Rokad

Prediction, recommendation, classification, forecasting, optimisation, and anomaly detection

Machine learning development

Rokad develops machine-learning systems from problem and data assessment through modelling, deployment, monitoring, and business workflow integration.

Designed for / 01

A focused delivery model for the organisations that need it.

Machine learning is effective when the target, data, decision, feedback, and operating environment are well defined. Rokad builds predictive, ranking, recommendation, classification, forecasting, anomaly, and optimisation systems with reproducible training, evaluation, deployment, and monitoring.

01

Organisations with repeatable decisions and historical data

Use patterns in operational, customer, transaction, device, or market data to improve prioritisation and planning.

02

Product teams adding predictive capability

Embed scoring, recommendation, ranking, forecasting, detection, or personalisation into a software product.

03

Teams moving models from notebooks to production

Establish reproducible data, training, evaluation, serving, monitoring, ownership, and release processes.

Challenges / 02

The problems this service is built to solve.

01

The prediction target is poorly defined

A technically accurate model may not improve the decision, workflow, timing, or economic outcome that matters.

02

Training data does not represent production reality

Leakage, missing labels, bias, changing processes, sparse events, and delayed outcomes undermine model performance.

03

A model exists without an operating system

Serving, feature consistency, monitoring, feedback, retraining, rollback, and human use have not been designed.

Capabilities / 03

What Rokad can deliver.

01

Problem framing, target definition, baseline, and economic evaluation

02

Data discovery, quality, labelling, feature, and leakage assessment

03

Classification, regression, ranking, recommendation, forecasting, anomaly, and optimisation models

04

Experiment tracking, reproducible training, validation, and model comparison

05

Batch, real-time, edge, or embedded inference integration

06

Monitoring, drift, performance, fairness, feedback, retraining, and rollback

07

Product interfaces, decision workflows, APIs, and managed operation

Solution components / 04

The system behind the visible product.

01

Decision definition

Who uses the prediction, when it arrives, which action follows, what errors cost, and how success is measured.

02

Data and feature pipeline

Sources, labels, joins, timing, transformations, quality checks, feature consistency, lineage, and reproducibility.

03

Model and serving

Baselines, algorithms, validation, calibration, inference, performance, scale, versioning, and fallback behaviour.

04

Learning operations

Production outcomes, drift, feedback, thresholds, review, retraining, approval, rollout, and model retirement.

Use cases / 05

Where this capability creates practical leverage.

01

Forecasting and planning

Estimate demand, capacity, inventory, workload, revenue, risk, or operational volume with uncertainty and feedback.

02

Recommendation and ranking

Prioritise products, content, actions, leads, cases, or opportunities using behaviour, context, and constraints.

03

Risk and anomaly detection

Identify unusual transactions, device behaviour, quality patterns, operational events, or security signals for review.

04

Classification and routing

Categorise documents, requests, customers, events, or records and direct them into the appropriate workflow.

Architecture and integration / 06

Designed to fit the wider technology environment.

01

Training-serving consistency

Use aligned feature definitions, timestamps, transformations, schemas, and validation across historical training and live inference.

02

Baseline and fallback

Compare models against simple rules and preserve deterministic or previous-model behaviour when confidence or system health is insufficient.

03

Feedback and delay

Account for when true outcomes arrive, how user actions affect labels, and how model influence changes future data.

Quality and control / 07

Production requirements are part of the build.

01

Measured behaviour

Representative evaluation data, quality criteria, failure modes, and release thresholds are defined before expanding production use.

02

Controlled actions

Permissions, policy checks, approval gates, audit trails, fallbacks, and escalation paths govern consequential AI behaviour.

03

Observable operation

Inputs, outputs, retrieval, tool calls, latency, cost, model versions, and quality trends are monitored appropriately.

Delivery / 08

A controlled path from requirement to operation.

01

Discover

Clarify the business outcome, users, workflows, constraints, dependencies, risks, and measurable acceptance criteria.

02

Architect

Define the system boundaries, data, integrations, security, operating model, delivery sequence, and technical decisions.

03

Build and validate

Deliver in controlled increments with stakeholder review, automated testing, documentation, and production-quality engineering.

04

Deploy and improve

Launch safely, establish observability and support, then improve the system using operational evidence and user feedback.

Typical deliverables

ML feasibility, target, data, baseline, and risk assessment
Data, feature, training, validation, and inference architecture
Reproducible model training and experiment pipeline
Production batch, API, streaming, edge, or embedded inference
Evaluation, drift, quality, feedback, and release controls
Model card, technical, governance, and operating documentation

Engagement models / 09

Use the delivery structure that matches the work.

01

Fixed-scope delivery

A defined outcome, scope, acceptance criteria, milestones, and commercial structure for a bounded project.

02

Dedicated product team

A stable cross-functional team delivering an evolving roadmap with shared product and engineering ownership.

03

Embedded specialists

Specialist engineers working inside an existing product, technology, data, design, or operations team.

04

Managed evolution

Ongoing reliability, security, maintenance, feature delivery, and roadmap execution after launch.

FAQ

Machine learning development

Scope, ownership, assumptions, delivery, security, and long-term operation are clarified before work begins.

01

How do we know whether we have enough data?

We assess sample volume, target frequency, label quality, time coverage, feature availability, leakage, representativeness, and the performance of simple baselines before committing to complex modelling.

02

Can Rokad improve an existing model?

Yes. We can review target definition, data, features, validation, leakage, calibration, serving, monitoring, workflow integration, and business impact rather than optimising a metric in isolation.

03

How are models monitored after deployment?

Monitoring can cover data quality, feature drift, prediction distribution, latency, errors, outcomes, performance, calibration, fairness, system health, and business metrics.

04

Can models run in real time or on devices?

Yes, where the data, latency, hardware, model size, update, privacy, and reliability requirements support real-time, edge, mobile, or embedded inference.

AI development

Build the learning system around the decision—not only the model.

Rokad can assess the target, data, baseline, workflow, economics, and operating requirements before production development.

Discuss your ML use case

Contact / 05

Bring us the difficult technology problem.

Tell us what you need to build, improve, procure, deploy, or operate. We will respond with a practical next step.

Direct email

sales@rokad.co

Response

Within one business day

Delivery

India and global

Your enquiry is delivered directly to the Rokad sales team. We normally respond within one business day.