Nine application services run as one assess, modernize, build, integrate, test and support. Legacy systems moved forward in increments rather than rewritten in the dark, with an automated safety net proving the business still works after every change.
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Individually consumable, designed to run as one. Pick a line to see what's inside.
Before anyone writes code: what you have, what it costs, what it blocks — and the disposition decision for every application, with the business case attached.
Platform ecosystem: CAST Highlight · SonarQube · vFunction · Azure Migrate · AWS MAP tooling
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Legacy systems moved forward in increments — strangler-pattern migrations that ship value every sprint instead of a rewrite that lands in two years.
Platform ecosystem: Docker · Kubernetes · Azure App Service · AWS ECS/EKS · Red Hat OpenShift
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The applications no product will cover built to your process, your integrations and your compliance obligations, with an engineering discipline that outlives the project.
Platform ecosystem: .NET · Java Spring · Node.js · Python · React · Angular · Flutter · React Native
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Applications built for the platform they run on — microservices, containers, event-driven design and serverless where it earns its place, not because it’s fashionable.
Platform ecosystem: Kubernetes · Terraform · Azure DevOps · GitHub Actions · Kafka · Datadog · Grafana
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The layer that decides whether modernization sticks: clean contracts between systems, so the next change costs days instead of quarters.
Platform ecosystem: Azure API Management · Apigee · MuleSoft · Kong · Kafka · Boomi · Logic Apps
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Applications that decide, not just record — data platforms, embedded intelligence and governed AI features shipped inside the products people already use.
Platform ecosystem: Azure OpenAI · Claude · Databricks · Snowflake · Microsoft Fabric · Power BI · MLflow
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Modernization people can feel — research, service design and interface engineering so a rebuilt system is measurably easier to use than the one it replaced.
Platform ecosystem: Figma · Storybook · React · Angular · Tailwind · Axe · Maze
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The reason incremental modernization is safe: an automated safety net that proves the legacy behaviour survived the move, on every commit.
Platform ecosystem: Playwright · Selenium · Cypress · JMeter · k6 · SonarQube · OWASP ZAP
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Someone accountable after go-live: L1–L3 application support, SRE practice and a continuous-improvement backlog that keeps shrinking the run cost.
Platform ecosystem: ServiceNow · Jira · Azure DevOps · Datadog · New Relic · PagerDuty
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A single change request touches the backlog, a codebase nobody fully understands, an integration layer built by people who have left, a manual regression pack and a quarterly release window. Every hand-off adds a month and eventually the business stops asking, which is the most expensive outcome of all.
Unsupported runtimes, undocumented logic and single-person dependencies — systems that still run the business but can no longer absorb it.
Years of point-to-point interfaces nobody can map. One field change breaks four downstream systems, so nothing gets changed.
Most of the application budget spent keeping the estate alive, leaving too little for the work that would reduce next year’s run cost.
The two-year big-bang programme that ships nothing until the end then arrives late, over budget and behind a business that moved on.
Every recommendation traces back to your code, your run costs and your change history. The assessment tells you what to retire as readily as what to rebuild — including when the honest answer is ‘leave it alone’.
Strangler-pattern migration, parallel running and reversible cutovers. You see working software every sprint and can stop, redirect or roll back at any increment — which is what makes the programme survivable.
Source code, pipelines, infrastructure-as-code, design systems and documentation sit in your repositories from day one. No black boxes, no lock-in engineered as a commercial strategy.
The team that modernizes can also support: 24/7 AMS, SRE practice and a technical-debt burn-down backlog. Accountability doesn’t transfer at go-live, which changes how the build gets done.
With evidence, not preference. A portfolio assessment scores each application on technical health, run cost, change frequency and business criticality, then assigns one of six dispositions — retain, retire, rehost, re-platform, refactor or replace — with payback modelled per option. Most estates end up as a mix, and a meaningful share of applications are best retired rather than modernized at all.
The strangler-fig pattern. New capability is built alongside the legacy system behind an API façade, traffic moves route by route, and the old system shrinks each sprint while still running production. Every increment is independently reversible, and an automated regression harness built from live behaviour proves nothing broke. One UK lending platform moved off a 22-year-old monolith across 14 increments with no freeze weeks.
You do — in every engagement model. Source code, CI/CD pipelines, infrastructure-as-code, documentation and design systems are yours, held in your repositories from day one rather than handed over at the end. We don’t build dependency on us as a commercial strategy.
That’s the normal starting point. We use automated code and dependency discovery to rebuild the map, capture actual runtime behaviour into an automated regression suite, and treat that suite as the specification — so the question becomes “does it still behave the same?” rather than “was the documentation right?”
Three lines, and they should be modelled separately in the business case: infrastructure and licence run cost (usually the fastest payback, often funded by retiring redundant applications), engineering throughput (release lead time and change-failure rate), and risk avoidance (unsupported runtimes, single-person dependencies, audit exposure). We put numbers against each in the assessment rather than quoting industry averages.
Yes — that’s most AMS transitions. Knowledge acquisition runs alongside the incumbent where possible, runbooks are created as a transition deliverable rather than an intention, then operations move to SLO-based support with a standing technical-debt burn-down backlog. We transitioned 46 applications for one telecommunications group with no coverage gap at handover.
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