Radar Signal Processing Design and Implementation for Machine Learning

Machine Learning A Bayesian and Optimization Perspective.pdf

深度学习课程 我在研究生深度学习课程中所做的实际作业和项目。 课程连结： :

Application of FPGA to real-time machine learning - hardware reservoir computers and software image processing [Antonik, P.][Springer,][2018] This book lies at the interface of machine learning – a subfield of computer science that develops algorithms for challenging tasks such as shape or image recognition, where traditional algorithms fail – and photonics – the physical science of light, which underlies many of the optical communications technologies used in our information society. It provides a thorough introduction to reservoir computing and field-programmable gate arrays (FPGAs). Recently, photonic implementations of reservoir computing (a machine learning algorithm based on artificial neural networks) have made a breakthrough in optical computing possible. In this book, the author pushes the performance of these systems significantly beyond what was achieved before. By interfacing a photonic reservoir computer with a high-speed electronic device (an FPGA), the author successfully interacts with the reservoir computer in real time, allowing him to considerably expand its capabilities and range of possible applications. Furthermore, the author draws on his expertise in machine learning and FPGA programming to make progress on a very different problem, namely the real-time image analysis of optical coherence tomography for atherosclerotic arteries.

Interpretable Machine Learning by Christoph Molnar .pdf

PyTorch 官方教程 Every other day we hear about new ways to put deep learning to good use: improved medical imaging, accurate credit card fraud detection, long range weather forecasting, and more. PyTorch puts these superpowers in your hands, providing a comfortable Python experience that gets you started quickly and then grows with you as you—and your deep learning skills—become more sophisticated. Deep Learning with PyTorch will make that journey engaging and fun.

Adrian Rosebrock 的Deep Learning for Computer Vision with Python 1,2,3都在里面了。我自己没看过，但是我在看他opencv教程，倒是蛮不错的。

令人敬畏的图像着色 基于深度学习的图像着色论文和相应的源代码/演示程序的集合，包括自动和用户指导（即与用户交互）的着色，以及视频的着色。 随意创建PR或问题。 （首选“拉式请求”） 大纲 1.自动图像着色 纸 来源 代码/项目链接 ICCV 2015 深着色 ICCV 2015 学习表示形式以实现自动着色 ECCV 2016 [项目] [代码] 彩色图像着色 ECCV 2016 [项目] [代码] 让有颜色！：全局和局部图像先验的端到端联合学习，以实现同时分类的自动图像着色 SIGGRAPH 2016 [项目] [代码] 通过生成对抗网络进行无监督的多样化着色 ECML-PKDD 2017 [代码] 学习多样的图像着色 CVPR 2017 [代码] 多种着色的结构一致性和可控性 ECCV 2018 使用有限的数据进行着色：通过内存增强网络进行少量着色 CVP

softmax_variants softmax变体的各种损失函数：中心损失，余面损失，高边距高斯混合，由pytorch 0.3.1实现的COCOLoss 训练数据集是MNIST 您可以直接运行代码train_mnist_xxx.py重现结果 参考文件如下： 中锋失利：温彦东，张凯鹏，李志峰和乔巧。 一种用于深度人脸识别的判别性特征学习方法。 ECCV 2016 Cosface损失：王浩，王一彤，周正，邢吉，狄宏恭，周静超，李志峰和刘伟。 CosFace：用于深脸识别的大余量余弦损失。 CVPR2018 大幅度高斯混合损失：万维涛，钟元仪，李天鹏，陈建生。 重新考虑图像分类中损失函数的特征分布。 CVPR 2018 COSO损失：刘宇，李洪阳，王小刚。 重新思考特征识别和聚合，以进行大规模识别。 NIPS研讨会2017 学到的二维嵌入功能包括： softmax损失 可可

本文提出了一种基于稀疏编码和分类器集成的多实例学习框架下的图像分类方法。 具体而言，从所有训练包的实例中学习字典。 包的每个实例都表示为字典中所有基本向量的稀疏线性组合，然后，包也表示为一个特征向量，该特征向量是通过包内所有实例的稀疏表示来实现的。 因此，MIL问题被转换为可以通过众所周知的单实例学习方法（如支持向量机（SVM））解决的单实例学习问题。 有两种提高分类性能的策略：第一，通过使用不同大小的字典重复使用上述方法来获得组件分类器。 其次，将分类器集合的结果用于预测。 与最新的MIL方法相比，COREL数据集上的实验结果证明了该方法在分类准确性方面的优越性。