Station Cabinets
Wall-side and freestanding shells with internal plates, removable panels, vents and cable-entry features.
Build-to-print cabinets, floor docks, battery-interface housings and outdoor shells for AMR and AGV charging stations, with controlled contact datums, service access and revision identity.
A charging station shell does more than hide electronics. Its base, contact opening, guide features, doors and internal mounting structure establish the physical relationship between the building floor, the charger hardware and the approaching mobile robot.
Wall-side and freestanding shells with internal plates, removable panels, vents and cable-entry features.
Low-profile dock covers, guide structures and protected contact windows tied to floor-anchor datums.
Mechanical housings, trays and service frames around released battery-swap or charging-interface hardware.
Rain-shedding covers, sealed-door details and elevated bases manufactured to the buyer's environmental design.
DRAmetal manufactures the released mechanical shell, dock housing, brackets and installation kit. The OEM or integrator owns charging contacts and electronics, battery interfaces, alignment control, electrical safety, thermal and ingress design, and final system validation.
The product family covers fixed station structures only. Charging contacts, power electronics, battery communication, alignment controls and electrical validation remain within the OEM or integrator system scope.
Cabinet Formed cabinet shells, backplates, access doors and cable-entry panels for charger electronics installed beside an AMR travel lane.
Dock Low-profile dock housings and guide metalwork with controlled anchor patterns and a released charging-contact window.
Interface Mechanical frames, drawers, trays and guarded service openings built around buyer-defined battery or charging modules.
Outdoor Sloped covers, sealed-door architecture and raised plinths fabricated to the environmental and drainage details on the released design.
| Materials | Cold-rolled steel, galvanized steel, 304/316 stainless, aluminum and drawing-defined materials |
|---|---|
| Product types | Station cabinets, low floor docks, interface housings, internal plates, doors, guards and outdoor shells |
| Fabrication | Laser cutting, punching, bending, welding, grinding, hardware insertion, gasketing and mechanical assembly |
| Critical interfaces | Contact opening, approach datum, floor anchors, module mounts, cable entries and service clearances |
| Inspection | First article, datum-based dimensions, hardware, door fit, internal module envelope and cosmetic review |
| Supply format | Prototype stations, first articles, fleet-variant batches, replacement panels and revision-controlled kits |
Separate the enclosure supply boundary from charging electronics and identify the floor, contact and module reference system.
Review bends, weld access, doors, vents, cable entries, grounding provisions and service-removal paths.
Produce shells, plates and dock covers while protecting contact openings and visible surfaces.
Control anchor patterns, guide locations, doors and internal plates through the required weld and hardware sequence.
Check contact-window position, station footprint, anchor datums, access panels and released module envelopes.
Group enclosure parts, doors and hardware by dock model, fleet variant, station revision and installation set.
A cabinet can look correct and still place the contact hardware, floor anchors or service opening in the wrong relationship. Dock metalwork therefore needs inspection from system datums rather than isolated sheet dimensions.
The released contact window and mechanical guide features must share the station's approach datum.
Base flatness, anchor patterns and plinth details affect how the fixed dock is located at the site.
Doors, covers and internal plates must preserve removal paths for buyer-installed charging modules.
Contact brackets and robot-side interfaces can change between fleet variants, so station kits need explicit revision identity.
Materials, fabrication decisions and results for an anonymous customer project.

Component reference image
Docking deviations caused unreliable contact, while inadequate protection allowed contact oxidation.
Results apply to the project configuration described on the linked page.
Read the Customer Project →The scope centers on dock cabinets, housings, bases and guards rather than the mobile robot chassis.
Reviews prioritize the contact window, approach geometry, anchors, module mounts and access clearances.
The released enclosure can be checked as a station assembly before the buyer installs electrical hardware.
Panels, doors, plates and hardware can be packed by station model and fleet revision.
Typical scope includes fixed cabinets, floor dock housings, internal mounting plates, guide metalwork, access doors, guards, interface brackets and installation hardware.
No. We manufacture released mechanical metalwork. The OEM or integrator specifies and validates contacts, power electronics, communication, battery behavior and electrical safety.
RFQs commonly identify the floor datum, anchor pattern, robot approach direction, charging-contact opening, guide features, module mounts and required service clearances.
Yes, when the buyer supplies the released material, drainage, door, gasket, ventilation, thermal and ingress design plus its validation requirements.
Send 2D drawings, 3D models, datum scheme, installed module envelopes, materials, finish, hardware, gasket details, inspection records, station variants and quantities.
Send the dock assembly model, contact and floor datums, module envelopes, materials, finish, hardware, station variants and quantities for a manufacturability review.