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Metal stamping.
Dies & tooling.

Custom stamped parts and stamping dies for OEM production. From drawing review and tool trials to inspection and repeat supply, we help define the complete manufacturing requirement.

Start with your part

  • Current drawing & revision
  • Grade, thickness & temper
  • Batch size & forecast
  • Tooling & sample scope

Metal stamping & die tooling

WenXinDa focuses on metal stamping and stamping die tooling. Connect the part specification with the tool plan, sample approval, and requirements for repeat orders.

Stamped metal brackets, contacts and formed clips
Custom stamped metal components

Metal stamping

Custom clips, contacts, brackets, and formed components for repeat production. Review material thickness and temper, functional edges, forming requirements, and release quantities against the approved drawing.

Material · formed features · repeat orders
Explore the process

Stamping die development

A die is a project in its own right. Define what the tool must produce, how trials will be approved, and what is included in the handover.

01

Tool concept

Review the material, forming sequence, critical geometry, and expected releases. Confirm whether the order covers tooling, stamped parts, or both.

02

Trial samples

Agree the trial material, sample quantity, dimensional report, and functional checks. Resolve adjustments before the production reference is approved.

03

Ownership & handover

Define tool identification, ownership, storage or shipment, receiving press interfaces, and the documents included with the tool.

04

Maintenance & changes

Agree responsibilities for upkeep, wear parts, repairs, and later drawing changes. Define how changes are reviewed and reapproved.

Plan your stamping tool

Supporting fabrication & CNC

Sheet metal fabrication supports cut, bent, and assembled features. CNC machining supports tooling components, secondary features, and related machined parts. Include the required scope with your drawing.

Caliper checking the width of a formed metal bracket on a measuring bench
Checking a formed feature against the part specification

Inspection & sample approval

Stamped parts need a shared reference for material, formed features, edges, and finish. Connect the approved drawing and trial samples with the inspection plan before production release.

Drawing control
A single drawing revision connects the part geometry, critical fits, and production instructions.
Inspection scope
Critical formed dimensions, hole relationships, and functional edges guide measurement, sample approval, and the inspection records required with each release.
Finish & handling
Visible surfaces, coatings, and protective packing are considered together so the part arrives ready for its next operation.
Explore quality & inspection

Manufacturing case studies

A bracket that fits. A contact that meets its mating interface. A die built around the receiving press. Explore the decisions behind six common OEM project briefs, then bring us the details of your own part.

Formed steel brackets, copper contact strips and small sheet metal clips
Brackets, contacts and formed sheet metal components

Industrial equipment / formed brackets

Stamped mounting bracket

A formed mounting bracket connects functional datums, hole position, bend geometry and final coating in one approval plan. Explore the manufacturing route, sample checks and repeat-order requirements that help OEM purchasing move a controlled component into planned industrial equipment assembly.

Engineering & inspection

A mounting bracket can look right on the bench and still hold up the assembly line. Hole position, bend angle and coating thickness all affect how it seats against the mating component. The project starts by identifying the mounting faces and the dimensions that control the fit, rather than treating every drawing dimension as equally important.

The objective is a bracket the receiving team can identify, inspect and move into assembly with a clear approval record. Send the mating details with your drawing to make the quotation more useful.

Engineering approach

  • Review the formed model with the mating arrangement. Establish functional datums, hole-to-bend relationships and the finished condition in which the part is measured.
  • Compare the stamping sequence with a cutting-and-bending route against the first order, repeat releases and expected drawing changes.
  • Plan the burr direction, accessible edges and surface protection together. Include any secondary holes or fasteners in the same supply scope.

Approval checkpoints

  • Check mounting-hole position from the agreed functional datums.
  • Approve formed height, angle and fit against the mating requirements.
  • Match finish, edge condition and packing to the released specification.
Small formed copper contact strips and spring clips on a gray workbench
Contact faces, spring shapes and formed copper alloy parts

Electrical assemblies / clips & contacts

Copper electrical contact

A copper-alloy contact brings material temper, working deflection and plated surfaces into a single manufacturing brief. Follow the design review, forming route, functional approval and repeat-order controls that connect a stamped component to its electrical assembly and agreed delivery requirements.

Engineering & inspection

A spring clip or electrical contact has to do more than match an outline. Its working shape, material temper and contact surface affect the assembly. A useful project brief defines the installed position, mating interface and required checks before tooling decisions are locked in. Small details around bends and edges deserve attention early.

The objective is a repeatable part specification that connects the drawing to the way the component works. Include the mating part or a section view so the review can focus on the interface that matters.

Engineering approach

  • Review alloy, thickness, temper and grain direction alongside the formed geometry. Identify the features that establish location and the faces that make contact.
  • Plan forming stages around springback, tool access and edge orientation. Keep the intended contact area clear of unwanted marks and burrs.
  • Coordinate plating or other surface treatment with the final dimensions, appearance and packing method. Define any functional test supplied by the buyer.

Approval checkpoints

  • Approve the contact position and formed profile in the defined state.
  • Check material and surface-treatment requirements against the order.
  • Use the agreed fit or functional check before repeat production.
Repeated pierced metal blanks attached to a carrier strip with a formed bracket beside them
Carrier strip, pierced blanks and a formed part

OEM production / progressive die development

Progressive die production

A recurring formed part needs a route comparison that includes tooling, material use, finishing and approval. Review cutting and bending alongside progressive die production, using design stability, forecast releases and complete program cost to guide the next informed sourcing decision.

Engineering & inspection

A formed part with repeated releases needs a tooling decision that accounts for more than the quoted piece price. Strip layout, material yield, trial work and tool care all belong in the program. The brief connects the current drawing to the expected release pattern, so the first tool is planned for the work that follows.

The objective is a clear route from tool investment to an approved production part. Send both the first release quantity and the repeat forecast to compare the manufacturing options on the same basis.

Engineering approach

  • Review which piercing, trimming and forming operations belong in the die. Establish how the strip carries and locates the part between stations.
  • Discuss feed pitch, carrier layout, scrap removal and part separation together with the critical formed features and burr direction.
  • Separate die development, approval trials and repeat-part pricing. Define ownership, wear components, maintenance and later drawing changes in the quotation.

Approval checkpoints

  • Approve trial samples against the controlled drawing revision.
  • Confirm the critical-feature inspection and sample approval record.
  • Identify the tool, approved part and repeat-order requirements together.
Open stamping die with machined plates, guide pillars and forming stations
Die plates, guiding features and forming stations

Tooling procurement / press-ready handover

Press-ready stamping die

A die-only purchase connects the component drawing with the receiving press, feeding arrangement and handover scope. Explore mechanical interfaces, ownership, trials, sample approval and transfer documents that help purchasing define a complete tool supply package for its intended production setup.

Engineering & inspection

A die-only purchase needs to work at the receiving facility. Press interfaces, material feeding and handling arrangements influence the design from the beginning. This project brief makes the destination press part of the specification, alongside the finished part, so installation and handover requirements are addressed before the tool is built.

The objective is a tool purchase with clear installation inputs and an orderly approval path. Include the press data and handover checklist with the part drawing to start a focused tooling review.

Engineering approach

  • Review shut height, bolster and slide interfaces, available space and the intended feeding method using the receiving press information.
  • Agree the trial material, sample quantity and dimensions used for approval. Define how trial findings and drawing changes are recorded.
  • Prepare a handover scope covering tool identification, handling, setup information, wear components and the maintenance responsibilities requested by the buyer.

Approval checkpoints

  • Confirm the agreed mechanical interfaces and tool envelope.
  • Approve trial parts and the associated inspection results.
  • Check the agreed documentation, identification and packing scope.
Folded metal enclosure with a removable lid and mounting brackets
Enclosure fit, fastening and formed mounting features

Equipment housings / supporting sheet metal

Equipment Enclosure Assembly

A sheet metal equipment enclosure brings cut panels, bend relationships, joints, hardware, coating, and cover fit into one assembly. The brief connects drawings with the finished housing, a controlled approval record, an organized quotation, and protective delivery for repeat purchasing.

Engineering & inspection

An equipment enclosure brings cut profiles, bends, hardware and surface finish into one assembly. A panel may pass its individual checks while access holes, mounting points or doors fail to line up after finishing. The project review follows the complete assembly and the receiving requirements, rather than quoting disconnected flat parts.

The objective is an enclosure package that is straightforward to receive and build into the equipment. Send the assembly model as well as individual drawings to make the fabrication scope easier to evaluate.

Engineering approach

  • Review the assembled model, panel drawings and mating clearances. Identify the visible faces, access needs and mounting features that control usability.
  • Plan bend order, tool access, weld locations and hardware installation together. Clarify which features require checking after forming or assembly.
  • Coordinate masking, coating thickness, labels and protective packing. List supplied hardware and separately supplied components in the purchase scope.

Approval checkpoints

  • Check the assembly datums, mounting pattern and agreed clearances.
  • Approve hardware position, thread access and specified joining details.
  • Inspect visible surfaces and protect finished parts for shipment.
Machined aluminum housing, turned steel bushing and dowel pin
Milled and turned features for assembly interfaces

Tooling & equipment / supporting CNC parts

CNC Locating Interface

CNC locating components connect mounting faces, pin holes, bores, shoulders, and threads through a functional datum scheme. The brief brings material, workholding, machining access, treatment, final fit, inspection records, and protected packing into a defined interface for tooling or equipment.

Engineering & inspection

A machined locating block, fixture component or mounting interface often carries the dimensions that connect several parts. A tight tolerance has value when it protects the intended fit. The review starts with the locating scheme, access for machining and the final inspection condition, connecting the part drawing to the assembly task.

The objective is a supporting component with a clear fit requirement and a proportionate inspection plan. Mark the mating features when you request a quote so the review targets the dimensions that do the work.

Engineering approach

  • Review the model and drawing together. Establish the datum features, mating holes, threads and surfaces that control position or alignment.
  • Plan setups around tool reach, workholding and the relationship between critical features. Discuss corner radii and deep features that affect the machining route.
  • Include material condition, surface treatment, masking and deburring in the same plan. Define whether critical dimensions apply before or after treatment.

Approval checkpoints

  • Inspect the critical relationships from the specified datum system.
  • Check thread requirements, accessible edges and mating surfaces.
  • Link inspection records and part identification to the drawing revision.

Discuss a similar component

Send the drawing you have today. Add the material, order quantities, and the feature that is causing the most discussion. Tell us whether your priority is assembly fit, tooling scope, unit cost, or repeat supply. We can focus the project review on the decision your team needs to make next.

Materials & surface finishes

Thickness, temper, grain direction, and surface treatment influence forming as well as finished function. Include the material condition with the grade when comparing stamping options.

Material details to discuss for stamped parts
Material familyDesign considerationsInclude in the RFQ
Aluminum alloysThickness, temper, bend behavior and surface appearanceGrade, thickness, temper, cosmetic faces and finish
Stainless steelsCorrosion environment, forming behavior and springbackGrade, thickness, condition and surface treatment
Carbon & alloy steelsFormability, strength, heat treatment and corrosion protectionGrade, thickness, condition and coating specification
Brass & copper alloysConductivity, contact behavior, forming and surface protectionAlloy, temper and any plating requirements

Choosing between materials? Tell us about the operating environment and the feature that matters most.

Complete quotation scope

A useful quote lets you see what you are buying. We bring the part, tooling, finish, inspection, and delivery requirements together, so your team can compare the complete order and plan the next stage.

  • One-time work: die development, tool trials, sample adjustments, fixtures, and approval work should be visible alongside repeat part prices.
  • Part-level work: material yield, piercing and forming stages, deburring, and surface treatment may add separate operations.
  • Acceptance: define sample size, critical feature reports, material records, finish approval, and any test requirements in advance.
  • Delivered scope: include installed hardware, assembly, protective packing, shipping documents, and a named delivery point where relevant.

You can start before every detail is fixed. Send the current design and tell us which material, finish, or quantity options you would like to compare.

See the process and cost comparison
Open stamping die with machined plates, guide pillars and forming stations
Die plates, guiding features and forming stations

From drawing to production

One project, four clear stages. Your drawing, quotation, approval, and delivery requirements stay connected as the order moves forward.

  1. 01

    Share your requirements

    Send the current drawing and CAD, grade, thickness, temper, first batch quantity, and repeat forecast. Highlight functional bends, edges, finish, and delivery needs.

  2. 02

    Review the quotation

    Review the die approach and supply scope. Separate one-time tooling and trial charges from repeat part cost, and agree ownership, maintenance, finish, and inspection.

  3. 03

    Agree the approvals

    Check trial parts against the drawing, critical formed features, edge requirements, and assembly. Record adjustments and establish the approved sample and revision before production.

  4. 04

    Prepare for delivery

    Protect finished surfaces, identify each part, and organize the documents needed at receipt. Packing and freight are planned around the destination and delivery terms.

New projects & repeat orders

Whether you are testing a design, moving an existing part, or ordering another batch, we focus the work on the outcome your team needs.

01

Developing a new stamping

Review the forming features and tool approach while the design develops. Separate early fit checks from production-intent trial parts, and agree the approval steps before committing to a die.

Explore the processes
02

Reviewing an existing stamping tool

Share the approved drawing, tool information, reference samples, and inspection criteria. For a proposed tool transfer, compatibility, condition, ownership, and trial responsibilities need a separate review.

Plan acceptance
03

Planning repeat purchases

Build repeat orders around the approved part number, revision, and release size. A demand forecast helps align tooling, material purchasing, packaging, and the schedule for future batches.

Discuss a repeat program
Metal brackets separated in protective foam inside an open shipping carton
Individual part protection and organized packing

Finishing, packing & delivery

Edges, coatings, and packing deserve the same attention as dimensions. Deburring improves handling; masking protects threads and fits; separators help finished surfaces arrive in good condition. These details form part of a complete manufacturing order.

  • Before finishing: identify deburring, weld cleanup, surface preparation, edge breaks, and areas that must remain uncoated.
  • Before approval: agree the sample reference, visible face standard, key dimensions, inspection record, and any material or coating documentation.
  • Before dispatch: confirm protection between parts, labeling, package quantity, delivery address, and the documents the receiving team will check.

We work through the finishing and delivery details alongside the part specification, giving purchasing and receiving teams a clear reference for the order.

Explore packing and shipping
Quotation & production planning

Assembly requirements

Show us the mounting face, contact surface, or mating part. We focus the review on the dimensions and formed features that make your component work in the assembly.

Review your part requirements

Quotation scope

Compare die development, trial work, repeat part prices, finish, inspection, and packing on the same basis. Give purchasing a scope they can evaluate and engineering a route they can approve.

Compare manufacturing routes

Repeat production

Connect the approved revision to material condition, repeat releases, tool care, and receiving checks. Make the production reference useful for the orders that come next.

Plan a repeat production part

Frequently asked questions

View all FAQs
What should I include in a quote request?

Send the current CAD or drawing, material, quantity, and delivery destination. Add the finish and any critical dimensions. If you want options, include the first batch quantity and your expected repeat demand.

Can I enquire about dies, stamped parts, or both?

Yes. State whether you need a new stamping die, stamped parts, or a tooling-and-production project. For a die-only enquiry, include receiving press interfaces and handover requirements so compatibility and the scope can be reviewed.

How do I specify inspection requirements?

Mark the critical dimensions and include your inspection template if you have one. We work with the drawing, sampling requirements, and report format so the inspection scope is clear with the quotation.

How do I send drawings?

Use the contact form for up to 3 files, 10 MB each, or send the package to the sales email on our contact page. Include the part number and revision. If your project needs an NDA, mention it before sending the design files.

How is tooling cost handled?

Ask for die development, trials, and repeat part pricing to be shown separately. Ownership, maintenance, wear parts, storage, and later revisions should be agreed with the quotation. The economics depend on the part and release pattern.

When should I consider stamping tooling?

Consider it when a sheet part has a stable drawing and a repeat order pattern that may justify dedicated tooling. Compare tool cost, expected releases, sample approval, tool ownership, maintenance, and change control with a fabrication route.

Can CNC machining be included?

CNC is a supporting capability for tooling components, secondary features, or related machined parts. Add the required operation and mating features to the enquiry so the supply scope and inspection can be reviewed together.

What should I compare between supplier quotes?

Compare the same drawing revision and quantities, then check what each quote includes: material, one-time tooling, part operations, finish, inspection records, packing, freight, and delivery term. A unit price alone does not describe the full purchase scope.

Request a stamping or tooling quote

Get the part, tool, trial samples, and repeat-order scope into one conversation. Send your current drawing, material, and quantities. Let’s work through the next decision.

Request a quote