Master Python for scalable, high-performance distributed applications, covering concurrency, queues, APIs, and optimization strategies.

python.tar.gz

Chapter2

Chapter7

Chapter5

Chapter6

Chapter3

Chapter7-without-etcd

Chapter8-with-etcd

Chapter9

Chapter9-gabbi

Chapter10-heroku

Chapter10-aws_eb

Chapter11_Tox_integration

Chapter11_Tox_integration-pifpaf

Chapter11_pifpaf_fixtures

Chapter12_caching

Chapter13_Performance

Chapter13_Performace_KCacheGrind

Chapter5-rq-dashboard

Chapter5-celery-flower

Chapter10-gcloud

Chapter2-zsh

Chapter13_Performace_KCacheGrind-copy

Chapter11_Tox_integration-pifpaf-postgresql

Celery-Project1_Sol

Celery-Project1_Sol2

Python, in all of its greatness, is often dismissed when needing to write performant and distributed applications. It’s considered to be slow and not suited for the task. In this course, you will find that with the right implementation of Python, you can write applications that scale horizontally, perform well, and are distributed. 

To kick things off, you’ll learn about CPU scaling, concurrency, and event loops, all of which are crucial for implementing a distributed system. After that, you’ll move on to queue-based distribution, lock management, and group memberships, which are fundamental concepts for maintaining availability and consistency in distributed applications.

In the last half, you’ll learn how to build a REST API, how to deploy your app to a PaaS, and how to optimize your application's performance.

By the end of this course, you’ll be more productive with Python, you’ll be able to write faster applications that are distributed, and you’ll have a great new skill that is highly coveted.

The Hacker's Guide to Scaling Python

_Tooz_ provides a capability mechanism on top of the group feature. When joining a
group, a member can specify what its capabilities are. It can also update them later as needed.

Capabilities are any simple data structure that your program needs to share. It can be as simple as a string and as complicated as a nested dictionary. The typical usage of this data structure is to pass information about the member, such as its processing power or its feature set. It allows filtering members based on their functionality or weighing them differently based on their computing power.

## Joining a group with a capability set
The example below shows a complete example of joining a group with a capability set. In this example, each client can provide a mood when joining a group. All members can then get member capabilities and retrieve their moods.

_Tooz_ provides a capability mechanism on top of the group feature. When joining a
group, a member can specify what its capabilities are. It can also update them later as needed.

Capabilities are any simple data structure that your program needs to share. It can be as simple as a string and as complicated as a nested dictionary. The typical usage of this data structure is to pass information about the member, such as its processing power or its feature set. It allows filtering members based on their functionality or weighing them differently based on their computing power.

# Joining a group with a capability set
The example below shows a complete example of joining a group with a capability set. In this example, each client can provide a mood when joining a group. All members can then get member capabilities and retrieve their moods.

Using Capabilities

Scaling

CPU Scaling

Event Loops

Functional Programming

Queue-Based Distribution

Designing for Failure

Create a Web Crawler

Project Walkthrough

Lock Management

Group Membership

REST Interfaces

Deploying on PaaS

Testing Distributed Systems

Caching

Performance

Conclusion

Using Capabilities

Joining a group with a capability set