00Software & infrastructure engineering

Systems built
to keep
running

RIVER KG is an IT company working on custom software, cloud architecture, data platforms, and secure infrastructure. We take responsibility for how systems behave under load, over years, and in the hands of the people who operate them.

Corridor between rows of black server racks with structured cabling in a cold, brightly lit data centre
Figure 01 — Rack aisle, structured cabling, redundant power distribution

01Company overview

What we do

We design, build, and operate software and infrastructure for organisations where downtime, incorrect data, or a failed migration has real consequences.

Projects usually begin with a system that already exists: a service that has outgrown its original design, an integration that breaks silently, a reporting process that nobody trusts. Our first task is to describe that situation accurately.

From there we work in defined increments, with architecture written down, decisions justified, and each release observable in production. The result is a system the client owns entirely — code, infrastructure definitions, and documentation.

02Core capabilities

Four disciplines, one delivery model

01Applied software engineering
Backend services, APIs, and application logic written for long maintenance horizons: explicit boundaries, typed contracts, and tests that describe behaviour rather than implementation.
02Cloud and platform architecture
Network topology, compute strategy, storage tiers, and cost models designed together, so that infrastructure decisions remain reversible as the workload changes.
03Data engineering
Ingestion, transformation, and modelling pipelines with defined schemas, lineage, and validation rules, so that reported numbers can be traced back to their source.
04Operations and reliability
Observability, alert design, deployment automation, and recovery procedures rehearsed before they are needed rather than written after an incident.

03Featured technology

Before code is written, the system is drawn: services and their responsibilities, data ownership, synchronous and asynchronous paths, failure domains, and the boundaries where information crosses trust levels.

Diagrams are kept current with the implementation. When they diverge, the diagram is corrected rather than abandoned — it remains the shared reference during incidents and onboarding.

Line-drawn architecture diagram showing distributed cloud regions, server nodes, and their connections on paper
Figure 02 — Multi-region service topology, schematic view

04Services overview

Ten areas of work

Engagements combine several of these areas. The mix depends on the state of the existing system and the constraints around it.

  1. 01

    Custom software development

    Domain-specific systems built from requirements, not from templates.

  2. 02

    Web application development

    Accessible, fast interfaces with server-rendered delivery where it matters.

  3. 03

    Cloud architecture

    Environment design, networking, scaling policy, and cost boundaries.

  4. 04

    System integration

    Contract-first connections between internal systems and third-party services.

  5. 05

    Cybersecurity engineering

    Threat modelling, access control, secrets management, and hardening.

  6. 06

    Data platforms and analytics

    Pipelines, warehouses, and models that stay consistent over time.

  7. 07

    DevOps and infrastructure

    Reproducible environments, delivery pipelines, and infrastructure as code.

  8. 08

    Technical consulting

    Architecture review, technology assessment, and delivery planning.

  9. 09

    Software modernisation

    Incremental replacement of legacy components without freezing the business.

  10. 10

    Ongoing technical support

    Monitoring, maintenance, and controlled evolution after launch.

05Industries & business challenges

Recurring problems we are asked to solve

ContextTypical problemEngineering response
Logistics and operationsScheduling and tracking data spread across spreadsheets and disconnected tools.Single operational data model, event history, and interfaces built around daily working rhythms.
Financial and regulated servicesManual reconciliation and audit trails that cannot be reconstructed reliably.Append-only records, deterministic calculations, and reporting derived from one source.
Industry and manufacturingMachine and sensor output collected but not usable for decisions.Ingestion pipelines, normalised measurements, and dashboards tied to defined thresholds.
Healthcare and public sectorSensitive data handled by systems with unclear access boundaries.Role-based access, encryption in transit and at rest, and documented data flows.
Software product companiesDelivery slowing down as the codebase and infrastructure grow.Modular boundaries, automated pipelines, and measurable release health.
Close-up of application source code displayed on a dark editor screen with a file tree in the sidebar
Figure 03 — Service routing module under review

06Development approach

How the work proceeds

  1. 01Understand

    We start with the existing system, its constraints, and the people who operate it. Documentation of the current state comes before proposals for a future one.

  2. 02Model

    Domain concepts, data ownership, and failure modes are written down and reviewed. Disagreement at this stage is cheaper than disagreement in production.

  3. 03Build in slices

    Each increment is deployable and observable. Progress is demonstrated by working software in a real environment, not by percentage estimates.

  4. 04Operate

    Instrumentation, runbooks, and handover material are produced alongside the code, so that the system can be run by the team that owns it.

07Technology expertise

Tools we work with

Technology choices follow the problem. We prefer widely supported, well-documented components over novelty, and we avoid dependencies that cannot be operated by the client's own team.

Languages
TypeScript, Python, Go, Java, SQL
Frontend
React, server-side rendering, design systems, accessibility
Backend
REST and RPC services, event-driven messaging, background processing
Data
PostgreSQL, columnar warehouses, streaming ingestion, dbt-style modelling
Infrastructure
Containers, Kubernetes, serverless runtimes, infrastructure as code
Delivery
CI/CD pipelines, automated testing, staged rollouts, observability stacks
Monochrome analytics interface mockup with line chart, distribution ring, and a data table
Figure 04 — Internal operations interface, component study

08Security & quality principles

Non-negotiable practices

Least privilege by default

Access is granted per role and per environment. Credentials are stored in managed secret systems and rotated, never embedded in source or configuration files.

Verified builds

Dependencies are pinned and scanned. Builds are reproducible, artefacts are traceable to a commit, and deployments are recorded.

Reviewable change

Every change passes review and automated checks. Rollback paths exist before a release, and migrations are written to be reversible where the data model allows.

Defence in depth

Validation at boundaries, encryption in transit and at rest, network segmentation, and logging designed for investigation rather than volume.

Patch panel with orange and grey network cables connected in numbered ports inside a dark equipment rack
Figure 05 — Segmented network patching, labelled port assignment

09Project workflow

From first review to steady operation

  1. Phase 01

    Discovery

    Systems review, constraints, risks, and a written scope with open questions listed explicitly.

  2. Phase 02

    Architecture

    Data model, interfaces, environments, and non-functional requirements agreed in writing.

  3. Phase 03

    Implementation

    Iterative delivery into a staging environment with review at the end of each increment.

  4. Phase 04

    Hardening

    Load behaviour, security review, failure testing, and documentation completion.

  5. Phase 05

    Release

    Staged rollout, monitoring in place, and a defined rollback procedure.

  6. Phase 06

    Operation

    Maintenance, observability review, and planned improvement cycles.

10Key facts

How RIVER KG operates

Engineering-led
Work is scoped, estimated, and delivered by the engineers who build it.
Written architecture
Every project has documented decisions with the reasoning preserved.
English working language
All communication, documentation, and code review in English.
Source ownership
Clients hold the repositories, infrastructure accounts, and credentials.

We publish no unverified figures, awards, or client names on this website.

11Working with RIVER KG

Why organisations choose us

Four engineers seated at a long desk reviewing a whiteboard covered with data pipeline and service diagrams

Specificity over generality

We prefer a narrow system that fits the process precisely to a broad platform that fits nothing well. Requirements are reduced to what the organisation actually does.

Direct engineering contact

The people writing the code take part in the discussions. There is no translation layer between technical reality and project reporting.

Operational thinking from the start

Monitoring, backups, permissions, and cost behaviour are part of the design phase, not tasks postponed until after launch.

Transferable results

Documentation, infrastructure definitions, and code are structured so another team could continue the work without a rewrite.

12Company statement

Software is infrastructure. It should be documented, observable, recoverable, and understood by the people who depend on it.

Abstract data visualisation of dense black and vermillion vertical bars and scattered points on cream paper
Figure 06 — Throughput distribution study, abstract representation

13Contact information

Reach us

Company
RIVER KG
Email
nelliebutl26@gmail.com
Website
riverkg.com