Learning Efficient Convolutional Networks through Network Slimming, In ICCV 2017.
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Updated
May 13, 2019 - Python
Learning Efficient Convolutional Networks through Network Slimming, In ICCV 2017.
Functional models and algorithms for sparse signal processing
L1-regularized least squares with PyTorch
Yolov8-pruning based on constraint of BN layer gamma values.
Logistic Regression technique in machine learning both theory and code in Python. Includes topics from Assumptions, Multi Class Classifications, Regularization (l1 and l2), Weight of Evidence and Information Value
An Image Reconstructor that applies fast proximal gradient method (FISTA) to the wavelet transform of an image using L1 and Total Variation (TV) regularizations
The given information of network connection, model predicts if connection has some intrusion or not. Binary classification for good and bad type of the connection further converting to multi-class classification and most prominent is feature importance analysis.
Overparameterization and overfitting are common concerns when designing and training deep neural networks. Network pruning is an effective strategy used to reduce or limit the network complexity, but often suffers from time and computational intensive procedures to identify the most important connections and best performing hyperparameters. We s…
Alternating Direction Method of Multipliers (ADMM) for Lasso sparse regression and distributed consensus optimization
High Dimensional Portfolio Selection with Cardinality Constraints
Alternating Direction Method of Multipliers (ADMM) for Lasso sparse regression and distributed consensus optimization
Sparse index replication engine: tracks the S&P 500, Nasdaq-100, Russell 2000 and Nifty 50 with a small basket of stocks (~10% of each index) using a custom ADMM solver for L1-regularized portfolio optimization. Built for direct indexing, tax-loss harvesting and low-cost benchmark tracking. Python, FastAPI, Next.js, Azure.
MNIST Digit Prediction using Batch Normalization, Group Normalization, Layer Normalization and L1-L2 Regularizations
Практический курс по Python: MAE, Lasso, Ridge и ElasticNet. Субградиентный и координатный спуск, L1/L2-регуляризация, примеры и решения задач Stepik.
Multi term Polynomial Regression with Learnable Exponents and Coefficients (+L1 Regularisation for Term Pruning & Coefficient/Exponent Based Feature augmentation)
A wrapper for L1 trend filtering via primal-dual algorithm by Kwangmoo Koh, Seung-Jean Kim, and Stephen Boyd
Regression algorithm implementaion from scratch with python (OLS, LASSO, Ridge, robust regression)
The module allows working with simple neural networks (Currently, the simplest model of a multilayer perceptron neural network with the backpropagation method and the Leaky ReLu activation function is used).
Comparing Three Penalized Least Squares Estimators: LASSO,SCAD and MCP.
🚀 Detect network intrusions with this ML-based system using the NSL-KDD dataset. Features include model training, API deployment, and an interactive dashboard.
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