There are 0 repository under mini-batch-gradient-descent topic.
Machine learning algorithms in Dart programming language
Google Street View House Number(SVHN) Dataset, and classifying them through CNN
My implementation of Batch, Stochastic & Mini-Batch Gradient Descent Algorithm using Python
Short description for quick search
Notebook for quick search
Coursera - Deep Learning Specialization - deeplearning.ai
[Coursera] Deep Learning Specialization on Coursera
Curso Improving Deep Neural Networks: Hyperparameter tuning, Regularization and Optimization. Segundo curso del programa especializado Deep Learning. Este repositorio contiene todos los ejercicios resueltos. https://www.coursera.org/learn/neural-networks-deep-learning
MNIST Handwritten Digits Classification using 3 Layer Neural Net 98.7% Accuracy
Predicting House Price from Size and Number of Bedrooms using Multivariate Linear Regression in Python from scratch
For learning, visualizing and understanding the optimization techniques and algorithms.
Gradient_descent_Complete_In_Depth_for beginners
All about machine learning
A "from-scratch" 2-layer neural network for MNIST classification built in pure NumPy, featuring mini-batch gradient descent, momentum, L2 regularization, and evaluation tools โ no ML libraries used.
A five-course specialization covering the foundations of Deep Learning, from building CNNs, RNNs & LSTMs to choosing model configurations & paramaters like Adam, Dropout, BatchNorm, Xavier/He initialization, and others.
The laboratory from CLOUDS Course at EURECOM
Implementation of a support vector machine classifier using primal estimated sub-gradient solver in C++ and CUDA for NVIDIA GPUs
Logistic regression using JAX to support GPU acceleration
classify mnist datasets using ridge regression, optimize the algorithem with SGD, stochastic dual coordinate ascent, and mini-batching
This project explored the Tensorflow technology, tested the effects of regularizations and mini-batch training on the performance of deep neural networks
A Machine Learning project to predict user interactions with social network ads using demographic data to optimize ad targeting
Exploring and Implementing Numerical Optimization Algorithms in Machine Learning, with Python code and mathematical insights.
Numerical Optimization for Machine Learning & Data Science
Various methods for Deep Learning, SGD and Neural Networks.
Implementation of a Feedforward Neural Network for intent classification using only Python and NumPy. The model classifies user intents from text input using the Sonos NLU Benchmark dataset.
Generic L-layer 'straight in Python' fully connected Neural Network implementation using numpy.
Your all-in-one Machine Learning resource โ from scratch implementations to ensemble learning and real-world model tuning. This repository is a complete collection of 25+ essential ML algorithms written in clean, beginner-friendly Jupyter Notebooks. Each algorithm is explained with intuitive theory, visualizations, and hands-on implementation.
Deep Learning Optimizers
Two mountaineers search for the global minimum of a cost function using different approaches. One represents Stochastic Gradient Descent, taking small, random steps, while the other follows Batch Gradient Descent, making precise moves after full evaluation. This analogy illustrates key optimization strategies in machine learning.
ANN Classifier built from scratch used to classify MNIST Digit.
Implementing ML Algorithms using Python and comparing with Standard Library functions
๐ Abalone Age Prediction: Dive into Data, Surf on Insights! ๐ Unleash the power of predictive analytics on abalone age estimation! From meticulous data exploration to a showdown of optimization methods, this repo is your gateway to accurate age predictions using physical measurements using Pysaprk. ๐๐ฎ
Robust Mini-batch Gradient Descent models
This repository provides implementations of numerical optimization algorithms for machine learning and deep learning. It includes clear explanations, mathematical formulas, Python code, and visualizations to help understand the behavior of each optimizer.