RESILEX

RESILEX / AUTONOMOUS INFRASTRUCTURE

Machines that build and operate infrastructure

People define the goal. Machines carry out the work.

RESILEX is developing a platform that connects digital engineering, autonomous machines and real-world verification for industrial construction and operations.

People set objectives, approve critical decisions and step in when conditions are unusual.

Machines take on repeatable, heavy and hazardous physical work.

  1. 01

    GOAL

  2. 02

    PLAN

  3. 03

    WORK

  4. 04

    MEASURE

  5. 05

    CHECK

  6. 06

    NEXT STEP

One site, one shared picture of the work

The long-term system connects project data, machines, sensing and inspection around a common objective.

WHY IT MATTERS

The farther the site, the harder it is to support with people

Remote industrial projects depend on crews, service teams and supply chains that may be hundreds or thousands of kilometres away.

Every shift change, delivery and repair becomes slower and more expensive. RESILEX is intended for places where equipment should handle more routine work locally, while people focus on supervision, maintenance and difficult decisions.

  1. 01REMOTE LOGISTICS
  2. 02HARSH CLIMATE
  3. 03LIMITED SPECIALISTS
  4. 04HAZARDOUS WORK
  5. 05LONG SUPPLY CHAINS
  6. 06SLOW RECOVERY

HOW IT WORKS

A person defines the result. The system organises the work.

Autonomy is useful only when the work can be planned, carried out and checked as one continuous process.

01

Example: prepare a foundation

RESILEX reads the project and the current site state, breaks the goal into operations, assigns equipment and follows the dependencies between tasks. When the work is done, the site is measured again and the result is compared with the project.

  1. 01

    Define the goal

    The required result, limits and acceptance criteria are set by people.

  2. 02

    Build the plan

    The Orchestrator creates an ordered set of operations and identifies the resources required.

  3. 03

    Carry out the work

    Machines perform their part of the task under supervision and safety constraints.

  4. 04

    Measure the result

    Cameras, LiDAR, UAVs and site measurements record what was actually completed.

  5. 05

    Compare with the project

    The measured state is checked against geometry, tolerances and task requirements.

  6. 06

    Continue or revise

    The task is accepted, investigated or returned for a revised plan.

WHERE IT CAN BE USED

Start where distance, risk and logistics matter most

The same system logic can support several industries, but the first applications are those where reducing continuous human presence creates clear operational value.

  1. 01

    Autonomous construction

    Connected site preparation, earthworks, assembly, inspection and commissioning.

  2. 02

    Mining

    Coordination of excavation, haulage, processing and storage as one material flow.

  3. 03

    Remote industrial sites

    Infrastructure where service access, staffing and recovery take significant time.

  4. 04

    Arctic and extreme environments

    Operations shaped by cold, limited connectivity, seasonal logistics and hazardous conditions.

WHAT WE ARE BUILDING NOW

We are starting with one complete, testable loop

RESILEX is at an early development stage. The immediate goal is not to claim an autonomous site, but to prove one useful physical operation from task definition to measured acceptance.

CURRENT FOCUS

Orchestrator + HEX

We are developing the system architecture and the HEX excavation concept together so that software, machine control and result verification are tested as one chain.

DEMO-01

First demonstration target

Define an excavation task, approve it, execute it with HEX, scan the result and decide whether to accept the work or revise the plan.

DEVELOPMENT STATUS

We publish what we can support with evidence

Concepts, digital models, simulations and physical tests are different stages. RESILEX labels them separately so the long-term direction remains clear without overstating current capability.

Current public status: system architecture and design studies. The next evidence should come from digital models and simulation.

  1. 01CONCEPT
  2. 02DIGITAL MODEL
  3. 03SIMULATION
  4. 04PHYSICAL PROTOTYPE
  5. 05FIELD TEST
  6. 06PILOT

Engineering notes

What we are learning as we build

Longer explanations of the ideas behind RESILEX, the first test scenarios and the engineering questions that still need answers.

01

What is autonomous construction?

A practical definition based on one connected process: plan the work, carry it out, measure the result and decide what happens next.

Read the note
02

What does an Industrial Orchestrator do?

The coordination layer that keeps a production objective, its dependencies, resources, machines and acceptance criteria in one working plan.

Read the note
03

From BIM to a machine task

Why a design model needs a translation layer before an autonomous machine can act on it safely and predictably.

Read the note

WORK WITH RESILEX

Autonomous infrastructure has to be built across disciplines

We are open to practical conversations with equipment manufacturers, industrial companies, robotics teams, automation specialists and research organisations.

Technology partnerships

Machine systems, perception, industrial software, manufacturing, simulation and verification.

Investors

The system thesis, first demonstrators and an evidence-based path from one operation to a complete autonomous site.