Skip to content

Latest commit

 

History

History
49 lines (41 loc) · 2.08 KB

README.md

File metadata and controls

49 lines (41 loc) · 2.08 KB

CS236605: Deep Learning on Computational Accelerators

Homework Assignment 1

Faculty of Computer Science, Technion.

Introduction

In this first homework assignment we'll familiarize ourselves with PyTorch as a general-purpose tensor library with automatic gradient calculation capabilities. We'll use it to implement some traditional machine-learning algorithms and remind ourselves about basic concepts such as different data sets and their uses, model hyperparameters, cross-validation, loss functions and gradient derivation. We'll also familiarize ourselves with other highly important python machine learning packages such as numpy, sklearn and pandas.

General Guidelines

  • Please read the getting started page on the course website. It explains how to setup, run and submit the assignment.
  • The text and code cells in these notebooks are intended to guide you through the assignment and help you verify your solutions. The notebooks do not need to be edited at all (unless you wish to play around). The only exception is to fill your name(s) in the above cell before submission. Please do not remove sections or change the order of any cells.
  • All your code (and even answers to questions) should be written in the files within the python package corresponding the assignment number (hw1, hw2, etc). You can of course use any editor or IDE to work on these files.

Contents

  • Part 1: Working with data in PyTorch
    • Datasets
    • Built-in Datasets and Transforms
    • DataLoaders and Samplers
    • Training, Validation and Test Sets
  • Part 2: Nearest-neighbor image classification:
    • kNN Classification
    • Cross-validation
  • Part 3: Multiclass linear classification
    • Linear Classification
    • Loss Functions
    • Optimizing a Loss Function with Gradient Descent
    • Training the model with SGD
    • Automatic differentiation
  • Part 4: Linear Regression
    • Dataset exploration
    • Linear Regression Model
    • Adding nonlinear features
    • Generalization