Mobile Workstation Frames
Welded base structures for cobots, fixtures, small work surfaces and drawing-defined process modules.
Build-to-print welded and formed mobile bases for collaborative robot workstations, controller storage, caster-and-leveling systems and deployable outriggers. DRAmetal manufactures the released mechanical structure; the integrator owns robot loads, stability analysis, stopping and parking controls, safeguarding, motion validation and final machine approval.
A cobot mobile base combines a robot mounting interface with transport, parking, leveling, storage and service features. The released design must preserve the robot datum and provide practical access without asking casters, sheet-metal covers or cable brackets to carry loads they were not designed to support.
Welded base structures for cobots, fixtures, small work surfaces and drawing-defined process modules.
Mounting plates, access openings and reinforced load paths for the integrator-specified caster and leveling system.
Ventilated or open storage zones, cable brackets and service panels built around released equipment envelopes.
Outrigger mounts, handles, tow or push features and parking interfaces manufactured to the approved mechanical design.
DRAmetal manufactures and inspects the released base frame, plates, covers, brackets and specified mechanical hardware. The robot supplier, responsible engineer and integrator own loads, stability, caster and outrigger selection, stopping and parking controls, safeguarding, robot motion, installation and final machine validation.
Robot loads, payload, center of gravity, process reaction, floor condition and deployment method determine the base architecture. These values and the stability criteria must come from the robot supplier, responsible engineer and integrator.
Workstation Integrated welded bases with robot mounting, compact fixture areas and released cable or accessory interfaces.
Position and Level Reinforced base frames built around specified caster plates, retractable wheels or separate leveling feet.
Equipment Storage Mobile pedestals with drawing-defined controller bays, removable covers and protected cable routing features.
Deployable Base weldments with released folding or removable outrigger brackets for a larger parked support footprint.
| Materials | Carbon steel plate and tube, stainless steel or aluminum where specified by the released drawing |
|---|---|
| Fabrication | Laser cutting, machining, bending, MIG/TIG welding, hardware insertion, surface finishing and mechanical assembly |
| Critical interfaces | Robot mounting datum, top plate, fixture points, caster plates, leveling feet, outrigger mounts and controller envelope |
| Inspection | Functional datum report, mounting-pattern check, free-state or released restrained flatness check and hardware trial fit |
| Options | Removable side panels, handles, cable brackets, controller shelves, tool drawers, bumpers and transport tie-down features |
| Supply boundary | Released mechanical base and specified hardware; integrator owns loads, stability, mobility controls, safeguarding, installation and final validation |
Confirm released robot, fixture, controller, caster, leveling and outrigger interfaces plus access and transport envelopes.
Review how the approved top and support reactions pass through plates, tubes, gussets and hardware mounts.
Locate the weldment from functional base and top references while allowing controlled weld shrinkage.
Cut, form, fixture weld and machine the released frame, covers, shelves and mounting plates.
Verify robot and floor interfaces, hardware fit, panel access and drawing-defined geometry in the released condition.
Protect functional surfaces and pack the base, panels and specified hardware by workstation revision.
Mobility adds transport, setup and service states to the normal robot mounting problem. The finished base must match the released design in each state without implying that fabrication alone validates stability or safety.
The top mounting plane and hole pattern must relate to the deployed support datum, not only to cosmetic covers.
Caster, foot and outrigger fasteners need installation and inspection access after panels and equipment are fitted.
Released cable routes should avoid wheel paths, leveling hardware, sharp edges and moving deployment features.
Similar bases may carry different robots, controllers, fixtures or hardware sets and must stay separated by revision.
Materials, fabrication decisions and results for an anonymous customer project.

Component reference image
A high center of gravity caused forward tipping during emergency stops. Battery replacement was difficult and covers interfered with internal components.
Results apply to the project configuration described on the linked page.
Read the Customer Project →Plate, tube, formed covers, machined interfaces and installed hardware can be coordinated as one released assembly.
Robot, fixture and support interfaces drive the agreed first-article checks.
Reviews consider panel removal, fastener tools, controller access and replacement of mobility hardware.
Frames, panels and hardware can be identified and packed by workstation and released revision.
Yes. We manufacture build-to-print base frames, covers, shelves and hardware interfaces from released drawings and an agreed inspection plan.
Not by default. The integrator or responsible engineer should select and validate those components. We manufacture their released mounting interfaces and can install specified hardware.
Yes, when specified. The drawing should define machining stock, functional datums, hole requirements and the inspection support condition.
No. DRAmetal supplies build-to-print mechanical metalwork. Stability, robot motion, safeguarding and final machine validation remain with the responsible engineering and integration teams.
Send the base model and drawings, robot and fixture interfaces, engineer-approved loads, caster and leveling hardware, datums, tolerances, finish, inspection scope, quantities and target delivery.
Send the base drawings, robot and fixture datums, approved loads, hardware schedule, material, finish, inspection requirements, quantities and target delivery for a build-to-print review.