From early-stage feasibility and structural engineering through factory production and on-site assembly, MODURA delivers every capability needed to take a modular building from concept to completion, all under one integrated team, with one point of accountability.
Six core capability areas cover every discipline required to design, engineer, manufacture, and deliver a complete modular building. No gaps. No subcontractor handoffs. No finger-pointing.
Volumetric modular, panelized, hybrid, and bathroom pod systems: each optimized for different building types, site conditions, and project constraints. Select the right system for your specific requirements.
Explore Systems →In-house structural engineers design every steel frame, connection detail, and lateral load path. Cold-formed and hot-rolled steel systems engineered for destination seismic zones and wind loads, with a 60-year design service life target.
Explore Engineering →HVAC, electrical, plumbing, fire suppression, and building automation, fully coordinated in BIM and installed at the factory. Modular MEP risers with plug-and-play inter-module connections reduce site labor by 60%.
Explore Engineering →Cold-formed steel (G550, 1.2–2.5mm gauge) for wall and floor framing; hot-rolled steel (S355) for primary module chassis; concrete composite floor decks; fire-rated gypsum and cement board assemblies: every material selected and tested for modular performance.
Modules are built by certified manufacturing partners, automated light-steel framing lines, container module lines, and heavy steel fabrication under AISC-certified programs. Staged quality gates keep output consistent regardless of weather or season.
US code-compliant engineering: PE-stamped drawings (IBC/IRC + ASCE 7), state modular program pathway (third-party design review & factory inspection), UL/ETL-listed components, cUPC fixtures, NFPA 13/72 fire protection, and ICC-ES evaluated framing (ESR-5348). Full documentation traceability from steel mill to handover.
Having all disciplines under one roof isn't just convenient, it fundamentally changes how buildings get delivered. Here's what that means for your project.
Climate-controlled production with laser-guided tooling achieves ±2mm dimensional tolerance, a level of accuracy impossible on traditional sites. Digital inspection records at every workstation create an unbroken quality chain from raw material to finished module.
60+ engineers on staff covering structural, MEP, fire, acoustic, sustainability, and BIM disciplines. Every module is modeled in 3D before production, with clash detection, thermal analysis, and structural simulation completed during design, not discovered on site.
One contract. One project manager. One team. From feasibility through handover, there is no gap between designer and builder, no dispute over who owns an issue, and no delay while subcontractors coordinate. Design-build integration cuts project duration by 30% versus traditional multi-contract delivery.
Our engineering team holds licenses across the US, Europe, and the Asia-Pacific and designs to IBC, Eurocode, British Standards, and Australian NCC. Whether your project is in Chicago, London, Dubai, or Sydney, we deliver code-compliant designs with local engineering review and permitting support.
Modern modular delivery is not one method. It is three distinct systems with different economics, different programme curves and different failure modes. Choosing the wrong one is the most expensive decision on the project. And it is made before any drawing is issued.
| Dimension | Volumetric | Panelized | Hybrid |
|---|---|---|---|
| Factory completion at dispatch | 85–95% | 35–45% | 60–75% |
| Module width constraint | 3.0–4.3 m (road-legal envelope) | None, panels are flat-packed | Modules limited; large spans panelized |
| Site labour per m² | Lowest | Highest of the three | Mid |
| First-unit occupiable (100-unit block) | Month 8 | Month 16 | Month 12 |
| Freight per m² of floor area | Highest, volume, not weight | Lowest | Mid |
| Design freeze point | Earliest, changes after freeze are expensive | Latest tolerance for late change | Split: freeze wet cores early, facades late |
| Best fit | Repetitive cellular layouts: hotel rooms, apartments, student beds, bathrooms | Open-plan or irregular plans; constrained sites or long inland freight legs | Mixed programmes: repetitive cores with large-span amenity floors |
The programme rows assume a real production line, not a pilot. The reason volumetric wins on speed and loses on freight is the same fact viewed twice: a completed room-sized box carries a lot of air across an ocean. On a project within 500 km of the factory, volumetric wins on nearly every metric. On transoceanic delivery, the freight line moves far enough to make hybrid genuinely competitive. Which is why we quote all three rather than steering every enquiry to the same answer.
Capability on paper is worthless if the scope boundary is unclear. This is the standard split we contract to. It exists so that no item on the project has two owners or none.
| Work package | MODURA & partners | Client / local team | Where it is decided |
|---|---|---|---|
| Structural design (frame, connections, load path) | Full in-house | Receives PE-stamped set for local review | Design freeze |
| Foundation & substructure | Provides load reactions, setting-out points and tolerance envelope | Designs and builds to those reactions | Pre-contract |
| MEP within the module | Designed, installed and FAT-tested in factory | Connects inter-module and to site services | Design freeze |
| Fire strategy | Rated assemblies, sprinkler and detection within module (NFPA 13 / 72 basis for US) | Site water supply, risers, commissioning | Permit stage |
| Crane & site logistics | Module lift plan, rigging points, sequence | Crane supply, site access, traffic management | Installation planning |
| Permits & code approval | Drawings, calculations, state modular programme documentation | Local filing, fees, authority liaison | Permit stage |
| Inter-module connections | Tie details, sealant specification, torque values | Execution on site | Installation planning |
| Quality documentation | 147 checkpoints per module, FAT records, certificate pack | Witness inspections and site acceptance | Continuous |
The two rows that derail the most projects are foundation tolerance and crane sequencing, and neither is a technical mystery, both are coordination failures. Foundation setting-out must match the module grid to within the stated envelope, because a module cannot be re-squared on site the way a stick-built frame can. Crane capacity, radius and pick sequence must be agreed before the first module ships, not when the first truck arrives. Both are settled in the pre-contract pack, and both are worth walking through line by line with the site team before signature.
Whether or not you build with us, these are the seven artefacts to request at tender. A supplier who cannot produce them is asking you to carry risk that has not been priced.
For the receiving end of this checklist, the seven-row table we populate on request, see the projects page. Every item above has a specific document behind it, and we would rather send a buyer a document pack they can verify than a brochure they have to trust.
Tell us about your project. We'll match the right capabilities, building system, structural approach, MEP strategy, and quality plan, to your specific site, budget, and timeline.
Get a Free Quote