1. AI Technologies for Solving Ordinary Differential Equations

    • Buy now
    • Learn more
    • Discussions
  2. Section 1 : Introduction

    • lecture 1: Introduction
    • lecture 2: Installing Anaconda
    • lecture 3: Install PyTorch CUDA
  3. Section 2: Pytorch Basics

    • lecture 4: Deep Learning Theory
    • lecture 5: PyTorch Tensors Basics
    • lecture 6: Tensors to NumPy arrays
    • lecture 7: Backpropagation Theory
    • lecture 8: Backpropagation using PyTorch
  4. Section 3: Solving ODE Using PINNs

    • Lecture 9: How PINNs Works
    • Lecture 10: Damped Harmonic Oscillator Exact Solution
    • Lecture 11: Coding the Exact Solution
    • Lecture 12: Define ODEs Deep Neural Network
    • Lecture 13: Set the Training Process
    • Lecture 14: Define the DNN Loss
    • Lecture 15: Results Evaluation
    • Lecture 16: Change the Loss Function
    • Lecture 17: Change the Network Size
    • Lecture 18: Full Code Summary
    • CODE
  5. Section 4: Inverse Physics Informed Neural Networks (I-PINNs)

    • Lecture 19: Lets start with Inverse PINNs ODE
    • Lecture 20: Data Creation For the Inverse PINNs
    • Lecture 21: Define the IPINNS Network
    • Lecture 22: Set The Training Process
    • Lecture 23: Run the Training
    • Lecture 24: Results Review
    • Code
  6. Section 5: Solving ODE Using Deep Neural Operator (DNO)

    • Lecture 25: Integration Data Creation
    • Lecture 26: Data Preprocessing Part 1
    • Lecture 27: Data Preprocessing Part 2
    • Lecture 28: Model Build Up
    • Lecture 29: Set The Training Process
    • Lecture 30: Results Review
    • CODE
  1. Products
  2. Course
  3. Section

Section 3: Solving ODE Using PINNs

  1. AI Technologies for Solving Ordinary Differential Equations

    • Buy now
    • Learn more
    • Discussions
  2. Section 1 : Introduction

    • lecture 1: Introduction
    • lecture 2: Installing Anaconda
    • lecture 3: Install PyTorch CUDA
  3. Section 2: Pytorch Basics

    • lecture 4: Deep Learning Theory
    • lecture 5: PyTorch Tensors Basics
    • lecture 6: Tensors to NumPy arrays
    • lecture 7: Backpropagation Theory
    • lecture 8: Backpropagation using PyTorch
  4. Section 3: Solving ODE Using PINNs

    • Lecture 9: How PINNs Works
    • Lecture 10: Damped Harmonic Oscillator Exact Solution
    • Lecture 11: Coding the Exact Solution
    • Lecture 12: Define ODEs Deep Neural Network
    • Lecture 13: Set the Training Process
    • Lecture 14: Define the DNN Loss
    • Lecture 15: Results Evaluation
    • Lecture 16: Change the Loss Function
    • Lecture 17: Change the Network Size
    • Lecture 18: Full Code Summary
    • CODE
  5. Section 4: Inverse Physics Informed Neural Networks (I-PINNs)

    • Lecture 19: Lets start with Inverse PINNs ODE
    • Lecture 20: Data Creation For the Inverse PINNs
    • Lecture 21: Define the IPINNS Network
    • Lecture 22: Set The Training Process
    • Lecture 23: Run the Training
    • Lecture 24: Results Review
    • Code
  6. Section 5: Solving ODE Using Deep Neural Operator (DNO)

    • Lecture 25: Integration Data Creation
    • Lecture 26: Data Preprocessing Part 1
    • Lecture 27: Data Preprocessing Part 2
    • Lecture 28: Model Build Up
    • Lecture 29: Set The Training Process
    • Lecture 30: Results Review
    • CODE

11 Lessons
    • Lecture 9: How PINNs Works
    • Lecture 10: Damped Harmonic Oscillator Exact Solution
    • Lecture 11: Coding the Exact Solution
    • Lecture 12: Define ODEs Deep Neural Network
    • Lecture 13: Set the Training Process
    • Lecture 14: Define the DNN Loss
    • Lecture 15: Results Evaluation
    • Lecture 16: Change the Loss Function
    • Lecture 17: Change the Network Size
    • Lecture 18: Full Code Summary
    • CODE