Python graph neural networks
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okay, let's dive deep into graph neural networks (gnns) with python. this tutorial will cover the fundamentals, common architectures, implementation using popular libraries, and a practical example.
**part 1: introduction to graph neural networks (gnns)**
* **what are graphs?**
a graph is a data structure consisting of *nodes* (or vertices) and *edges* that connect these nodes. graphs are used to represent relationships between entities.
* nodes: represent objects, entities, or individuals. examples: people in a social network, molecules in a chemical compound, cities on a map.
* edges: represent the relationships or interactions between nodes. examples: friendships, chemical bonds, roads between cities.
graphs can be:
* *directed* (edges have a direction, e.g., "follows" on twitter) or *undirected* (edges have no direction, e.g., a friendship).
* *weighted* (edges have weights representing the strength or cost of the relationship) or *unweighted*.
* *cyclic* (contain cycles) or *acyclic* (no cycles).
* **why gnns?**
traditional neural networks are designed for data with a grid-like structure (e.g., images) or sequential structure (e.g., text). gnns are specifically designed to process data represented as graphs. they allow us to:
* learn representations of nodes, edges, or entire graphs.
* perform node classification (predicting the category of a node).
* perform link prediction (predicting whether a link exists between two nodes).
* perform graph classification (predicting the category of an entire graph).
* solve problems in various domains: social networks, molecular biology, recommendation systems, knowledge graphs, etc.
* **the core idea: message passing**
the fundamental concept behind gnns is *message passing* (also known as neighborhood aggregation). nodes exchange information with their neighbors iteratively. each node aggregates information from its neighbors ...
#Python #GraphNeuralNetworks #numpy
Python
graph neural networks
GNN
deep learning
machine learning
graph representation
node embeddings
edge features
graph data
semi-supervised learning
PyTorch Geometric
TensorFlow GNN
message passing
community detection
graph classification
Видео Python graph neural networks канала CodeQuest
okay, let's dive deep into graph neural networks (gnns) with python. this tutorial will cover the fundamentals, common architectures, implementation using popular libraries, and a practical example.
**part 1: introduction to graph neural networks (gnns)**
* **what are graphs?**
a graph is a data structure consisting of *nodes* (or vertices) and *edges* that connect these nodes. graphs are used to represent relationships between entities.
* nodes: represent objects, entities, or individuals. examples: people in a social network, molecules in a chemical compound, cities on a map.
* edges: represent the relationships or interactions between nodes. examples: friendships, chemical bonds, roads between cities.
graphs can be:
* *directed* (edges have a direction, e.g., "follows" on twitter) or *undirected* (edges have no direction, e.g., a friendship).
* *weighted* (edges have weights representing the strength or cost of the relationship) or *unweighted*.
* *cyclic* (contain cycles) or *acyclic* (no cycles).
* **why gnns?**
traditional neural networks are designed for data with a grid-like structure (e.g., images) or sequential structure (e.g., text). gnns are specifically designed to process data represented as graphs. they allow us to:
* learn representations of nodes, edges, or entire graphs.
* perform node classification (predicting the category of a node).
* perform link prediction (predicting whether a link exists between two nodes).
* perform graph classification (predicting the category of an entire graph).
* solve problems in various domains: social networks, molecular biology, recommendation systems, knowledge graphs, etc.
* **the core idea: message passing**
the fundamental concept behind gnns is *message passing* (also known as neighborhood aggregation). nodes exchange information with their neighbors iteratively. each node aggregates information from its neighbors ...
#Python #GraphNeuralNetworks #numpy
Python
graph neural networks
GNN
deep learning
machine learning
graph representation
node embeddings
edge features
graph data
semi-supervised learning
PyTorch Geometric
TensorFlow GNN
message passing
community detection
graph classification
Видео Python graph neural networks канала CodeQuest
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14 марта 2025 г. 2:21:59
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