For most predictions, a language model is the wrong tool
Forecasting demand, ranking a catalogue, scoring churn risk, setting a price, catching a fraudulent transaction — these are jobs where a gradient-boosted model trained on your own history is more accurate, far cheaper per call and vastly easier to explain to an auditor than anything generative. We build those models, put them behind an API your systems can call in milliseconds, and monitor them for the day the world changes and the accuracy quietly starts sliding.
What we bring to Machine Learning
The right model for the job, including no model
Sometimes it is XGBoost on tabular features. Sometimes a well-tuned baseline and a rule table beat both, and the honest answer is that the problem is a reporting question rather than a prediction one. We establish what a simple approach achieves before proposing anything more complicated.
We build for serving, not for a notebook
A model that scores well in an experiment and cannot be called from your application has produced nothing. Feature pipelines, latency budgets and integration are designed at the start, because retro-fitting them is where most ML projects lose a quarter.
Training and serving see the same features
Training and serving skew — features computed one way offline and another way in production — is the most common cause of a model that performed well in testing and disappoints in the field. One definition, one pipeline, shared by both paths.
Drift is monitored, not discovered
Input distributions, prediction distributions and live accuracy against outcomes as they arrive, with alerts when they move. Models decay because customers, prices and seasons change; the question is whether you find out from a dashboard or from a complaint.
Explainable where it has to be
In credit, insurance, hiring and healthcare, the answer alone is not sufficient — you need the reasons, the documented training data, and a record of what the model was allowed to consider. We build model cards, feature attribution and audit trails into those systems from the beginning rather than adding them under pressure.
What our Machine Learning covers
Forecasting & predictive modelling
Demand, revenue, inventory, capacity, churn and lifetime value. Trained on your history, evaluated against the naive baseline you are implicitly using now, and delivered with prediction intervals rather than a single misleadingly confident number.
Ranking & recommendation
Search ranking, product and content recommendation, and next-best-action scoring, built on your interaction data and measured by online tests rather than offline metrics alone. We plan for cold start and catalogue turnover, since both break naive recommenders quickly.
Anomaly & fraud detection
Transaction fraud, payment risk, network irregularities and manufacturing defects. Tuned on the trade-off that actually matters to you — the cost of a missed case against the cost of a false positive landing in a human queue.
Computer vision
Quality inspection, object detection and counting, document and form extraction, and safety monitoring. Deployed to the cloud or to the edge where bandwidth, latency or privacy make sending images off-site impractical.
NLP & document intelligence
Classification, entity extraction, routing and structured capture from unstructured text at scale. We combine classical models with language models deliberately — a small classifier is often faster, cheaper and more consistent for a high-volume routing decision.
MLOps & model operations
Feature stores, reproducible training pipelines, model registries, staged rollouts with shadow scoring, retraining schedules and monitoring. This is the part that determines whether you have one model in production or twenty.
The engagement, step by step
- 01
Problem framing
What decision changes as a result of the prediction, who acts on it, and what it is worth being right. We set the accuracy bar against your current approach — a model that beats a benchmark but not the spreadsheet the team already uses has achieved nothing.
- 02
Data assessment & preparation
Auditing history, labels, leakage and gaps. This is usually the longest phase and the one that decides feasibility; if the labels do not exist, we say so before anyone commits to a build.
- 03
Baseline & experimentation
A simple model first to establish what easy accuracy looks like, then structured experiments with tracked runs, so improvements are attributable and results are reproducible months later.
- 04
Validation
Backtesting on time-ordered holdouts for anything temporal, error analysis by segment rather than a single average, fairness checks where the decision affects people, and a written statement of where the model is unreliable.
- 05
Deployment & integration
Served behind an API or run as a scheduled batch, released to a fraction of traffic or in shadow mode first, and integrated into the system where the decision is taken. Fallback behaviour is defined for when scoring is unavailable.
- 06
Monitoring & retraining
Drift and accuracy tracked continuously, retraining on a schedule or a trigger, and each new version compared against the incumbent before it takes traffic. Retirement is planned too — models that stop earning should be switched off.
Machine Learning technology stack
Frameworks
Languages
Platforms
Data & features
Specialised
Why teams choose us for Machine Learning
We benchmark against doing nothing
Every model is scored against your current process, not against a leaderboard. If the improvement does not justify the cost of running and maintaining it, that finding is the deliverable.
Production is the deliverable
The engagement is not finished at a validated model. It is finished when the prediction reaches the system that acts on it, monitoring is live, and your team knows how to retrain it.
Your data stays yours
Models are trained in your cloud accounts on your data, artefacts and pipelines live in your repositories, and nothing is used to improve anything we sell to anyone else.
We tell you when the data is not there
Plenty of good ideas fail on missing labels, too little history or an outcome nobody records. Finding that in a two-week assessment costs a fraction of finding it four months in.
Machine Learning questions, answered
Last updated: August 31, 2026
Because for numeric prediction it is usually worse, slower and more expensive. Forecasting, ranking, pricing, churn scoring and anomaly detection depend on patterns across millions of rows of structured history — exactly what gradient-boosted trees and similar methods are built to exploit, at a fraction of a cent and a few milliseconds per prediction. Language models earn their place on unstructured input: text, documents, images, conversation. Most real systems use both, each on the part of the problem it suits, and we are explicit about which is doing what.
Tell us what your team currently guesses at
The demand forecast in a spreadsheet, the manual review queue, the risk call made from experience. Those are the places a model tends to pay for itself, and an assessment will tell you whether your data supports one.
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