INDEPENDENT SYSTEMS LABORATORY / REV 0.1

Applied intelligence for the physical world.

We design and prototype intelligent, distributed and autonomous systems for real-world environments.

EDGE INTELLIGENCE · SENSING · EMBEDDED SYSTEMS · AUTONOMOUS NETWORKS · COMPUTATIONAL FABRICATION

Systems in the physical world

Four system directions for computation beyond the screen.

Two solar-powered field monitoring stations installed along an agricultural fence
SYSTEM CONTEXT / 001 · ILLUSTRATIVE
001CONCEPT / 2026

Distributed territorial sensing

A system study for sensing physical conditions across wide, intermittently connected territories.

  • NETWORKS
  • PHYSICAL COMPUTING
  • OPEN INFRASTRUCTURE
Explore system
Weatherproof electrical enclosure undergoing a water-ingress test on a workshop bench
SYSTEM CONTEXT / 002 · ILLUSTRATIVE
002RESEARCH / 2026

Edge intelligence infrastructure

Local inference infrastructure designed for constrained, private or intermittently connected environments.

  • INTELLIGENCE
  • DIGITAL INFRASTRUCTURE
  • PHYSICAL COMPUTING
Explore system
Two technicians wiring a weatherproof environmental monitoring node on a workbench
SYSTEM CONTEXT / 003 · ILLUSTRATIVE
003PROTOTYPE / 2026

Local autonomous networks

Network structures able to coordinate locally when central infrastructure is absent or undesirable.

  • NETWORKS
  • AUTONOMOUS SYSTEMS
  • DECENTRALISED SYSTEMS
Explore system
Robotic fabrication head depositing layered mineral material into a curved structural component
SYSTEM CONTEXT / 004 · ILLUSTRATIVE
004CONCEPT / 2026

Computational fabrication

Toolpaths, geometry and machine behaviour treated as one computational system.

  • COMPUTATIONAL FABRICATION
  • AUTONOMOUS SYSTEMS
Explore system

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LAB

Experiments, prototypes and research in progress.

The world is becoming programmable.

Machines can perceive.

Infrastructure can communicate.

Intelligence can move to the edge.

Physical systems can become adaptive.

Networks can operate without central control.

Different technologies increasingly become parts of the same system.

We build systems for that world.

Fields

Areas of technical practice. Their value appears in combination.

01

INTELLIGENCE

Perception and decision support placed where the physical process happens.

02

NETWORKS

Infrastructure designed to sense, communicate and operate across physical environments.

03

AUTONOMOUS SYSTEMS

Machines and coordinated processes able to act with bounded local authority.

04

DIGITAL INFRASTRUCTURE

Computing foundations that remain inspectable, maintainable and proportionate.

05

COMPUTATIONAL FABRICATION

Geometry, material, toolpaths and machine feedback treated as one workflow.

06

DECENTRALISED SYSTEMS

Infrastructure that distributes control without hiding operational complexity.

07

PHYSICAL COMPUTING

Sensors, embedded systems and interfaces that make computation tangible.

08

OPEN INFRASTRUCTURE

Standards and shared knowledge designed to outlast a single vendor or deployment.

PRINCIPLES

A system is judged by how it behaves when conditions stop being ideal.

P/01

LOCAL FIRST

Systems should remain useful when remote infrastructure disappears.

P/02

INTEROPERABLE

Prefer standards and interoperable systems over closed ecosystems.

P/03

DECENTRALISABLE

Avoid unnecessary single points of control.

The screen is only one surface.

We work where software meets energy, distance, materials, machines, maintenance and human judgement. The physical world supplies the constraints—and the reason to build.

Build something that does not exist yet.

If a project sits between disciplines, technologies or conventional categories, we want to hear about it.

CONTACT