Form & Relief
Flat graphics, shallow raised details, deep relief, and fully three dimensional forms require different processes. The amount of depth and the number of levels quickly narrow which methods for the design.
Narrows the field by shape
Technical Resources
Manufacturing Methods
The right process starts with the part.
Compare manufacturing methods by geometry, material, finish, detail, volume, and tooling requirements to determine the right construction for your application.
LET THE PART CHOOSE
What Guides Method Selection
The right manufacturing method follows the part. Form, thickness, material, and order volume narrow the viable options before finish, attachment, tolerance, and operating requirements refine the final choice.
Thickness & Construction
Thin sheet parts can often be etched, printed, stamped, or formed. Thicker or solid components may need to be cast, forged, molded, or machined.
Separates sheet from solid
Material
The required material can rule methods in or out. Plastics generally point toward molding, while metals may be etched, stamped, cast, forged, or machined depending on the alloy and part geometry.
Rules methods in or out
Order Volume
Quantity determines whether upfront tooling makes economic sense. Lower quantities generally favor tooling light methods, while repeat or higher volume production can spread tooling cost across more parts.
Sets the tooling tradeoff
THE CONSTRUCTIONS
Different Parts Require Different Methods
Each manufacturing method creates a different balance of form, detail, material, tooling, and unit cost. The right process depends on what the part needs to do and how it needs to look.
Etching
Controlled chemical removal creates precise outlines, openings, and fine recessed surface detail.
BEST SUITED FOR
Fine text, graphics, holes, flat profiles, and intricate cutouts.
Embossing / Stamping / Forming
Tooling shapes sheet metal into raised, recessed, or formed features.
BEST SUITED FOR
Repeatable relief, nameplates, badges, trim, and formed profiles.
Electroforming
Metal is deposited over a precision master to reproduce extremely fine surface detail and sculpted relief.
BEST SUITED FOR
Thin, highly detailed emblems and decorative components.
Die Casting
Molten alloy is injected into a steel die to create solid parts with depth, relief, and repeatable geometry.
BEST SUITED FOR
Complex badges and components at repeat volume.
Forging
Metal is compressed under high pressure to create dense parts with defined relief and durable surfaces.
BEST SUITED FOR
Substantial metal badges, trim, and durable functional components.
Injection Molding
Molten thermoplastic is injected into a steel mold to produce repeatable, complex plastic parts.
BEST SUITED FOR
Plastic components at volume where geometry must account for draft and wall thickness.
CNC Machining
Computer controlled cutting removes material from solid stock to create precise features and dimensions.
BEST SUITED FOR
Tight tolerances, lower quantities, and parts machined from solid material.
Secondary Operations
Additional processes such as plating, painting, polishing, laser marking, or assembly enhance function, durability, and appearance.
BEST SUITED FOR
Adding finish, color, markings, assembly, or additional functionality to the base component.
METHOD SELECTION
Not Sure Which Method Fits Your Part?
Send us the drawing, application, and expected volume. We will narrow the viable manufacturing methods for your part.
Request a Quote
WHAT RUNS IN WHAT
Material Narrows the Method
Material can eliminate manufacturing options before design review begins. Some methods work across many alloys, while others depend on a specific metal or polymer family. Use this as a starting point; final compatibility depends on the material grade, thickness, geometry, finish, and application.
ALUMINUM
Lightweight, versatile, and widely used.
COMMON METHODS
CNC Machining, Die Casting, Extrusion, Stamping
ZINC
Well suited for complex, high volume parts.
COMMON METHODS
Die Casting, CNC Machining
STAINLESS STEEL
Strong, corrosion resistant, and durable.
COMMON METHODS
CNC Machining, Stamping, Forging, Laser Cutting
PLASTICS
Lightweight, versatile, and cost efficient.
COMMON METHODS
Injection Molding, CNC Machining
BRASS
Excellent machinability and distinctive appearance.
COMMON METHODS
CNC Machining, Stamping, Forging, Etching
COMPOSITES
High strength and stiffness with low weight.
COMMON METHODS
CNC Machining, Compression Molding
FORM & DETAIL
How Much Depth and Detail Do You Need?
Not every process creates dimension the same way. Some are best for nearly flat graphics and fine recessed detail. Others can produce substantial relief, formed geometry, or fully three dimensional parts.
01
Flat + Fine Detail
ETCHING · 2D ELECTROFORMING
Best when the priority is fine text, intricate graphics, thin construction, or subtle surface relief.
TYPICAL CHARACTER:
Very thin · Fine detail · Minimal depth
Electroforming can also be produced as a three dimensional construction with substantially greater depth; see Sculpted Depth below.
02
Raised + Recessed Relief
EMBOSSING · STAMPING · FORMING
Best when the part needs controlled raised or recessed features while remaining relatively thin.
TYPICAL CHARACTER:
Moderate relief · Sheet metal construction · Repeatable geometry
03
Substantial Sculpted Depth
DIE CASTING · FORGING · 3D ELECTROFORMING
Best when the design requires pronounced dimension, substantial edges, sculpted surfaces, or a heavier physical presence. Three dimensional electroforming can reproduce sculpted geometry and substantially greater depth than thin electroformed emblems.
TYPICAL CHARACTER:
Deep relief · Sculpted form · Defined surfaces
04
True 3D Geometry + Precision Features
CNC MACHINING · INJECTION MOLDING
Best when the entire component geometry matters, including pockets, bosses, holes, wall thicknesses, functional features, or tight dimensional requirements.
TYPICAL CHARACTER:
Complex geometry · Controlled dimensions · Functional features
THE OTHER HALF OF THE DECISION
Volume Can Change the Right Method
Two parts with the same geometry may require different manufacturing methods at different quantities. Tooling often determines the crossover: its upfront cost can be spread across repeat production or avoided when demand is lower or uncertain.
TOOLING-HEAVY
Better Economics at Repeat Volume
Methods such as die casting, injection molding, forging, and matched-die forming require dedicated production tooling. The upfront investment is spread across the production run, typically improving unit economics as volume increases. At lower quantities, tooling can outweigh those savings.
TOOLING-LIGHT
Greater Flexibility at Lower Volume
Etching, electroforming, and CNC machining can be practical when quantities are lower, demand is uncertain, or the design is still being refined. They generally avoid the heavier production tooling associated with casting or molding, although process economics still depend on geometry, material, and detail.
The crossover depends on geometry, material, tolerances, finishing, and expected volume. Share the initial quantity and expected reorder demand, and we can compare tooling and unit economics across the viable methods.
FINAL SELECTION
The Details That Shape the Final Choice
Once the general method family is clear, attachment, appearance, tolerance, and operating conditions narrow the process to the one that best fits the part.
| FACTOR | KEY QUESTION | PROCESS IMPLICATION |
|---|---|---|
| Built In Attachment |
KEY QUESTION
Must tabs, studs, bosses, or threads be formed into the part? |
PROCESS IMPLICATION
Casting, forging, and molding can create attachments as part of the component. Load bearing features require additional review. |
| Color & Decoration |
KEY QUESTION
How will color, graphics, and finishes be applied? |
PROCESS IMPLICATION
Flat surfaces support printing. Formed metal may use plating or anodizing. Molded parts can use molded in color or secondary decoration. |
| Detail & Tolerance |
KEY QUESTION
What is the smallest detail and which dimensions require the closest control? |
PROCESS IMPLICATION
Electroforming reproduces the finest surface detail. Machining offers tighter dimensional control. Cast, forged, and molded detail depends on geometry, material, and tooling. |
| Environment & Durability |
KEY QUESTION
Must the part withstand heat, UV, moisture, chemicals, abrasion, or repeated handling? |
PROCESS IMPLICATION
The operating environment narrows the material, finish, process, and protective layer options. |
What Costs You Later
Common Method Mistakes
Choosing the wrong manufacturing method usually costs you in one of three places: unnecessary tooling, excessive unit cost, or a design the process cannot reproduce. These are the mistakes that cause most avoidable redesigns and requotes.
TOOLING & VOLUME
Expensive Tooling for a Small Order
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
RELIEF & DEPTH
Asking Embossing for Deep Relief
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
PART & GEOMETRY
Asking Etching for a 3D Part
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
SURFACE DETAIL
Asking Forging for Ultrafine Detail
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
PRODUCTION VOLUME
Machining a Large Production Run
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
MATERIAL SELECTION
Choosing the Method Before the Material
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
TOOL RELEASE
Not Adding Enough Draft
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
UNDERCUTS
Undercuts That Trap the Part in the Tool
A die or mold was selected for a quantity too small to absorb the tooling cost. A lower tooling process may have been more economical.
Once You Know the Method
The Method Changes The Drawing
Different constructions require different drawing details. A cast badge or molded component may need draft angles. An embossed nameplate needs relief heights. An etched faceplate needs etch depth. An electroformed emblem needs clearly defined edges and relief. Specifying these details helps the sample match the design intent.
Choosing the method is the first half; documenting what it needs is the second. See Design Drawing Requirements
ACROSS OUR PRODUCT RANGE
The Right Method Changes With the Part.
Badges, nameplates, trim, overlays, faceplates, and functional components can require very different constructions. We match the method to the form, material, finish, application, and volume.
BadgesBrand emblems and identity marks for products and equipment.
TagsSerialized asset, rating, and inventory tags.
LabelsPrinted and metal labels for compliance and branding.
Industrial NameplatesDurable data and rating plates for machinery.
Decorative TrimFinish trim and accent pieces that dress a product.
Functional ComponentsWorking metal parts: shims, spacers, contacts.
Graphic OverlaysPrinted membrane overlays for panels and controls.
Control Panels & FaceplatesFinished panel faces with cutouts and graphics.
NEXT STEP
Not Sure Which Method Fits Your Part?
Send us the badge, nameplate, faceplate, trim piece, overlay, or component you are developing. Include the application, material, dimensions, and expected volume. We will compare the viable methods and recommend the construction that meets the requirements without adding tooling or cost the part does not need.
Request A Quote
Drawings, samples, photos, and early-stage concepts are welcome.