We design, train, and ship production machine learning — predictive models, forecasting, natural language processing, and computer vision — on the data your business already generates. Engineered for production, not demos
Supervised models that learn from your historical transactions to score risk, project demand, and flag churn before it shows up in the numbers.
Language models tuned to your domain vocabulary for extraction, classification, summarization, and semantic search over your own corpus.
Image and video models for inspection, counting, reading, and detection — deployed to cloud GPUs or to edge devices installed on site.
The unglamorous half of machine learning: pipelines that clean, label, version, and serve the data your models train and infer on.
Reproducible training runs, versioned artifacts, and deployment paths designed so a model can be retrained and rolled back safely.
Evaluation harnesses, bias checks, and human review points so model behavior stays explainable to the people accountable for it.
Forecast SKU-level demand from sales history, seasonality, and promotions to inform purchase and production planning.
Extract structured fields from invoices, contracts, claims, and scanned records so downstream systems receive clean data.
Vision models trained on your own defect images to grade parts, surfaces, and packaging as they move down the line.
Propensity, churn, and lifetime-value models that rank customers for retention, credit, and campaign targeting.
Embedding pipelines and vector indexes over your internal knowledge, so search returns meaning rather than keyword matches.
Unsupervised and supervised detectors that surface transactions, sensor readings, or log patterns breaking from the norm.
Architectures chosen for your problem and your dataset rather than a generic off-the-shelf endpoint.
Versioned pipelines and registries so models are refreshed as data shifts, not rebuilt from scratch.
Held-out evaluation and error analysis run before a model ever reaches production traffic.
Inference packaged for cloud, on-premise, or edge hardware depending on latency and data-residency needs.
Translate the business question into a modeling task with a defined target variable and a success metric.
Assess data availability and quality, build the pipelines, and establish a simple baseline worth beating.
Iterate on features and architectures, with held-out evaluation and error analysis at every round.
Ship inference into your environment, then watch for drift and retrain on an agreed cadence.
How we scope, train, deploy, and maintain machine learning models.
Our AI agents service covers autonomous agents that plan, call tools, and orchestrate multi-step workflows. This service covers the models underneath: training predictive, language, and vision models on your data, plus the MLOps pipelines that keep them current. Many projects use both — a trained model producing the score, an agent deciding what to do with it.
It depends on the task. Tabular forecasting and classification often work from the history already sitting in your ERP or CRM. Vision and language tasks usually need labeled examples, so we scope a labeling plan during discovery. If the data genuinely is not there yet, we say so and start with instrumentation rather than modeling.
Both, chosen per problem. Classical gradient-boosted and time-series models still win on tabular data. For language and vision we typically start from a pre-trained backbone and fine-tune on your domain data, which costs less and needs far fewer labeled examples than training from scratch.
Yes. We package inference for cloud GPUs, on-premise servers, or edge devices on the shop floor, choosing model size and quantization to fit the hardware. On-premise deployment is common where data residency rules or plant connectivity make sending images and records off site impractical.
That is drift, and it is expected rather than a defect. We instrument inputs and predictions so distribution shifts and accuracy decay become visible, define retraining triggers up front, and keep previous model versions available so a rollback is a deployment step rather than a rebuild.
Against a held-out dataset the model never saw during training, using metrics chosen for the business cost of each error type — precision matters more where false positives are expensive, recall where missed cases are. We also run error analysis on failure cases and, where relevant, check performance across segments for bias.
Bring us the question and the data you already collect. We will tell you honestly whether machine learning is the right tool for it.