Archive

Past PyData STL Meetups

Browse previous meetups, agendas, and notes.

Efficient Neural Networks Through Tensor Networks

2026-06-08 · 5:30 PM

Spark Coworking St. Louis

Modern AI systems continue to grow larger and more computationally expensive. This session explores an alternative approach inspired by physics and scientific computing: tensor networks. These techniques can compress neural network representations while preserving much of their performance, offering a possible path toward more efficient AI systems.

Meetup link

Embracing Noise: How Data Corruption Can Make Models Smarter

2026-05-04 · 5:30 PM

Spark Coworking St. Louis

Machine learning is often built on the assumption of clean, high-quality data. In reality, data is messy, incomplete, and noisy. This session explores a powerful idea: introducing controlled corruption during training can improve robustness, reduce overfitting, and help models perform better in real-world conditions.

Meetup link

Debunking the myths of Quantum AI

2026-04-06 · 5:30 PM

Spark Coworking St. Louis

Join us at PyData St. Louis for a talk and community discussion on debunking the myths of Quantum AI and understanding what the technology can realistically do today. Quantum computing and AI are often discussed together, but many claims about “Quantum AI” are misunderstood or exaggerated. This session will explore what quantum computing actually is, where it might intersect with machine learning, and what data scientists should realistically expect from the field.

Meetup link

The Hidden Power of Synthetic Data: Teaching Models What Real Data Can’t

2026-03-02 · 6:00 PM

St. Louis County Library Daniel Boone Branch

Real-world data can be limited, expensive, or restricted by privacy concerns. Synthetic data offers a way to generate realistic datasets that help train and test models when real data isn’t enough.

Meetup link

PyData STL Kickoff Meetup: Quantum vs Classical Randomness

2026-02-02 · 6:00 PM

St Louis County Library Grand Glaize Branch

Randomness powers simulation, cryptography, statistics, and machine learning, but are all sources of randomness the same? In this talk, we’ll explore the difference between: classical randomness (dice, noise, pseudorandom number generators) quantum randomness (measurement, superposition, and qubits) We’ll discuss what “random” really means, how random numbers are generated in practice, and whether quantum mechanics truly produces a deeper kind of randomness than anything classical physics allows. The talk is beginner-friendly and requires no physics background.

Meetup link