Arm-Mounted Camera Shells
Lightweight covers and backing plates for cameras installed on robot wrists, arms or end-of-arm tooling frames.
Build-to-print sheet metal housings, camera pods, optical-window frames and adjustment brackets for industrial robots, AMRs and automated inspection cells. DRAmetal controls released mechanical interfaces; the OEM or integrator owns optics, calibration, sensing performance and final machine safety.
A robot camera housing must protect released hardware without turning cosmetic edges into functional references. The mounting plane, optical opening, cable entry, service direction and adjustment features need one controlled mechanical datum scheme.
Lightweight covers and backing plates for cameras installed on robot wrists, arms or end-of-arm tooling frames.
Front, rear and corner housings integrated into released mobile-robot body panels and sensor zones.
Protective boxes, hoods and mounting frames for machine-vision cameras installed around automated cells.
Replaceable window retainers, slotted brackets and reference plates built around buyer-defined camera geometry.
DRAmetal manufactures the released housing, window frame, mounting plate, adjustment bracket and mechanical kit. The OEM or integrator owns camera and lens selection, field of view, lighting, thermal and ingress design, calibration, sensing accuracy, controls, safety classification and final system validation.
The product family covers released mechanical metalwork only. Camera selection, lens geometry, field of view, illumination, calibration and safety-rated sensing remain within the buyer's system scope.
Robot Arm Compact aluminum or stainless shells with mounting plates, service covers and protected cable exits for moving robot assemblies.
Mobile Robot Body-integrated pods and removable sensor covers with defined window, panel and cable-entry relationships.
Fixed Cell Stationary guards and boxes for inspection cameras located beside conveyors, fixtures and robotic work cells.
Interface Replaceable retainers, adjustment plates and brackets for buyer-defined optical windows and camera modules.
| Materials | 5052 or 6061 aluminum, 304/316 stainless steel, coated carbon steel and drawing-defined window retainers |
|---|---|
| Product types | Camera pods, protective shells, window frames, adjustment brackets, mounting plates, service covers and cable-entry panels |
| Fabrication | Laser cutting, punching, bending, welding, machining coordination, hardware insertion, finishing and mechanical assembly |
| Critical interfaces | Camera mounting plane, optical-window opening, adjustment slots, robot or chassis datum, cable entry and removal envelope |
| Inspection | First article, hole pattern, window-to-mount relationship, bracket angle, installed hardware, cover fit and cosmetic review |
| Supply boundary | Released mechanical housing only; optics, sealing design, calibration, image quality, sensor performance and final safety validation remain with the OEM |
Separate mechanical housing scope from camera, lighting, calibration, controls and safety functions.
Relate the mounting plane, optical opening, adjustment features and robot or cell reference system.
Check bend access, weld pull, hardware, cable direction, window retention and module-removal paths.
Manufacture shells and brackets while controlling thin-wall distortion and protected visible surfaces.
Inspect the released window, mounting pattern, angle, hardware and assembled access condition.
Identify housings, retainers and brackets by camera package, robot platform and drawing revision.
A housing can look centered while the camera mounting plane, window opening or adjustment bracket is offset from the robot reference system. Functional inspection must follow released datums rather than the visual symmetry of the cover.
The released optical opening must remain aligned to the buyer-defined camera position and allowable adjustment range.
Arm-mounted shells need the released envelope and attachment pattern; the integrator approves mass, inertia and collision clearance.
Entries, covers and retainers must preserve the released connector bend space and module-removal path.
Similar housings may use different camera modules or windows, so inspection and packout must retain revision identity.
Materials, fabrication decisions and results for an anonymous customer project.

Component reference image
The camera mount and window were misaligned, distorting images. Inadequate environmental protection allowed condensation at the lens.
Results apply to the project configuration described on the linked page.
Read the Customer Project →The quoted scope stays with released shells, brackets, window frames, hardware and mechanical inspection.
Reviews prioritize the camera mount, optical opening, robot interface and service direction.
Formed housings, machined plates, welded brackets and installed hardware can be managed as one revision-controlled kit.
FAI and repeat checks can document buyer-designated mechanical CTQs without implying optical approval.
Typical build-to-print scope includes formed shells, AMR camera pods, fixed-cell guards, optical-window frames, adjustment brackets, mounting plates, service covers, cable-entry panels and installed hardware.
No. The buyer specifies and validates the camera, lens, window material, field of view, illumination and optical performance. We manufacture the released mechanical package.
No universal rating or accuracy is claimed. Ingress and imaging performance depend on the complete design, seals, optics, assembly and buyer validation. We inspect only agreed mechanical characteristics.
Common mechanical CTQs include the camera mounting plane, optical-window position, robot or chassis pattern, bracket angle, adjustment range, installed hardware and service-removal envelope.
Send the 2D drawings, 3D assembly, camera and window envelopes, datum scheme, materials, finish, hardware, cosmetic zones, inspection records, variants and quantities.
Send the camera package envelope, optical-window and robot datums, drawings, materials, finish, hardware, variants, inspection requirements and quantities for a manufacturability review.