Stainless Steel Dutch Weave Wire Mesh for Fine Filtration
Stainless steel Dutch weave wire mesh is purchased as a complete filtration construction: weave family, warp and weft counts, both wire diameters, alloy, retention basis, flow duty and supply format. Mesh count or a standalone micron value is not a complete specification.
What Makes Dutch Weave Different from Square Woven Mesh?
Square woven mesh has directly measurable openings between adjacent wires. Dutch weave uses unequal warp and weft wires packed into a dense structure, so fluid follows an indirect pore path.
The navigation Dutch weave mesh product family remains the core category page. This non-navigation page provides the detailed stainless steel commercial specification and RFQ path.
Dutch Weave Product Family
Plain Dutch weave
Over-one/under-one dense construction. See Plain Dutch weave.
Twill Dutch weave
Paired interlacing for dense fine-weft structures. See Twill Dutch weave.
Reverse Dutch weave
Reversed count/wire relationship serving a distinct filtration and mechanical intent. See Reverse Dutch weave.
Stainless Steel Dutch Weave Mesh Specification Table
Reference designations can shortlist a construction, but the purchase order should identify the complete media and the basis of every filtration value.
Mobile: swipe sideways to view every column.
| RFQ field | Required information | Why it matters |
|---|---|---|
| Weave construction | Plain, twill or reverse Dutch; warp × weft count; both wire diameters | Identifies the actual woven geometry |
| Retention basis | Pore, nominal, absolute or named test method and particle target | Prevents unsupported micron equivalence |
| Alloy | 304, 316, 316L or drawing-specified material | Must suit process and cleaning chemistry |
| Operating duty | Medium, viscosity, temperature, flow, clean drop and differential pressure | Supports permeability and support review |
| Supply form | Roll width/length, slit roll, cut piece or finished-part drawing | Controls edges, layers, seams and tolerances |
| Purchase data | Cleaning, inspection, quantity and required documentation | Creates a comparable quotation |
Micron Rating: State the Definition and Method
Dutch weave does not have a simple square aperture. Reported micron values may describe pore geometry, particle retention or results from different tests, so they cannot be compared without definitions.
Use the Dutch weave specifications guide to read warp × weft designations and wire data, then use the Dutch weave mesh micron-rating guide to define filtration values. Do not use a square-opening calculator for this dense construction.
304, 316 and 316L Dutch Weave Mesh
Material selection begins with the actual process medium, concentration, temperature, contaminants, cleaning chemistry and any forming or joining requirements. A stainless grade name does not guarantee compatibility with every industrial fluid.
Review the 304 vs 316 stainless steel wire mesh guide, then confirm the grade for the real service.
Supply Forms and Fabricated Filter Components
Roll media
Define width, length, weave, alloy, edge condition and handling requirements.
Cut pieces and discs
Provide outline, dimensions, tolerances, layer stack and edge treatment.
Filter tubes
Define seam, support, flow direction, ends and equipment interface.
Pleated or supported elements
Provide media area, supports, caps, seals, differential pressure and drawing.
For broad filtration-media selection, see stainless steel mesh for filtration. Finished components require their own controlled drawings.
Typical Industrial Filtration Duties
Hydraulic and lubricating oil
Define viscosity, temperature, flow, retention basis and differential pressure.
Polymer processing
Define melt or process duty, support, cleaning and finished screen/element form.
Chemical processing
Confirm alloy compatibility with actual chemicals and cleaning conditions.
Process liquid and gas
Connect required retention to permeability, support, seals and complete element design.
Real Maidong Dutch Weave Media and Component Examples
These real Maidong materials show dense roll media, wire structure and formed samples. They are visual examples, not universal micron, flow or pressure ratings.
Dense roll media
Fine filter mesh roll
Warp and weft structure
Formed mesh samples
How to Prepare a Dutch Weave Mesh RFQ
1. Define retention
State particle target and rating/test basis.
2. Define the process
Add medium, viscosity, temperature, flow and pressure.
3. Select the weave
State family, warp/weft counts and both wire diameters.
4. Select alloy and support
Define stainless grade, layers, flow direction and cleaning.
5. Complete the RFQ
Add roll or part dimensions, quantity and acceptance requirements.
Stainless Steel Dutch Weave Wire Mesh FAQ
It is a dense woven metal filter medium using unequal warp and weft wire systems. Closely packed wires create an indirect pore path rather than the directly measurable square opening found in ordinary square mesh.
The main families include plain Dutch, twill Dutch and reverse Dutch constructions. Each uses a different wire arrangement and must be selected from retention, permeability, pressure, support, cleaning and fabrication requirements.
No. The square-mesh aperture formula does not apply. Use construction-specific pore or retention data and state whether a value is geometric, nominal, absolute or based on a named test method.
304, 316 and 316L are common enquiries. The correct grade depends on the actual fluid or gas, concentration, temperature, contamination, cleaning chemistry and fabrication conditions.
Depending on the drawing, roll media may be reviewed for cut pieces, discs, tubes, pleated elements or supported assemblies. The finished part needs layer order, flow direction, support, joints, ends and tolerances.
Provide weave family, warp-by-weft count, both wire diameters, alloy, retention or test basis, operating medium, viscosity, temperature, flow, differential pressure, roll or part dimensions, cleaning and quantity.
Request a Dutch Weave Construction Review
Send the weave family, complete warp/weft construction, alloy, retention basis, operating conditions, supply form and quantity.