MIMTA delivers architectural metal engineering and fabrication as one integrated discipline, resolving geometry, material behaviour, structural performance and production into precise, buildable architecture.

Explore MIMTA’s integrated portfolio of architectural metal and glass systems — developed through architectural metal engineering, detailing, fabrication and coordinated project delivery.













1 / ENGINEERED DESIGN DEVELOPMENT
Complex architectural concepts are translated into coordinated, buildable metal systems through technical design, structural logic and detailed engineering.
02 / MATERIAL PRECISIONStainless steel, aluminium, carbon steel and specialist alloys are selected according to structural performance, fabrication requirements, durability and architectural intent.
03 / BESPOKE FABRICATIONCustom geometries, profiles, assemblies and non-standard components are developed through precision fabrication for project-specific architectural requirements.
04 / INTEGRATED DELIVERYEngineering, production documentation, fabrication, finishing, logistics and site installation are coordinated within one controlled project delivery process.
01 / STAINLESS STEEL
Architectural-grade stainless steel is selected for durability, precision, corrosion resistance and premium surface quality across complex interior and exterior applications.
02 / ALUMINIUMCustom extrusions, sheet, plate and machined aluminium components are developed according to geometry, weight, finish, tolerances and system integration requirements.
03 / CARBON STEELStructural and fabricated carbon steel components are engineered where increased stiffness, load capacity and complex assembly requirements define the system.
04 / SPECIALIST MATERIAL SYSTEMSProject-specific metal alloys, hybrid assemblies and advanced material combinations are developed where conventional solutions cannot meet architectural or technical demands.
Every material decision is developed around geometry, manufacturing method, surface quality and project performance. From stainless steel and aluminium to carbon steel and advanced basalt-fibre systems, MIMTA applies architectural metal engineering as a disciplined approach — balancing structure, fabrication, durability, integration and final architectural intent.
Precision cutting, forming and architectural panel fabrication.
Engineered profiles, frames and project-specific assemblies.
Fabricated steel systems developed for complex project geometries.
Special components and assemblies developed around project-specific requirements.
01 / HOSPITALITY + LUXURYHotels, resorts and premium hospitality projects requiring refined architectural metal systems and bespoke fabrication.
02 / LUXURY RESIDENTIAL
Private residences, branded residences and premium living environments developed with refined detailing and material precision.
03 / AVIATION + TRANSPORT
Airport terminals, transport hubs and public circulation environments requiring durable, coordinated and high-performance metal solutions.
04 / COMMERCIAL + CORPORATE
Headquarters, offices, retail environments and commercial developments requiring integrated architectural metal systems.
05 / PUBLIC + CULTURAL
Public buildings, cultural facilities and institutional projects where durability, visual quality and technical coordination are critical.
06 / INFRASTRUCTURE + SPECIAL PROJECTS
Large-scale infrastructure and specialist projects requiring engineering-led development, complex fabrication and controlled site integration.
Complex architectural metalwork is resolved through coordinated detailing, material selection, connection design and fabrication planning — ensuring that geometry, interfaces and tolerances remain controlled from design development through production.
Project-specific joints, brackets, interfaces and concealed fixing solutions are developed around structural, architectural and installation requirements.
Complex curves, folded forms, irregular profiles and non-standard assemblies are translated into coordinated, production-ready geometry.
Cutting, forming, welding, machining and assembly sequences are developed according to material behaviour, tolerances and production requirements.
Details are coordinated around handling, transport, sequencing and site interfaces to support controlled installation and final alignment.




01 / SYSTEM ENGINEERING
Architectural metal systems are developed according to project geometry, structural requirements, material behaviour and interface conditions.
02 / TECHNICAL COORDINATIONConnections between metalwork, glazing, structure, finishes and adjacent systems are coordinated throughout design development, fabrication and site preparation.
03 / FABRICATION TOLERANCESProfiles, plates, brackets, welded assemblies and connection components are detailed to accommodate manufacturing, assembly and installation tolerances.
04 / PROJECT-SPECIFIC DEVELOPMENTMaterial grades, finishes, connection strategies, fabrication methods and installation sequences are defined according to the technical requirements of each project.
MIMTA extends its architectural metal capability into specialist engineering environments — from critical infrastructure protection and advanced material systems to marine and project-specific engineered assemblies.







MIMTA develops specialist metal and material systems where standard products are no longer sufficient. From critical infrastructure protection and advanced composite systems to marine engineering and complex project-specific assemblies, each solution is developed through coordinated design, material selection, fabrication logic and controlled delivery.
01 / CRITICAL PROTECTIONEngineered protection concepts developed around asset vulnerability, structural interfaces and project-specific performance requirements.
02 / ADVANCED MATERIAL SYSTEMSBasalt-fibre, BFRP and hybrid material solutions developed for demanding structural and protective applications.
03 / MARINE ENGINEERINGBespoke stainless-steel systems, marine hardware and engineered assemblies for superyacht and vessel applications.
04 / PROJECT-SPECIFIC DEVELOPMENTNon-standard assemblies developed where geometry, interfaces or performance requirements cannot be resolved through conventional products.
MIMTA develops project-specific protection systems for critical infrastructure and high-value assets where structural resilience, layered protection, material performance and controlled integration are essential.
Each solution is developed around the specific asset, threat environment, structural interface and operational requirements of the project — combining engineered metal systems, advanced material technologies and coordinated protective assemblies.
Protection concepts are developed as integrated systems, combining structural support, protective layers, interface detailing and controlled assembly logic.
Protective components are coordinated with the primary structure, access requirements, maintenance interfaces and project-specific installation conditions.
Steel, stainless steel, basalt-fibre, BFRP and hybrid material solutions are selected according to durability, resilience and performance requirements.
System geometry, material composition, connection strategy and installation sequence are developed individually for each application.
MIMTA develops basalt-fibre, BFRP and hybrid material concepts for applications where durability, corrosion resistance, weight efficiency and long-term performance are critical.
Rather than treating material selection as a standalone specification, each system is developed around geometry, structural behaviour, environmental exposure, interfaces and fabrication requirements — creating a coordinated material solution for the project.
Basalt-fibre based reinforcement concepts are developed for applications requiring durable, non-corrosive and lightweight material solutions.
BFRP profiles, composite layers and hybrid metal-composite assemblies are evaluated according to structural, fabrication and integration requirements.
Connections between composite elements, metal components and supporting structures are resolved as part of the complete system rather than as isolated details.
Material configuration, connection logic and system performance are developed through project-specific engineering, prototyping and validation requirements.
MIMTA develops bespoke architectural metalwork and engineered assemblies for yacht and superyacht environments where precision, corrosion resistance, visual refinement and integration quality are equally critical.
From custom stainless-steel hardware and glass-to-metal interfaces to non-standard brackets, concealed fixings and precision-fabricated deck components, each element is developed around the vessel architecture, operating environment and project-specific detailing requirements.
316 and 316L stainless-steel components are developed for demanding marine exposure, refined surface quality and long-term durability.
Custom brackets, hinges, cleats, fixing elements and architectural hardware are engineered where standard catalogue products cannot resolve project-specific geometry or detailing.
Balustrades, screens, doors and glazing interfaces are coordinated through precision metalwork, concealed connections and controlled installation tolerances..
Machining, forming, welding, finishing and assembly processes are coordinated to achieve consistent geometry, refined detailing and project-ready components.
MIMTA is developing an A60-class marine door concept for yacht and vessel applications where fire performance, structural integrity, durability and architectural quality must be resolved within one coordinated system.
The development approach considers door leaf construction, frame geometry, sealing strategy, hardware integration, threshold detailing, material selection and installation interfaces as part of a complete marine door assembly.
Door construction, frame configuration and sealing strategy are developed around A60-class performance objectives and project-specific marine requirements.
Hinges, locking hardware, handles, closures and connection details are coordinated to maintain reliable operation within a refined architectural system.
Stainless steel, insulation layers, seals and internal components are selected with consideration for corrosion resistance, durability and marine environmental exposure.
Detailed engineering, prototype development and future testing are treated as essential stages before any certified performance claim or production release.
Advanced fabrication technologies translate engineered material systems into repeatable production accuracy, controlled quality and project-ready components.

Production sequences are developed around geometry, material type, machine capability, assembly logic and project-specific tolerances.
Machined components, profiles, plates and formed elements are produced through controlled processes selected according to complexity, finish and dimensional requirements.
Joint preparation, welding sequence, distortion control and assembly procedures are coordinated to preserve geometry and interface accuracy.
Brushed, polished, coated and project-specific finishes are developed with attention to consistency, edge quality, visual continuity and final architectural appearance.
MIMTA applies structured quality control throughout material selection, fabrication, assembly, finishing and final delivery to ensure that dimensional accuracy, material conformity and visual quality remain controlled at every stage.
Inspection records, dimensional checks, material documentation and production controls are coordinated according to project requirements — creating a clear traceability path from incoming material to completed assembly.
Technical information, production drawings and fabrication requirements coordinated before manufacturing.
Fabrication sequences, machining operations and production workflows managed for repeatable execution.
Material specification, surface quality and finishing requirements aligned with project performance.
Production status, project coordination and delivery requirements managed through an integrated workflow.
MIMTA manages project delivery beyond fabrication by coordinating technical documentation, production planning, packaging, logistics, site interfaces and installation requirements within one structured workflow.
For international and multi-stakeholder projects, delivery is planned around sequencing, transport constraints, site conditions and coordination with adjacent trades — helping engineered systems arrive ready for controlled installation.

A coordinated delivery framework connecting engineering information, fabrication planning, production, logistics and project interface through one integrated workflow.
Design information, technical coordination and project requirements aligned for downstream execution.
Production sequencing, material readiness and fabrication requirements coordinated before release.
Manufacturing progress and quality control managed against project requirements.
Packing, documentation and international transport coordinated within the delivery programme.
Delivery sequencing and site interface managed through to installation readiness.
Schedule, coordination and delivery checkpoints aligned through one controlled workflow.

Documentation, interface closure and site readiness managed through final delivery.
A curated selection of transport, retail, aviation and specialist metal projects delivered through engineering, fabrication and technical coordination.


Large-scale transport architecture requiring coordinated structural and architectural metal systems across repeated components, interfaces and site conditions.
Large-scale transport architecture requiring coordinated structural and architectural metal systems across repeated components, interfaces and site conditions.


Let’s discuss the architectural intent, engineering requirements, material strategy and fabrication approach needed to turn complex metalwork into a precise, buildable solution.