
Implement gradient descent with autograd to train a linear model on random inputs using squared error loss, updating weights and bias through gradients across epochs to approach 1.8 and 32.
Learn to build a custom neural network module by subclassing a base module, defining init with layer parameters, and overriding forward to compose fully connected layers and sigmoid activation.
Learn to load CIFAR-10 data for convolutional networks, including 60,000 32×32 color images in 10 classes, with train and test splits, transforms, and batched data loading.
Explore the lean LeNet architecture for digit recognition, using two convolutional layers with average pooling, followed by three fully connected layers and a softmax classifier for 10 digits.
Configure and evaluate a PyTorch computer vision model by loading train and test data, batch size 256, training for 20 epochs with cross-entropy loss and Adam optimizer, and tracking performance.
Learn why a computer programming language is essential to communicate effectively with a computer and how Python has become a practical choice for deep learning and computer vision.
Discover how Python is easy to learn through a hands-on demo that reads a user letter and uses a simple if statement to classify it as a vowel or consonant.
Master Jupyter notebook basics, from renaming and saving notebooks to using code and markdown cells, edit and command modes, and executing cells with familiar shortcuts in Google Colab.
Learn how to use Python's print function to display variables and values, print multiple objects with commas, and understand last-expression output in Jupyter notebooks.
Explains implicit and explicit type conversion in Python, showing int to float promotions to avoid data loss and explicit casting with int, float, and str.
Learn how to use Python for loops to iterate over ranges, lists, tuples, dictionaries, and strings, and control flow with break and continue, illustrated by print-based examples.
Learn Python’s object oriented programming by using the class keyword to define classes as blueprints for objects, with attributes, methods, and the __init__ constructor, leading to a hands-on mini project.
Explore slicing on num pieties, including indexing from zero and the inclusive start, exclusive end rule. Apply step sizes to both one-dimensional and multi-dimensional arrays to select specific elements.
Dive into Computer Vision with PyTorch: Master Deep Learning, CNNs, and GPU Computing for Real-World Applications - 2024 Edition"
Unlock the potential of Deep Learning in Computer Vision, where groundbreaking advancements shape the future of technology. Explore applications ranging from Facebook's image tagging and Google Photo's People Recognition to fraud detection and facial recognition. Delve into the core operations of Deep Learning Computer Vision, including convolution operations on images, as you master the art of extracting valuable information from digital images.
In this comprehensive course, we focus on one of the most widely used Deep Learning frameworks – PyTorch. Recognized as the go-to tool for Deep Learning in both product prototypes and academia, PyTorch stands out for its Pythonic nature, ease of learning, higher developer productivity, dynamic approach for graph computation through AutoGrad, and GPU support for efficient computation.
Why PyTorch?
Pythonic: PyTorch aligns seamlessly with the Python programming language, offering a natural and intuitive experience for learners.
Easy to Learn: The simplicity of PyTorch makes it accessible for beginners, allowing a smooth learning curve.
Higher Developer Productivity: PyTorch's design prioritizes developer productivity, promoting efficiency in building and experimenting with models.
Dynamic Approach for Graph Computation - AutoGrad: PyTorch's dynamic computational graph through AutoGrad enables flexible and efficient model development.
GPU Support: PyTorch provides GPU support for accelerated computation, enhancing performance in handling large datasets and complex models.
Course Highlights:
Gain a foundational understanding of PyTorch, essential for delving into the world of Deep Learning.
Learn GPU programming and explore how to access free GPU resources for efficient learning.
Master the AutoGrad feature of PyTorch, a key aspect for dynamic graph computation.
Implement Deep Learning models using PyTorch, transitioning from theory to practical application.
Explore the basics of Convolutional Neural Networks (CNNs) in PyTorch, a fundamental architecture for computer vision tasks.
Apply CNNs to real-world datasets, developing hands-on experience with practical applications.
Our Approach:
We believe that true learning extends beyond theoretical understanding; it involves building confidence through practical application. Throughout the course, we've incorporated assignments at the end of each section, enabling you to measure your progress and reinforce your learning. We aspire to empower you with the skills and confidence needed to navigate the dynamic field of Deep Learning in Computer Vision.
Embark on this journey with Manifold AI Learning, where innovation meets education. We look forward to welcoming you inside the course and witnessing your success. Best of luck!
Manifold AI Learning