This document discusses deep learning and its advantages over traditional machine learning approaches. It notes that deep learning methods can automatically discover representations from raw data through multiple levels of representation, whereas traditional approaches require manual feature engineering. The document uses the example of digit recognition to demonstrate how deep learning can achieve higher recognition rates than traditional approaches or simpler neural networks by learning representations from pixel data. Specifically, it suggests deep learning may be able to correctly recognize 10 out of 10 digits, compared to 8 or 9 out of 10 for other methods.
An illustrative introduction on CNN. Maybe one of the most visually understandable but precise slide on CNN in your life. I made this slide as an intern in DATANOMIQ Gmbh URL: https://www.datanomiq.de/ *This slide is not finished yet. If you like it, please give me some feedback to motivate me.
This document summarizes research on using deep convolutional networks for multi-class image classification on a large dataset from a product image classification Kaggle competition. The dataset contains over 5 million images across 5270 categories. Several CNN models were tested including ResNet, ResNext, DenseNet, and WideResNet. WideResNet achieved the best results with over 40% accuracy, while ResNext was the slowest. Training the models required significant computing resources and time due to the large dataset size. Future work includes submitting results to the Kaggle competition after more training epochs.
A perfect working model to detect mnist dataset using TensorFlow. Dataset: http://yann.lecun.com/exdb/mnist/ For code check the below GitHub links: https://github.com/Jitudebz/psychic-pancake
In this talk, Javier Antorán discusses the importance of uncertainty when it comes to ML interpretability. He offers a new uncertainty-based interpretability technique called CLUE and compares it to existing model interpretability techniques in two usability studies. Javier is a Ph.D. student at the University of Cambridge. His research interests include Bayesian deep learning, uncertainty in machine learning, representation learning, and information theory.
This document summarizes research on visual cryptography for encrypting images. It discusses how visual cryptography works by encrypting a secret image into multiple shares such that only combining a sufficient number of shares reveals the secret image. Early schemes worked for binary and grayscale images, while later work extended this to color images. Color images can be encrypted by expanding each pixel into small color subpixels and distributing the color combinations across shares. These schemes allow for encryption and decryption with little computation and without requiring secret keys.
The main objective of this paper is to recognize and predict handwritten digits from 0 to 9 where data set of 5000 examples of MNIST was given as input. As we know as every person has different style of writing digits humans can recognize easily but for computers it is comparatively a difficult task so here we have used neural network approach where in the machine will learn on itself by gaining experiences and the accuracy will increase based upon the experience it gains. The dataset was trained using feed forward neural network algorithm. The overall system accuracy obtained was 95.7% Jyoti Shinde | Chaitali Rajput | Prof. Mrunal Shidore | Prof. Milind Rane"Handwritten Digit Recognition" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-2 | Issue-2 , February 2018, URL: http://www.ijtsrd.com/papers/ijtsrd8384.pdf http://www.ijtsrd.com/engineering/electronics-and-communication-engineering/8384/handwritten-digit-recognition/jyoti-shinde