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Deploint

Solutions

Programs for enterprise change.

Eight structured programs that combine our engineering capabilities around a single outcome. Each one starts from the problem, follows a defined reference architecture and is delivered in phases, so progress is visible from the first increment.

Program composition

08 programs

Engineering capabilities each solution program draws on
Program01AI & Agentic Engineering02Software Engineering03Cloud & Platform Engineering04Cybersecurity05Data & Machine Learning06Digital Engineering07Enterprise Modernization
01AI TransformationLead capabilityNot involvedNot involvedSupporting capabilitySupporting capabilityNot involvedNot involved
02Cloud ModernizationNot involvedNot involvedLead capabilitySupporting capabilityNot involvedNot involvedSupporting capability
03Digital TransformationNot involvedLead capabilitySupporting capabilityNot involvedSupporting capabilityNot involvedNot involved
04Data ModernizationNot involvedNot involvedSupporting capabilityNot involvedLead capabilityNot involvedSupporting capability
05Legacy ModernizationNot involvedSupporting capabilitySupporting capabilityNot involvedNot involvedNot involvedLead capability
06Cybersecurity TransformationNot involvedSupporting capabilitySupporting capabilityLead capabilityNot involvedNot involvedNot involved
07Intelligent AutomationLead capabilitySupporting capabilityNot involvedNot involvedNot involvedNot involvedSupporting capability
08Enterprise Application DevelopmentNot involvedLead capabilitySupporting capabilitySupporting capabilityNot involvedNot involvedNot involved
  • 01AI & Agentic Engineering
  • 02Software Engineering
  • 03Cloud & Platform
  • 04Cybersecurity
  • 05Data & ML
  • 06Digital Engineering
  • 07Enterprise Modernization
  • LeadSupporting

01How programs are structured

Every program follows the same structure.

Read any program below in the same order: the problem it solves, how we approach it, the architecture it delivers, the phases it is delivered in and the technology involved.

Program anatomy

05 parts

Every program is documented in the same order: Problem, then Approach, then Architecture, then Implementation, then Technology
  1. 01Problem
  2. 02Approach
  3. 03Architecture
  4. 04Implementation
  5. 05Technology
  1. 01

    Problem

    The operational problem the program addresses and the signals that usually indicate it.

  2. 02

    Approach

    How we engineer the change, and the principles we hold to while doing it.

  3. 03

    Architecture

    The reference architecture the program delivers, stage by stage.

  4. 04

    Implementation

    Four phases, each ending in a working increment your teams can use.

  5. 05

    Technology

    Technologies and patterns we commonly work with in the program.

02Programs

Eight programs, one engineering organization.

Programs are delivered by the people who design, build, secure and operate the system. Use the program index to move between them.

01Program

AI Transformation

Move from AI pilots to governed, evaluated AI systems running inside core workflows.

Stages
07
Phases
04
Capabilities
03

Problem

Most organizations have AI pilots. Far fewer have AI systems in production that are governed, evaluated and used by the teams they were built for. Pilots stall on data access, security review, unclear ownership and the lack of any agreed way to measure whether outputs are good enough.

Common signals

  • Pilots that never reach production
  • No evaluation criteria for AI outputs
  • AI usage outside any governance
  • Unclear cost per use case

Approach

We treat AI as an engineering discipline. Use cases are selected by value and feasibility, the shared platform is built once (retrieval, model access, guardrails, evaluation and telemetry), and use cases ship on it in production increments, with governance that enables delivery instead of blocking it.

Principles

  • Evaluation criteria defined before build
  • Permission-aware retrieval over enterprise data
  • Human checkpoints where decisions carry risk
  • Cost, latency and quality measured per use case

Reference architecture

07 stages

AI Transformation architecture: Enterprise data, then Retrieval, then Model gateway, then Agents & tools, then Guardrails, then Evaluation, then Workflows
  1. 01Enterprise data
  2. 02Retrieval
  3. 03Model gateway
  4. 04Agents & tools
  5. 05Guardrails
  6. 06Evaluation
  7. 07Workflows

One shared platform serves every use case: a single model gateway, evaluation framework, set of guardrails and audit log.

Implementation

04 phases

  1. Phase 01

    Assess

    Use-case portfolio, data readiness, risk classification and target platform architecture.

  2. Phase 02

    Foundation

    Model gateway, retrieval, guardrails, evaluation harness and observability deployed as a shared platform.

  3. Phase 03

    Deliver

    Priority use cases shipped to production in increments, each with evaluation gates and a named owner.

  4. Phase 04

    Scale

    Governance, reusable patterns and enablement so internal teams can deliver new use cases on the platform.

Technology

  • LLM APIs
  • Open-weight models
  • Vector search
  • RAG
  • Agent frameworks
  • Evaluation suites
  • OpenTelemetry
  • Kubernetes

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

02Program

Cloud Modernization

Re-platform workloads onto resilient, observable, cost-aware cloud foundations.

Stages
06
Phases
04
Capabilities
03

Problem

Workloads moved to the cloud without re-architecture often cost more and fail in the same ways they did on premises. Without landing zones, automation and observability, every team builds infrastructure differently and security review becomes the bottleneck.

Common signals

  • Rising cloud spend without clear attribution
  • Manual, ticket-driven provisioning
  • Inconsistent environments across teams
  • Disaster recovery that has never been tested

Approach

We build a governed foundation first: landing zones, identity, networking, policy-as-code and pipelines. Then workloads move in waves, with a per-workload decision to rehost, re-platform or re-architect, and cost and reliability targets agreed up front.

Principles

  • Everything defined as code
  • Guardrails instead of gates
  • A migration strategy per workload
  • Cost visibility by team and service

Reference architecture

06 stages

Cloud Modernization architecture: Landing zone, then Identity & network, then Platform services, then CI/CD, then Workloads, then Observability & FinOps
  1. 01Landing zone
  2. 02Identity & network
  3. 03Platform services
  4. 04CI/CD
  5. 05Workloads
  6. 06Observability & FinOps

Workloads land on a shared, policy-governed platform, so security, reliability and cost controls apply by default.

Implementation

04 phases

  1. Phase 01

    Assess

    Workload inventory, dependency mapping, migration strategy per application and target architecture.

  2. Phase 02

    Foundation

    Landing zones, identity, networking, guardrails and delivery pipelines, all built as code.

  3. Phase 03

    Migrate

    Workloads moved in waves, each with testing, a cutover plan and a rollback path.

  4. Phase 04

    Optimize

    Right-sizing, reliability engineering, FinOps practices and platform enablement for internal teams.

Technology

  • AWS
  • Azure
  • Google Cloud
  • Terraform
  • Kubernetes
  • Serverless
  • GitOps
  • OpenTelemetry

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

03Program

Digital Transformation

Re-engineer customer and operational journeys as connected digital products.

Stages
06
Phases
04
Capabilities
03

Problem

Customer and employee journeys often cross several systems, teams and manual steps. A new front end alone does not fix them, because the friction lives in the integrations, data and processes behind the interface.

Common signals

  • Data re-keyed between systems
  • Journeys held together by email and spreadsheets
  • Long lead times for small product changes
  • Digital channels that disagree with each other

Approach

We re-engineer journeys end to end as digital products. We map each journey and the systems behind it, define APIs and events between them, and deliver product increments against measurable service goals, owned by cross-functional teams.

Principles

  • Start from the journey, not the screen
  • APIs and events as product boundaries
  • Small, measurable releases
  • Product ownership that outlasts the program

Reference architecture

06 stages

Digital Transformation architecture: Channels, then Experience layer, then APIs & events, then Domain services, then Systems of record, then Analytics
  1. 01Channels
  2. 02Experience layer
  3. 03APIs & events
  4. 04Domain services
  5. 05Systems of record
  6. 06Analytics

Channels share one experience and API layer, so journeys stay consistent while systems of record evolve behind it.

Implementation

04 phases

  1. Phase 01

    Discover

    Journey mapping, system and process analysis, and a prioritized product backlog.

  2. Phase 02

    Design

    Service design, API contracts, target architecture and a delivery roadmap.

  3. Phase 03

    Build

    Iterative delivery of journey increments with automated testing and release pipelines.

  4. Phase 04

    Evolve

    Measurement against service goals, transfer of product ownership and continuous improvement.

Technology

  • React
  • Next.js
  • Mobile
  • API gateway
  • Event streaming
  • Workflow engines
  • Design systems
  • Product analytics

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

04Program

Data Modernization

Consolidate fragmented data into governed platforms ready for analytics and AI.

Stages
06
Phases
04
Capabilities
03

Problem

Data spread across warehouses, operational databases, spreadsheets and SaaS tools produces conflicting numbers, slow analysis and AI projects that cannot get the data they need. Pipelines are brittle, and nobody can say with confidence where a figure came from.

Common signals

  • Conflicting metrics across teams
  • Pipelines that break silently
  • Weeks to onboard a new data source
  • AI projects blocked on data access

Approach

We consolidate onto a governed platform with clear ownership: ingestion and change data capture from source systems, a lakehouse or warehouse with modeled layers, a semantic layer for shared definitions, and governance that makes access fast and auditable.

Principles

  • Data contracts with source owners
  • Lineage from source to report
  • Shared, versioned metric definitions
  • Access policies enforced in the platform

Reference architecture

06 stages

Data Modernization architecture: Sources, then Ingestion & CDC, then Lakehouse, then Modeling, then Semantic layer, then Analytics & AI
  1. 01Sources
  2. 02Ingestion & CDC
  3. 03Lakehouse
  4. 04Modeling
  5. 05Semantic layer
  6. 06Analytics & AI

One governed path from source to consumption, with quality checks and lineage at every layer.

Implementation

04 phases

  1. Phase 01

    Assess

    Source inventory, data quality profiling, consumer needs and target platform design.

  2. Phase 02

    Foundation

    Ingestion, storage, transformation framework, catalog and access controls.

  3. Phase 03

    Migrate

    Priority domains and reports moved onto the platform and reconciled against legacy outputs.

  4. Phase 04

    Activate

    Self-service analytics, ML feature pipelines and data product ownership across domains.

Technology

  • Lakehouse
  • Data warehouse
  • Apache Spark
  • dbt
  • Kafka
  • CDC
  • Data catalog
  • Orchestration

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

05Program

Legacy Modernization

Incrementally replace or wrap legacy systems without disrupting the business.

Stages
06
Phases
04
Capabilities
03

Problem

Legacy systems often run critical processes reliably, but they are costly to change, hard to staff and difficult to integrate. Big-bang rewrites carry high risk: long freezes, business rules nobody documented, and cutovers with no way back.

Common signals

  • Changes that take months to release
  • Knowledge concentrated in a few people
  • Batch interfaces blocking real-time needs
  • Platforms approaching end of support

Approach

We modernize incrementally. We map what the system actually does, including undocumented rules, wrap it with APIs and events, then move functions to modern services one slice at a time using the strangler pattern, with parallel runs and reconciliation before each switch.

Principles

  • No big-bang cutovers
  • Business rules recovered and tested
  • Parallel runs and reconciliation
  • Every step reversible

Reference architecture

06 stages

Legacy Modernization architecture: Legacy core, then API facade, then Event layer, then New services, then Data migration, then Decommission
  1. 01Legacy core
  2. 02API facade
  3. 03Event layer
  4. 04New services
  5. 05Data migration
  6. 06Decommission

The legacy core shrinks as each capability moves behind the API facade to a modern service.

Implementation

04 phases

  1. Phase 01

    Analyze

    System discovery, business-rule extraction, dependency mapping and a modernization roadmap.

  2. Phase 02

    Wrap

    API facades, change data capture and an event layer around the legacy core.

  3. Phase 03

    Replace

    Capabilities rebuilt as modern services and validated with parallel runs and reconciliation.

  4. Phase 04

    Retire

    Data migrated, traffic switched and legacy components decommissioned.

Technology

  • Mainframe integration
  • API gateway
  • CDC
  • Event streaming
  • Microservices
  • Contract tests
  • Kubernetes
  • Data migration

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

06Program

Cybersecurity Transformation

Shift security left and inward: identity-centric, automated and continuously verified.

Stages
06
Phases
04
Capabilities
03

Problem

Perimeter-based security does not fit cloud, SaaS and distributed work. Security teams are stretched, controls are applied inconsistently, and findings arrive late in delivery, when they are most expensive to fix.

Common signals

  • Security review as a late-stage gate
  • Standing privileged access
  • Inconsistent controls across clouds
  • Limited visibility into identities and assets

Approach

We move security into identity, platforms and pipelines. Identity becomes the control plane, policy is defined as code, security checks run in every pipeline, and detection is engineered with the same discipline as the systems it protects.

Principles

  • Identity as the primary control plane
  • Least privilege, granted just in time
  • Security checks automated in delivery
  • Continuous verification over periodic review

Reference architecture

06 stages

Cybersecurity Transformation architecture: Identity, then Devices, then Network segmentation, then Workload policy, then Secure pipelines, then Detection & response
  1. 01Identity
  2. 02Devices
  3. 03Network segmentation
  4. 04Workload policy
  5. 05Secure pipelines
  6. 06Detection & response

Zero trust principles applied across every layer: each request is authenticated, authorized and logged.

Implementation

04 phases

  1. Phase 01

    Assess

    Threat modeling, control gap analysis against your chosen framework and a prioritized roadmap.

  2. Phase 02

    Identity

    SSO, MFA, privileged access management and identity lifecycle automation.

  3. Phase 03

    Embed

    Policy-as-code, DevSecOps pipelines, secrets management and cloud security posture controls.

  4. Phase 04

    Operate

    Detection engineering, response playbooks and continuous control validation.

Technology

  • Zero Trust
  • IAM
  • PAM
  • Policy as code
  • SAST / DAST
  • SBOM
  • CSPM
  • SIEM

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

07Program

Intelligent Automation

Combine workflow engines, integrations and AI to remove manual operational work.

Stages
06
Phases
04
Capabilities
03

Problem

Operational teams spend much of their week moving information between systems, checking documents and chasing exceptions. Screen-scraping automation breaks whenever an interface changes, and AI on its own cannot be trusted to run a process end to end.

Common signals

  • Manual re-keying between systems
  • Brittle screen-scraping bots
  • Exception queues managed in spreadsheets
  • No measurement of automation accuracy

Approach

We combine three layers: workflow engines that own process state, integrations through APIs and events instead of screens, and AI for the steps that need judgment over unstructured inputs, with confidence thresholds that route uncertain cases to people.

Principles

  • Process state owned by a workflow engine
  • APIs before screen automation
  • Confidence thresholds and human review
  • Accuracy and throughput measured continuously

Reference architecture

06 stages

Intelligent Automation architecture: Triggers, then Workflow engine, then Integrations, then AI steps, then Human review, then Systems of record
  1. 01Triggers
  2. 02Workflow engine
  3. 03Integrations
  4. 04AI steps
  5. 05Human review
  6. 06Systems of record

Each case moves through an explicit workflow. AI handles unstructured steps and people handle the exceptions.

Implementation

04 phases

  1. Phase 01

    Discover

    Process analysis, volume and exception profiling, and automation candidates ranked by value.

  2. Phase 02

    Design

    Target process, integration contracts, AI evaluation criteria and review thresholds.

  3. Phase 03

    Automate

    Workflows, integrations and AI steps delivered incrementally, with monitoring from day one.

  4. Phase 04

    Improve

    Accuracy and exception trends reviewed, thresholds tuned and new processes added.

Technology

  • Workflow engines
  • Document AI
  • LLMs
  • Integration platforms
  • Event streaming
  • Process mining
  • Case management
  • Observability

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

08Program

Enterprise Application Development

Design and build the mission-critical applications your organization runs on.

Stages
06
Phases
04
Capabilities
03

Problem

Packaged software does not fit every critical process, and custom applications built without engineering discipline become the next legacy system. Enterprise applications need security, integration, scale and maintainability from the first release.

Common signals

  • Critical processes run on spreadsheets
  • Packaged software customized beyond recognition
  • Applications nobody wants to change
  • Long, risky release cycles

Approach

We build enterprise applications as long-lived products: domain-driven architecture, automated testing, infrastructure as code and observability from day one, with security and integration designed in and documentation your teams can maintain.

Principles

  • Domain-driven design
  • Automated tests at every layer
  • Secure by default
  • Built to be handed over

Reference architecture

06 stages

Enterprise Application Development architecture: Users, then Web & mobile, then API layer, then Domain services, then Data stores, then Integrations
  1. 01Users
  2. 02Web & mobile
  3. 03API layer
  4. 04Domain services
  5. 05Data stores
  6. 06Integrations

Clear boundaries between interface, API, domain and data layers keep the application changeable as requirements evolve.

Implementation

04 phases

  1. Phase 01

    Define

    Requirements, domain model, architecture and delivery plan.

  2. Phase 02

    Build

    Iterative delivery with automated testing, CI/CD and regular demonstrations.

  3. Phase 03

    Launch

    Security testing, performance testing, data migration and a controlled rollout.

  4. Phase 04

    Sustain

    Monitoring, support, enhancements and knowledge transfer to your teams.

Technology

  • TypeScript
  • React
  • Next.js
  • Java
  • .NET
  • Python
  • PostgreSQL
  • Kubernetes

Start this program

Bring us the outcome you need and the systems you have. We scope the first increment together.

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