Launch risk arrives late
Capacity gaps, utility misses, and bad equipment choices often surface only during commissioning.
From product to production-ready factory.
Design digitally. Assemble from proven modules. Launch on one operating architecture.
New product lines, prepared industrial shells, and repeatable electromechanical assembly factories.
launch problem
The building may be ready while the production system is still a collection of disconnected decisions. MatterGrid makes the factory inspectable before capex is committed.
Capacity gaps, utility misses, and bad equipment choices often surface only during commissioning.
Machines may work alone while interfaces, material flow, controls, safety, and data fail together.
Product assumptions, recipes, acceptance logic, and recovery knowledge disappear across contractors.
three products
One continuous delivery path turns product intent into a virtual factory, a coordinated module build, and a production system that can ramp with evidence.
01 / define
Translate the product, demand, variants, quality plan, and economics into an executable production-system definition.
starts with
Product + launch assumptions
delivers
Capacity, process, layout, capex
02 / assemble
Configure proven capability modules against one set of factory contracts.
starts with
Approved virtual model
delivers
Coordinated module build
03 / launch
Virtually commission, deploy, accept, and ramp the complete production system.
starts with
Factory-ready shell
delivers
Stable output with evidence
automation chain
Every gate closes a different class of launch risk: product intent, capacity, interfaces, acceptance, and the operating record needed to ramp and reconfigure.
Translate the product, variants, demand, quality plan, and launch ambition into an explicit manufacturing brief.
Design the capability graph, line architecture, material flow, layout, utilities, controls, and safe recovery.
Select equipment and partners against physical, utility, material, control, data, and performance contracts.
Validate the full system, launch production, close the ramp gap, and preserve every decision in GridOS.
Model before metal
Test capacity, flow, interfaces, and recovery before purchase orders harden the design.
One production architecture
Equipment, controls, data, safety, and acceptance are designed as one system.
Ramp is part of delivery
Output, quality, recovery, and support are proven before the factory is called ready.
why modular
A factory is compiled from capabilities such as identify, orient, load, join, inspect, test, serialize, pack, and move WIP. Machines implement those capabilities; they are not the architecture itself.
Define capabilities
Describe what production must do before choosing who supplies the machine.
Enforce six contracts
Bind every module to physical, utility, material, control, data, and performance rules.
Swap without losing intent
Change an implementation while preserving the production architecture around it.
factory core
GridOS is the contract that makes independently supplied modules behave like one factory. During launch, the same architecture becomes the evidence, traceability, recovery, and improvement layer.
Contract every module
Define identity, interfaces, recipes, events, safe states, ownership, and acceptance before purchase.
Commission one system
Bring controls, traceability, quality, maintenance, permissions, and versioning onto one operating model.
Preserve factory memory
Keep every configuration, run, stop, intervention, and improvement available for ramp and replication.
reference system
Start with pumps, valves, motors, actuators, chargers, controls, appliances, and electrical subassemblies. The product changes; the capability architecture remains reusable.
01 / assemble
Fixtures, recipes, tooling, and work instructions make pumps, motors, valves, and actuators share a production skeleton.
module set
Present + join + fasten
acceptance
Takt + changeover
02 / inspect
Vision, identification, and traceability checkpoints catch assembly and electronics defects while the evidence stays with the unit.
module set
Identify + inspect
acceptance
Traceable pass / fail
03 / test
Electrical, pressure, motion, and leak tests become recipe-driven stations with serialized results and quarantine logic.
module set
Test + serialize
acceptance
Functional test record
04 / flow
Kitting, buffers, WIP routes, packaging, and pallet formation keep the system balanced as mix and demand change.
module set
Move + buffer + pack
acceptance
Flow + output
Variant-ready
Recipes, fixtures, and work instructions change without rebuilding the whole line.
Contract-defined
Every module exposes the interfaces and evidence the production system expects.
Expansion-ready
Capacity can be added through parallel stations, buffers, and repeated modules.
commercial path
Begin with a paid Factory Definition. Move into virtual validation and module orchestration, then deploy and ramp against explicit milestones with GridOS as the lifecycle contract.
01 / define
Turn the product, demand, quality, labour, and launch assumptions into an executable production-system specification.
engagement
Paid definition package
buyer gets
An investable factory brief
02 / validate
Simulate flow, capacity, interfaces, recovery, and module choices before the physical build begins.
engagement
Engineering + orchestration
buyer gets
A validated build plan
03 / launch
Commission the complete system, prove acceptance, reach stable output, and preserve the factory's operating memory.
engagement
Milestones + lifecycle
buyer gets
Production-ready factory
01 / definition
What production system should exist?
02 / validation
Will capacity, flow, interfaces, and economics hold?
03 / launch
Can the factory pass acceptance and reach stable output?
launch assurance
Model the factory. Contract every interface. Coordinate the build. Prove acceptance. Stay through ramp.
01 / production model
Capacity, process sequence, flow, staffing, and machine behaviour are tested together in the virtual factory.
02 / recovery design
Zones, interlocks, safe states, and operator recovery are contracted across the whole production system.
03 / launch economics
Capacity, labour, capex, utilities, ramp loss, and changeover assumptions remain visible as the design evolves.
04 / module contracts
Equipment, tooling, controls, data, safety, alternates, and spares resolve into one coordinated build package.
05 / ramp ownership
FAT, SAT, training, telemetry, recovery, and escalation stay coordinated until the factory reaches stable output.
clear ownership boundary
MatterGrid owns the production system: product-to-process, capacity, modules, material flow, controls, data, simulation, FAT/SAT, commissioning, and ramp. Civil, structural, HVAC, permits, and commodity utilities remain with specialist project partners.
Tell us what you need to make, at what volume, and where. We will help turn those constraints into a practical production-system brief.