Confide is an MLOps and AI quality management platform by Corpy&Co. — one place to take a model from data to training, evaluation, and operations, with QA and explainability.
Overview
Most ML work dies in the gap between a notebook and production: data scattered across folders, transforms nobody can reproduce, models with no record of what they were trained on. Confide closes that gap by making the whole lifecycle — data, training, evaluation, operations — run through one platform where everything is versioned and traceable.
And because it serves quality-critical industries, deployment isn't just on cloud, releases ship to internal staging and production, to offline client machines.
The lifecycle
Assets are uploaded, versioned, and tagged into annotation sets — a browsable, searchable dataset instead of loose folders.
An embedded Label Studio editor for manual work, and prompt-based auto-annotation for labeling whole datasets in one run.
EDA scores every dataset on completeness, consistency, and accuracy, with clustering analysis and AI-generated insights before any training starts.
Training runs produce confusion matrices, per-class PR curves, and best/worst class breakdowns — every model version tied to the data that produced it.
Releases ship as versioned container images — to staging, production, or offline client machines.
Inside the platform
Manual labeling runs in an embedded Label Studio editor, right next to the dataset. For the bulk work, prompt-based auto-annotation takes a text description of what to detect, runs a model across the set with a confidence threshold, and queues everything for human review — labeling goes from per-image work to a supervised batch job.
Every dataset gets scored — overall quality, completeness, consistency, accuracy — and a clustering analysis shows how the data actually distributes. AI-generated insights read the plots for you: well-separated clusters, balanced classes, and what that means for the model you're about to train.
Anomaly detection has a data problem: factories produce thousands of good parts and almost no defective ones. The anomaly generation tool composites real defect patches onto OK images with Poisson blending — position, size, brightness, and blending all tunable — turning a handful of real defects into a training set.
A training run doesn't end with one accuracy number. Results come back as a confusion matrix, confidence distributions, overall and per-class precision-recall curves, and a blunt best-and-worst class ranking — with evaluation and XAI runs one click from the same screen.
Three modules
DM
Manage, analyze, and process data — exploratory analysis, preprocessing, and versioned pipelines that keep the lineage of every transform.
MM
Manage, train, and evaluate models, so every version has a traceable history of what it was trained on and how it scored.
XAI
Explainable-AI tooling built into operations, because in quality-critical deployments 'the model said so' isn't an answer.
Architecture
The web and API layer is the control plane: it registers each module and holds the metadata records. Long-running work never blocks a request: pipeline runs, training, and evaluation execute on a fleet of async workers. Everything that crosses an environment boundary is an artifact — versioned container images in a registry, pipeline configs in the database, and lineage logs tying every model version to its dataset snapshot and deployment event.
The API and metadata layer, with modules registered per deployment.
Async workers for pipeline runs, training, and evaluation — nothing heavy blocks the app.
Container images as the release unit, versioned pipeline configs, full lineage logs.
Engineering decisions
A preprocessing pipeline isn't a script someone ran once — it's a config stored in the database with a version, a parent it can inherit from, and the dataset it belongs to. That makes every run re-runnable and answers the lineage question: which transforms, in which version, produced this data.
The AI core is modularized into an installable package with optional add-ons per module — install only what a deployment needs. Missing features degrade to 'feature disabled' instead of a crash, and client installs stay small because they only carry the modules they use.
Merges trigger the test pipeline; a passing build produces a versioned container image pushed to a registry. Staging and production run containers only — no source code on the box. For offline client machines, the same images travel as saved archives and load without touching the internet.
Realistic datasets killed pipeline workers on 16GB machines — images loaded eagerly into memory, transforms accumulated in lists. The fix is architectural: pass paths instead of arrays, load lazily inside transforms, stream per-asset, and write to temp files. Client hardware is a constraint, not an afterthought.
Outcome
The measure of an MLOps platform is what its users stop doing: no more loose folders of images, no more untraceable models, no more hand-run scripts nobody can reproduce.
Next project
Confide · 2025