CNC steel & structural steelwork
CNC steel cutting to 10 mm and structural steelwork: frames, tubes, sheet metal, and welded assemblies fabricated to drawing
Industry & automation
software, hardware, and electronics; for aviation-grade programmes and for domains that break standard FSTD assumptions
Maritime and naval training, ground mission systems, industrial hardware-in-the-loop, and bespoke physics; the same modular architecture VOA uses for certifiable aviation, applied where integration depth matters more than a franchise product brochure.
Discuss Your RequirementsTraining and test rigs for maritime, land, or mission systems need domain fidelity; hydrodynamics, vehicle dynamics, RF and comms behaviour, not only transport-category flight models squeezed into a different label.
Proprietary buses, mission payloads, plant I/O, and automation gateways do not map to fixed commercial FSTD integrations. Tier 2 closed platforms stop where your interface definition begins.
Regulators, primes, and internal assurance teams ask for traceable validation and documentation. A stack that treats evidence as paperwork after build inherits recurring risk and rework; the same structural failure mode as legacy aviation simulation.
VOA's Industry workshop runs the complete manufacturing cycle in-house: CNC cutting of steel up to 10 mm and structural wood, press-brake bending in multiple angles, mechanical turning and milling, additive manufacturing in resin and filament, injection moulding, silicone casting, thermoforming, acrylic CNC routing and engraving, vinyl cutting, glass-fibre and composite lay-up, and structural steelwork. One team, one engineering thread, from first concept to assembly-ready component.
CNC steel cutting to 10 mm and structural steelwork: frames, tubes, sheet metal, and welded assemblies fabricated to drawing
Press-brake bending in multiple angles and forms; mechanical lathe for threading, diameters, and precision recesses; column milling with digital and micrometric precision
Injection moulding; silicone mould casting with controlled-temperature oven, degassed mix, and 4-minute pour window; thermoforming for housings and covers
SLA resin 3D printing with wash station, alcohol rinse, and UV cure; FDM printing in PLA, ABS, and carbon fibre, from rapid prototypes to functional end-use parts
CNC wood routing for structural prototypes and fibre-ready forms; 2D-to-3D iteration in wood before steel is committed; wooden tabletops and structural panels
Acrylic CNC routing and engraving to 10 mm thickness, vinyl cutting, lighting integration, and PCB support structures machined from acrylic with 3 mm end mills
Glass-fibre hand lay-up and vacuum bagging; trimmed, bonded, and finished to drawing for shells, fairings, and structural skins aligned with your laminate schedule.
For composite and reinforced parts that do not fit standard tool envelopes, we engineer and build oversized fibre moulds in-house, aligned to your laminate stack and cure cycle. Series production runs through our injection-moulding capability with the same drawing ownership and revision discipline as the rest of the workshop.