image segmentation datasets to yield the state-of-the-art performances with greatly reduced inference time and parameters of the learned models.
In the industrial domain, surface defect detection after multiple processing steps is crucial for improving the outgoing quality of products. However, due to the characteristics of surface defects, such as low contras...
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Facial processing technology's ability to generate realistic human faces poses significant societal risks when exploited maliciously. deep face fraud detection relies on deeplearning to meticulously scrutinize th...
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deepCAD-RT denoises fluorescence time-lapse images in realtime. A fundamental challenge in fluorescence microscopy is the photon shot noise arising from the inevitable stochasticity of photon detection. Noise increas...
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deepCAD-RT denoises fluorescence time-lapse images in realtime. A fundamental challenge in fluorescence microscopy is the photon shot noise arising from the inevitable stochasticity of photon detection. Noise increases measurement uncertainty and limits imaging resolution, speed and sensitivity. To achieve high-sensitivity fluorescence imaging beyond the shot-noise limit, we present deepCAD-RT, a self-supervised deeplearning method for real-time noise suppression. Based on our previous framework deepCAD, we reduced the number of network parameters by 94%, memory consumption by 27-fold and processingtime by a factor of 20, allowing real-timeprocessing on a two-photon microscope. A high imaging signal-to-noise ratio can be acquired with tenfold fewer photons than in standard imaging approaches. We demonstrate the utility of deepCAD-RT in a series of photon-limited experiments, including in vivo calcium imaging of mice, zebrafish larva and fruit flies, recording of three-dimensional (3D) migration of neutrophils after acute brain injury and imaging of 3D dynamics of cortical ATP release. deepCAD-RT will facilitate the morphological and functional interrogation of biological dynamics with a minimal photon budget.
People who have learning disabilities frequently struggle in the areas of reading and writing. The main effects of learning disabilities are bad grades and a lack of motivation that lasts a lifetime. Most of the time,...
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This paper proposes an improved method based on machine learning, which combines the deep neural network (DNN) architecture and speech enhancement technology to significantly improve the recognition accuracy and robus...
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The rising complexity of cyberthreats created the demand for compelling cybersecurity solutions that along with expanding Internet of Things (IoT) devices has made them indispensable. In the work our proposal is a Dee...
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Melanoma is a deadly kind of skin cancer which can spread to other parts of the body. Therefore, it is necessary to identify melanoma at the beginning level. Visual examinationat the time of medical examination of ski...
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This paper assesses the efficacy of self-supervised learning in the deepDR Diabetic Retinopathy image Dataset (deepDRiD). Recently, self-supervised learning has achieved great success in the field of Computer Vision. ...
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ISBN:
(纸本)9781510650817;9781510650800
This paper assesses the efficacy of self-supervised learning in the deepDR Diabetic Retinopathy image Dataset (deepDRiD). Recently, self-supervised learning has achieved great success in the field of Computer Vision. Particularly, self-supervised learning can effectively serve the field of medical imaging where a large amount of labeled data is usually limited. In this paper, we apply the Bootstrap Your Own Latent (BYOL) approach to grade diabetic retinopathy which scores the lowest among the MedMNIST dataset. With the pre-trained model using BYOL, we evaluate the efficacy of the BYOL approach on deepDRiD following fine-tuning protocols. Further, we compare the performance of the model with the model from scratch and proved the effectiveness of BYOL in deepDRiD. Our experiment shows that BYOL can boost the performance of grading diabetic retinopathy.
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