Apopka, Florida // Engineering & Manufacturing // Est. 2004
Apopka, Florida // Engineering & Manufacturing // Est. 2004
Custom fabrication for complex structures and mission-critical components. Form, weld, then finish — because a part formed after welding distorts, and a part welded after finishing has to be coated twice.
Read top to bottom. Finishing is last because it is the one step that cannot be re-cut.
Each of the four processes constrains the ones after it. Run them out of order and the damage is not a delay — it is scrap, or a part that passes inspection and fails in service. This is why JE evaluates downstream requirements before defining any production approach.
Cutting material to profile — laser, waterjet and saw — establishing every edge the later processes work from.
Bending and rolling to shape. Springback and bend radius decide whether the geometry is achievable at all.
MIG and TIG joining by AWS-certified welders on aluminium, stainless and steel.
Powder coat, paint, galvanising, polishing and blasting — the surface the part lives with.
Which is why the drawing matters less than the finished part’s requirements. Tell us what the part has to survive and where it has to fit, and the route through the shop follows from that.
A formed part can be re-formed. A finish can be stripped and reapplied. A weld is permanent, and it changes the metal around it — which is why AWS-certified welders and process control matter more here than at any other station.
Heat input alters the material either side of the joint. That heat-affected zone is part of the finished part whether it was designed for or not.
Controlled by
Procedure and heat input control
Each pass pulls the assembly slightly. On a long structure the error compounds, which is why sequence and fixturing are specified before the arc is struck.
Controlled by
Weld sequence and fixturing
A poor weld found at final inspection is a rebuild, not a rework. The control has to sit at the station, not at the end of the line.
Controlled by
AWS-certified welders
The four processes above sit at stage three. Each stage produces something specific, and the approved scope decides which of them JE runs.
Understanding the application, environment, and operational need before anything is drawn.
Produces: An agreed scope
Developing a manufacturable solution around that scope.
Produces: Drawings and analysis
The four fabrication processes above, run in the order this page describes.
Produces: Finished, coated components
Joining, fitting and confirming the unit against specification.
Produces: A verified assembly
Packaging, transport and installation at the project location.
Manuals, records and continued assistance after handover.
Produces: Records and support
Three programmes where the fabrication sequence decided the outcome — a build-to-print pair, a finish-critical booth, and a nacelle fixture.
Build to print
Two identical frames from customer drawings — the page where fabrication consistency, not design, was the whole test.
Finish-critical
Access built for a booth where the finishing environment set the constraints on every component in it.
Fixture
A fabricated fixture that carries a flight-critical part and has to give it back unmarked.
Aluminium, steel including stainless, and the plastics, composites and tubing used alongside them in fabricated assemblies.
Yes — AWS-certified welders providing MIG and TIG welding on aluminium, stainless steel and steel.
Yes. Build-to-print work is a normal engagement: JE fabricates to the supplied drawings and raises manufacturability questions rather than changing the design unilaterally.
Tell us where the part lives and what the coating has to survive. The finish specification follows from that, not from a colour.
