Structural Brackets
Gusseted steel or stainless brackets that transfer frame, payload and equipment loads into released mounting interfaces.
Build-to-print welded brackets for robot sensors, motors, actuators, batteries and structural interfaces. We coordinate formed parts, machined pads, weld sequence and final inspection around the OEM's released mounting datums.
A robotic welded bracket is usually small, but it can control a sensor axis, motor alignment, battery restraint or load path. Manufacturing therefore starts from the functional mounting relationship rather than the bracket's outside shape.
Gusseted steel or stainless brackets that transfer frame, payload and equipment loads into released mounting interfaces.
Welded LiDAR, camera, encoder and scanner brackets with controlled position, angle and adjustment range.
Fabricated brackets combining formed bodies, machined pads and repeat bolt patterns for drive components.
Retention, support and service brackets supplied individually or as part of a robot mechanical kit.
The robotics OEM or integrator owns system loads, motion safety, sensor calibration and final machine validation. DRAmetal manufactures the released bracket to the agreed materials, joints, datums, finish and inspection scope.
Each bracket family uses a fixture and inspection approach matched to its load, datum and production volume.
Structural Gusseted plate and formed-sheet brackets for payload frames, cell structures and equipment mounting points.
Sensors Compact welded mounts with protected sensor faces, intentional adjustment and platform-based angular checks.
Motion Welded bracket bodies with machined or fixture-controlled interfaces for motors, gearboxes and linear actuators.
Modules Retention rails, electronics supports and welded mounting frames designed around service and connector access.
| Materials | Cold-rolled and structural steel, 304/316 stainless, 5052 sheet and 6061 aluminum interfaces as released |
|---|---|
| Construction | Formed sheet, plate, tube, machined pads, bosses, gussets and drawing-defined inserted hardware |
| Processes | Laser cutting, CNC bending, MIG/TIG or qualified robotic welding, machining coordination, finishing and assembly |
| Functional interfaces | Sensor axes, motor pilots, actuator holes, battery stops, chassis mounting faces and payload connections |
| Inspection | First article, free-state fixture checks, gauge pins, formed or welded angle checks and CMM reporting where specified |
| Supply format | Prototype brackets, approved repeat parts or platform-grouped mechanical kits |
Identify the mounting face, locator, clocking feature, load path and mating-component envelope.
Check bend access, joint gaps, weld size, heat-sensitive holes, hardware and finish requirements.
Locate functional datums with accessible clamps and a defined loading and tack sequence.
Use the released process and balanced sequence to limit heat input and preserve bracket geometry.
Inspect the free-state mounting relationship after welding, machining and finishing as applicable.
Keep drawings, programs, fixtures, gauges, hardware and packout tied to the robot platform revision.
Cut parts may be accurate before welding while the finished bracket still shifts, twists or loses flatness. The control plan has to address the completed interface.
Short brackets can rotate or bow as heat contracts across an asymmetric joint.
A small angular error at the bracket can move a sensor axis well outside its intended relationship.
Motor pilots and bearing pads may need stock and post-weld machining to achieve the released geometry.
Visually similar left, right or platform variants require physical separation and controlled identity.
Materials, fabrication decisions and results for an anonymous customer project.

Component reference image
Fragmented supply caused missing parts, inconsistent quality and assembly stoppages.
Results apply to the project configuration described on the linked page.
Read the Customer Project →Cutting, bending, welding, hardware, finish and inspection are coordinated around the finished bracket.
Locators and inspection points follow the functional robot interface rather than cosmetic outside edges.
Formed bodies can be combined with gussets, tube, machined pads and drawing-defined hardware.
Brackets can be delivered alone or grouped with frames, covers and robot module kits.
Typical parts include structural gusset brackets, LiDAR and camera mounts, motor and actuator brackets, battery restraints, controller supports and chassis interface brackets.
Yes. The released design can combine formed sheet or plate with machined pads, bosses, tube, gussets and inserted hardware, with machining before or after welding as specified.
The process can use datum-based fixtures, consistent fit-up, balanced tack and weld sequences, controlled heat input, free-state inspection and post-weld machining where the drawing requires it.
Yes. The RFQ should define the chassis or platform datums, sensor-facing features, allowable position or angle and required inspection evidence.
Send 3D models, 2D drawings, material, finish, weld symbols, CTQs, mating envelopes, quantities, first-article requirements and platform revision information.
Send the bracket drawings, mating interfaces, materials, weld requirements, finish, CTQs and quantities for a build-to-print manufacturability review.