Invariant Group // Est. Deep Time

Where
invariant
principles
meet data.

We operate at the intersection of rigorous mathematical theory, empirical data science, and machine learning — building systems that remain stable under transformation.

Inquire → invariant.group@gmail.com
Scientific Method
Statistical Learning
Invariant Representation
Deep Architecture
Causal Inference
Geometric Symmetry
Probabilistic Models
Empirical Rigor
Scientific Method
Statistical Learning
Invariant Representation
Deep Architecture
Causal Inference
Geometric Symmetry
Probabilistic Models
Empirical Rigor

Foundations

01 / Theory

Mathematical Foundations

Our work is grounded in formal theory. Symmetry groups, differential geometry, and information theory are not abstractions — they are the grammar through which we describe complex systems.

02 / Data

Empirical Intelligence

Structured data carries latent structure. We design pipelines that extract, verify, and transform signals at scale — turning raw observation into actionable knowledge with statistical guarantees.

03 / Learning

Learned Representations

Machine learning is most powerful when it is principled. We build architectures that respect the structure of data — encoding inductive biases that align with physical and logical laws.

Theory without
data is speculation.
Data without
theory is noise.

The hardest problems in deep technology resist brute-force approaches. They demand an understanding of why a system behaves as it does — not merely what it does. At Invariant Group, we ask questions that persist under transformation: the invariant questions.

We bring together the disciplines that illuminate these questions — statistical physics, algorithmic information theory, probabilistic inference, and large-scale machine learning — and apply them with engineering discipline to systems that matter.

Our methods are rigorous because the stakes are high. Every model is a hypothesis; every deployment is an experiment. We design for falsifiability, build for robustness, and validate against the harshest benchmarks: reality.

Iterative refinement
f(x)
Theory-first design
σ→0
Precision targeting
Inv.
Stable under transform

Capabilities

The science beneath the surface.

01

Predictive Modeling

Probabilistic forecasting systems built on Bayesian inference frameworks, delivering calibrated uncertainty estimates alongside predictions.

02

Structural Pattern Recognition

Deep neural architectures that identify invariant features across transformed input domains — robust to noise, distribution shift, and adversarial conditions.

03

Large-Scale Data Systems

End-to-end pipelines for ingestion, validation, transformation, and analysis of high-dimensional data at enterprise scale.

04

Causal & Counterfactual Analysis

Moving beyond correlation — we identify causal mechanisms and reason about interventions using structural causal models and experimental design.

05

Optimization Under Constraints

Constrained optimization at scale, incorporating domain knowledge as priors, physical laws as hard constraints, and business objectives as loss functions.

06

Scientific Computing & Simulation

High-performance numerical simulation informed by machine learning surrogates — accelerating hypothesis testing by orders of magnitude.

Invariant Theory
Bayesian Inference
Representation Learning
Structured Prediction
Optimal Transport
Topological Data Analysis
Neural Scaling Laws
Robust Statistics
Invariant Theory
Bayesian Inference
Representation Learning
Structured Prediction
Optimal Transport
Topological Data Analysis
Neural Scaling Laws
Robust Statistics

Work with
invariant
thinking.

We work selectively with organizations that face problems worth solving. If you are building something consequential — and need it to be both scientifically rigorous and practically deployable — reach out.

invariant.group@gmail.com