Manufacturing case study

From Design to Finished Part: A Custom Laser-Cut Aluminum Enclosure

How a customer concept became a manufacturable aluminum assembly through CAD design, manufacturability review, laser cutting, forming, welding and powder coating.

Getting a custom metal part made involves more than sending a file to a laser cutter.

The details matter: material selection, cut geometry, bend locations, mounting features, assembly methods and finishing requirements.

For this project, we developed a decorative aluminum cover from an initial customer requirement into a finished fabricated assembly.

The process illustrates how a design can be reviewed and prepared for manufacturing before any material is cut.

Finished bronze-brown powder-coated aluminum cover, shown complete with the sloped top, laser-cut front and side mounting flange
Complete finished aluminum assembly, powder coated and ready for customer installation.

Part Snapshot

Material
5052 aluminum
Processes
Laser cutting, forming, aluminum welding, assembly and powder coating
Finish
RAL 8025 bronze-brown powder coat
Dimensions
15" inside width, approximately 4" inside depth, 51" front height and 52.5" rear height
Key features
Decorative laser-cut pattern, sloped top and elongated mounting slots
Design documentation
SolidWorks 3D model and manufacturing drawing
Quantity
One custom assembly
Deliverable
Finished aluminum cover, ready for customer installation

The Starting Point: A Concept That Needed Manufacturing Detail

The customer wanted a custom aluminum cover to conceal exposed piping on an exterior wall.

The requirements included sufficient clearance around the piping, a sloped top to shed rainwater, convenient mounting and a decorative botanical pattern.

The project began with a photograph, approximate dimensions and the customer's preferences.

An initial AI-assisted concept helped establish the intended appearance.

However, a concept image doesn't define the details needed for reliable manufacturing.

Before cutting, the design needed to be developed into a practical aluminum assembly.

1. Developing the CAD Model

The concept was translated into a detailed 3D assembly using SolidWorks.

The model defined the aluminum components, overall dimensions, sloped top and mounting arrangement.

The customer requested an increase in inside width from 12" to 15" to provide additional clearance for the piping and installation.

This change was incorporated before production.

The 3D model provided a practical basis for reviewing the geometry and preparing manufacturing documentation.

2. Reviewing the Design for Manufacturability

A design can look correct on screen and still present problems during cutting, forming, welding or installation.

For this project, several important details were considered and refined before manufacturing.

  • Laser-cut pattern

    The botanical cutout design was adapted for laser cutting, with attention to the remaining material between openings and the rigidity of the finished panel.

  • Dimensions and fit

    The inside width was increased to 15 inches, and the overall geometry was established around the installation requirements.

  • Mounting features

    Elongated mounting slots were incorporated into the side panels instead of conventional round holes. This allows the assembly to slide over pre-installed fasteners, simplifying installation and future removal.

  • Formed and welded construction

    The aluminum components were developed as a fabricated assembly, with geometry suitable for cutting, forming, fitting and welding.

  • Outdoor application

    The sloped top and powder-coated finish were incorporated into the design for its intended exterior application.

These decisions demonstrate why reviewing a design before production is important.

A manufacturability review helps identify details that should be clarified or adjusted before material is cut, rather than discovering problems during fabrication or assembly.

What We Also Look For in Customer-Supplied Files

Depending on the project, our review may consider:

  • Small cutouts, narrow bridges and sharp internal features.
  • Hole and slot sizes.
  • Bend locations and material around bends.
  • Material thickness and fabrication feasibility.
  • Fit-up requirements for welded assemblies.
  • Coating and finishing requirements.
  • Missing dimensions or unclear manufacturing specifications.

These are examples of issues that may need attention on different projects, not a claim that every issue occurred or was corrected on this particular enclosure.

3. Preparing the Manufacturing Drawing

Once the design was finalized, a dimensioned manufacturing drawing was prepared.

The drawing documented the material specification, overall dimensions, assembly geometry and mounting features required for production.

Clear manufacturing documentation is especially useful when a project involves several manufacturing processes.

Select the drawing to enlarge it. View original drawing (PDF) (opens in a new tab)

4. Laser Cutting, Forming and Assembly

With the design approved, the aluminum components moved into production.

The parts were laser-cut and formed to the required shapes, then fitted and welded into the completed assembly.

The finished fabrication incorporated the decorative pattern, sloped top and mounting features defined during the design stage.

5. Powder Coating and Finished Product

After fabrication, the cover received a bronze-brown powder-coated finish in RAL 8025.

The result was a completed aluminum assembly combining the required dimensions, mounting arrangement, decorative pattern and exterior finish.

The finished cover was delivered to the customer, who was pleased with the result.

This project illustrates how a design can move from initial requirements through manufacturing preparation and multiple fabrication processes to a finished product.

From Your File to Finished Metal Parts

Have a custom metal part that needs to be manufactured?

GetPartsMade works with customers who already have production drawings and with those whose designs need additional clarification or preparation.

We can help source:

  • Laser-cut metal parts

    Custom laser-cut aluminum parts, profiles, plates, brackets, gussets and components produced from suitable cutting files.

  • Bent sheet metal components

    Channels, covers, custom sheet metal enclosures, brackets, panels and other formed metal parts.

  • Welded assemblies

    Custom fabricated metal assemblies such as frames, brackets, supports and products requiring multiple fabricated components.

  • Prototypes and small batches

    One-off parts, initial production samples and limited manufacturing quantities.

  • Finishing and assembly

    Powder coating, suitable hardware installation, welding and other processes coordinated as part of the finished order.

How It Works

  1. 01

    Send your file or requirements

    Upload a DXF, STEP, PDF drawing, sketch or photograph.

  2. 02

    We review the manufacturing details

    We evaluate the information provided, clarify missing requirements and identify potential manufacturing concerns before proceeding.

  3. 03

    Receive a clear quotation

    We review the material, manufacturing processes, quantity and finishing requirements to prepare a quotation.

  4. 04

    Get your parts made

    The required laser cutting and bending, welding and finishing processes are coordinated, with delivery or pickup arrangements confirmed for your order.

One-off parts, prototypes and small-batch manufacturing are welcome.

Based in London, Ontario, GetPartsMade provides sheet metal fabrication for customers across Canada.

Ready to Get Your Parts Made?

Upload your drawing, CAD file or project details.

We'll review the information and help determine the manufacturing approach for your custom parts or assemblies.