Materials Suitable for Waterjet Cutting Technology
Waterjet cutting is one of the most versatile manufacturing processes available today, capable of cutting virtually any material with exceptional accuracy and edge quality.
Using ultra-high-pressure water combined with abrasive particles, CNC waterjet cutting systems can process metals, stone, marble, porcelain slabs, glass, ceramics, composites, plastics, and engineered materials without generating heat, mechanical stress, or material distortion.
Unlike laser, plasma, or traditional machining methods, waterjet technology preserves the original material properties while delivering clean, precise cuts suitable for demanding industrial and architectural applications.
At HORD Waterjet, we provide specialized waterjet cutting solutions for different material categories, helping manufacturers improve productivity, reduce material waste, and achieve superior cutting quality.
Key Benefits
✔ No Heat-Affected Zone (HAZ)
✔ No Material Burning or Melting
✔ Excellent Edge Quality
✔ Suitable for Fragile & Hard Materials
✔ Minimal Material Waste
✔ Capable of Complex Shapes and Intricate Designs
✔ Environmentally Friendly Cutting Process
Waterjet Cutting Solutions by Material
Different materials require different cutting strategies, machine configurations, and processing techniques. Explore our dedicated waterjet cutting solutions for specific material categories.
Water Jet Stone Cutter
Designed for granite, quartz, natural stone, and engineered stone fabrication, including countertops, wall panels, flooring, and architectural projects.
Water Jet Marble Cutter
Ideal for marble flooring, decorative medallions, luxury interior decoration, mosaics, and stone inlay applications.
Water Jet Tile Cutter
Precision cutting solution for ceramic tiles, porcelain tiles, large-format slabs, and decorative tile patterns.
Water Jet Glass Cutter
Suitable for architectural glass, decorative glass, laminated glass, mirrors, and custom glass fabrication.
Water Jet Metal Cutter
Efficient processing of stainless steel, carbon steel, aluminum, copper, brass, titanium, and other industrial metals.
Water Jet Sintered Stone Cutter
Specialized for large-format porcelain slabs and sintered stone materials used in modern kitchen and architectural applications.
Water Jet Composite Materials Cutter
Designed for carbon fiber, fiberglass, honeycomb panels, Kevlar®, and advanced engineering composites.
Metal Cutting |
Stone Tile Cutting |
Glass Cutting |
Composites Cutting |
Food Cutting |
Bevel Cutting |
Precision Cutting |
Stacked Material Cutting |
Thick Material Cutting |
Paper Cutting |
As a cold-cutting technology, waterjet cutting eliminates heat-affected zones, preventing discoloration, hardening, cracking, or structural changes.
Waterjet cutting is not limited by material hardness, conductivity, or thickness, making it suitable for virtually any engineering material.
The process produces smooth, accurate edges that often require little or no secondary finishing.
From thin decorative glass to thick steel plates, a single waterjet system can handle diverse materials and applications.
Industrial Applications of Waterjet Cutting Materials
Architecture & Interior Design
Waterjet cutting is extensively used in architectural decoration and interior design projects involving stone, glass, and ceramic materials.
Typical applications include marble flooring patterns, porcelain slab countertops, decorative wall panels, mosaic inlays, stair treads, and custom architectural glass elements.
Its cold-cutting process ensures crack-free edges and precise geometric shapes, making it ideal for high-end residential, commercial, and hospitality design projects.
Metal Fabrication & Industrial Manufacturing
In metal processing industries, waterjet cutting is used to produce high-precision components from stainless steel, carbon steel, aluminum, copper, and titanium alloys.
Common applications include machine parts, structural brackets, industrial enclosures, custom tooling components, and prototype parts.
Because it generates no heat-affected zone (HAZ), waterjet cutting preserves material integrity and avoids warping, making it ideal for precision engineering and heavy-duty manufacturing.
Aerospace & Advanced Composites
Waterjet technology plays a critical role in aerospace and advanced engineering industries where material performance and structural integrity are essential.
It is widely used for cutting carbon fiber reinforced plastics (CFRP), fiberglass, Kevlar composites, and lightweight honeycomb structures.
Typical applications include aircraft interior components, structural panels, satellite parts, and high-performance automotive components.
The non-thermal cutting process prevents delamination, fiber pull-out, and material weakening, ensuring consistent quality in safety-critical applications.
Signage & Custom Fabrication
Waterjet cutting is widely used in signage production and custom fabrication industries for creating complex shapes and decorative designs.
Applications include metal logos, acrylic signage, artistic panels, decorative installations, brand identity elements, and custom architectural features.
Its ability to cut virtually any material with high accuracy makes it ideal for small-batch customization, prototyping, and premium design work.
Get Expert Advice for Your Material Cutting Project
Whether you’re cutting metal, stone, glass, tile, composites, or engineered materials, selecting the right waterjet system is critical for achieving optimal productivity and cutting quality.
Our technical team will help you:
✔ Verify material compatibility
✔ Recommend the best machine model
✔ Evaluate cutting thickness and speed
✔ Optimize production costs
✔ Develop customized cutting solutions
Contact HORD Waterjet today for free project consultation and machine recommendations.
More Information
Material Capability Overview
| Material Category | Typical Thickness | Waterjet Compatible |
|---|---|---|
| Marble | 5–100 mm (0.2″–4″) | ✔ |
| Granite | 5–150 mm (0.2″–6″) | ✔ |
| Porcelain Slab | 6–30 mm (0.24″–1.18″) | ✔ |
| Ceramic Tile | 5–30 mm (0.2″–1.18″) | ✔ |
| Glass | 2–100 mm (0.08″–4″) | ✔ |
| Stainless Steel | 0.5–150 mm (0.02″–6″) | ✔ |
| Carbon Steel | 1–200 mm (0.04″–8″) | ✔ |
| Aluminum | 1–200 mm (0.04″–8″) | ✔ |
| Copper | 1–100 mm (0.04″–4″) | ✔ |
| Carbon Fiber | 1–80 mm (0.04″–3.15″) | ✔ |
| Fiberglass | 1–80 mm (0.04″–3.15″) | ✔ |
Introduction Text
Waterjet cutting offers exceptional flexibility across a wide range of materials and thicknesses. By adjusting pressure, abrasive flow, and cutting parameters, manufacturers can process everything from thin decorative glass to thick steel plates while maintaining excellent edge quality and dimensional accuracy.
Materials That Benefit Most from Waterjet Cutting
Certain materials are difficult to process using laser cutting, plasma cutting, or conventional machining due to heat sensitivity, brittleness, reflectivity, or complex internal structures.
Waterjet cutting is particularly advantageous for:
✔ Sintered Stone
✔ Quartz Stone
✔ Marble
✔ Granite
✔ Laminated Glass
✔ Reflective Glass
✔ Titanium
✔ Carbon Fiber
✔ Fiberglass
✔ Kevlar®
✔ Honeycomb Panels
✔ Multi-Layer Composite Materials
Because waterjet cutting generates no heat-affected zone (HAZ), it preserves material integrity while delivering precise edges and intricate shapes.
For manufacturers working with high-value materials, waterjet technology often provides the safest and most reliable cutting solution.
Waterjet vs Laser Cutting by Material
Choosing the right cutting technology depends on the material being processed, required edge quality, thickness, and production objectives.
While laser cutting is widely used for thin metal fabrication, waterjet cutting offers superior flexibility because it can process virtually any material without generating heat.
The table below compares the performance of waterjet cutting and laser cutting across common material categories.
| Material | Waterjet Cutting | Laser Cutting |
|---|---|---|
| Stainless Steel | Excellent | Excellent |
| Carbon Steel | Excellent | Excellent |
| Aluminum | Excellent | Good |
| Copper | Excellent | Limited |
| Brass | Excellent | Limited |
| Titanium | Excellent | Good |
| Marble | Excellent | Not Suitable |
| Granite | Excellent | Not Suitable |
| Quartz Stone | Excellent | Not Suitable |
| Porcelain Slabs | Excellent | Not Suitable |
| Ceramic Tiles | Excellent | Not Suitable |
| Glass | Excellent | Not Suitable |
| Carbon Fiber | Excellent | Risk of Burning |
| Fiberglass | Excellent | Risk of Delamination |
| Rubber | Excellent | May Melt |
| Plastics | Excellent | May Melt |
| Foam Materials | Excellent | May Burn |
| Laminated Materials | Excellent | Limited |
Material Cutting Speed Reference Chart (Industrial Data)
Cutting speed varies based on material hardness, thickness, and pressure settings.
Metals (Example: Stainless Steel 10mm)
| Pressure | Speed (mm/min) |
|---|---|
| 380 MPa | 155–170 |
| 420 MPa | 230–260 |
| 600 MPa | 280–320 |
Stone & Glass
| Material | Thickness | Speed Range (420 MPa) |
|---|---|---|
| Glass | 10 mm | 1200–1300 mm/min |
| Granite | 20 mm | 400–430 mm/min |
| Marble | 10 mm | 1100–1400 mm/min |
Engineering Insight
- Harder materials → lower speed
- Thicker materials → slower cutting
- Higher pressure → improved efficiency
Waterjet cutting balances speed + precision + edge quality better than any thermal process.
Why Waterjet Cutting Has Broader Material Compatibility
Unlike laser cutting, which relies on heat energy, waterjet cutting uses ultra-high-pressure water and abrasive particles to remove material mechanically.
This allows manufacturers to:
✔ Cut heat-sensitive materials
✔ Eliminate heat-affected zones (HAZ)
✔ Prevent burning, melting, and warping
✔ Process reflective metals such as copper and brass
✔ Cut brittle materials such as glass and ceramics
✔ Process thick materials with consistent quality
For manufacturers working with multiple material types, waterjet cutting often provides the highest overall production flexibility.
Recommended Waterjet Machine by Material
Different materials require different waterjet machine configurations to achieve optimal cutting quality, production efficiency, and return on investment.
The following guide helps manufacturers select the most suitable HORD Waterjet solution based on material type and application requirements.
| Material | Recommended Machine | Typical Applications |
|---|---|---|
| Marble | HD-AB3020-5X Mosaic Waterjet Cutting Machine | Stone mosaics, medallions, decorative inlays |
| Granite | HD-AB3020-5X Mosaic Waterjet Cutting Machine | Bevel edges, decorative stone fabrication |
| Quartz Stone | HD-AC3020-5X Countertop Waterjet Machine | Kitchen countertops, vanity tops |
| Porcelain Slabs | HD-AC4020-5X Porcelain Slab Waterjet Machine | Large-format slab processing |
| Ceramic Tiles | HD-AB3020-5X Mosaic Waterjet Cutting Machine | Tile mosaics and decorative patterns |
| Glass | HD-C2515-3X Compact Waterjet Cutting Machine | Precision glass cutting and shaping |
| Stainless Steel | HD-G3020-3X CNC Waterjet Cutting Machine | Industrial metal fabrication |
| Aluminum | HD-G3020-3X CNC Waterjet Cutting Machine | Sheet metal processing |
| Carbon Fiber | HD-AC3020-5X Countertop Waterjet Machine | Composite component manufacturing |
| Fiberglass | HD-AC3020-5X Countertop Waterjet Machine | Engineering and industrial parts |
| Large Stone Panels | HD-AC6030-5X Large Format Waterjet Cutting Machine | Oversized slab processing |
| Multi-Material Production | HD-G4025-D3X Dual Head Waterjet Cutter | High-volume industrial manufacturing |
Find the Right Waterjet System for Your Material
Choosing the right waterjet machine depends on material type, thickness, production volume, and cutting complexity.
Whether you process stone, glass, metal, porcelain slabs, or composite materials, HORD Waterjet offers specialized machine configurations designed to maximize productivity and cutting quality.
👉 Explore our complete range of Waterjet Cutting Machine Models to find the best solution for your application.
Which Waterjet Machine Is Right for Your Material?
Selecting the correct machine depends on:
- Material type
- Material size
- Production volume
- Required cutting accuracy
- Bevel cutting requirements
- Automation level
Whether you process stone, glass, metal, composites, or architectural materials, our engineering team can recommend the most suitable waterjet cutting solution based on your production goals.
Why Material Selection Matters in Waterjet Cutting
Waterjet cutting is one of the few manufacturing technologies capable of processing almost any material on a single machine platform.
However, cutting performance varies depending on:
- Material hardness
- Material thickness
- Surface finish requirements
- Part complexity
- Production volume
By matching the right machine configuration with the correct material application, manufacturers can maximize productivity, reduce operating costs, and achieve superior cutting quality.
At HORD Waterjet, we help customers select the ideal waterjet cutting system for their specific materials, applications, and production requirements.
Industries Using Waterjet Cutting Technology
Waterjet cutting technology is widely used across a variety of industries because it can process almost any material without generating heat, distortion, or material damage. From precision metal fabrication to architectural stone processing, industrial waterjet cutting provides manufacturers with unmatched flexibility, accuracy, and material compatibility.
Stone Fabrication Industry
Waterjet cutting has become an essential technology in the stone fabrication industry for processing marble, granite, quartz, engineered stone, and sintered stone materials. It is widely used for countertops, flooring medallions, decorative inlays, wall cladding, and custom architectural stonework. The ability to create intricate patterns and precise edges without causing cracks or chipping makes waterjet cutting ideal for high-end stone applications.
Metal Manufacturing Industry
Industrial waterjet cutting is commonly used in metal fabrication for processing stainless steel, carbon steel, aluminum, copper, brass, and titanium. Manufacturers rely on waterjet technology to produce machine components, structural parts, brackets, enclosures, and custom metal products. Because the process generates no heat-affected zone (HAZ), it preserves material strength and dimensional stability.
Aerospace Industry
The aerospace industry requires exceptional precision and material integrity. Waterjet cutting is used to process titanium alloys, aluminum aerospace components, carbon fiber composites, and honeycomb structures. Unlike thermal cutting methods, waterjet technology eliminates the risk of heat distortion and metallurgical changes, making it suitable for critical aerospace applications.
Automotive Industry
Automotive manufacturers use waterjet cutting for prototype development, production parts, interior components, and lightweight composite structures. It is particularly effective for cutting aluminum panels, carbon fiber components, gaskets, insulation materials, and interior trim parts. The flexibility of waterjet technology helps manufacturers reduce tooling costs and accelerate product development cycles.
Glass Processing Industry
Waterjet cutting is widely used for architectural glass, decorative glass, laminated glass, and specialty glass applications. The non-contact cutting process minimizes edge chipping and cracking while enabling complex shapes and custom designs. Common applications include glass partitions, shower enclosures, decorative panels, storefront systems, and custom interior glass features.
Interior Decoration Industry
In the interior decoration sector, waterjet cutting enables designers and fabricators to create custom marble medallions, decorative wall panels, mosaic patterns, porcelain slab features, and artistic architectural elements. Its ability to achieve tight tolerances and intricate geometries makes it one of the preferred technologies for luxury residential and commercial projects.
Signage Production Industry
Waterjet cutting is widely used in the signage and branding industry to manufacture custom logos, lettering, decorative metal signs, acrylic panels, and artistic installations. Designers can create highly detailed shapes and complex patterns from metal, glass, stone, and composite materials while maintaining excellent edge quality and dimensional accuracy.
Composite Manufacturing Industry
Advanced composite materials such as carbon fiber, fiberglass, Kevlar®, and multi-layer engineered panels are increasingly used across aerospace, automotive, marine, and industrial sectors. Waterjet cutting provides a precise, non-thermal cutting solution that prevents delamination, fiber pull-out, and structural damage. This makes it one of the most effective technologies for composite material processing.
FAQs
Waterjet cutting is one of the few manufacturing processes capable of cutting almost any material. Common materials include:
- Stainless steel
- Carbon steel
- Aluminum
- Copper and brass
- Titanium alloys
- Marble
- Granite
- Quartz stone
- Porcelain slabs
- Ceramic tiles
- Glass
- Carbon fiber
- Fiberglass
- Rubber
- Plastics
- Foam materials
Because waterjet cutting uses high-pressure water rather than heat, material hardness, reflectivity, or conductivity generally do not limit the process.
Waterjet cutting offers the greatest advantages when processing materials that are difficult to cut using laser, plasma, or mechanical tools.
These include:
- Sintered stone
- Quartz stone
- Marble
- Laminated glass
- Reflective metals
- Titanium
- Carbon fiber composites
- Fiberglass
- Kevlar®
- Honeycomb panels
These materials are sensitive to heat, cracking, or delamination, making waterjet technology one of the safest and most precise cutting methods available.
Maximum cutting thickness depends on material type and machine configuration.
Typical capabilities include:
| Material | Maximum Thickness |
|---|---|
| Stainless Steel | Up to 150 mm (6″) |
| Carbon Steel | Up to 200 mm (8″) |
| Aluminum | Up to 200 mm (8″) |
| Marble | Up to 100 mm (4″) |
| Granite | Up to 150 mm (6″) |
| Glass | Up to 100 mm (4″) |
Industrial waterjet systems operating at 420–600 MPa can process extremely thick materials while maintaining high edge quality.
Yes.
Unlike laser or plasma cutting, waterjet cutting is a cold cutting process.
There is:
- No heat-affected zone (HAZ)
- No metallurgical changes
- No material hardening
- No thermal distortion
This is especially important for aerospace alloys, stainless steel, titanium, and precision engineering components.
Yes.
Waterjet cutting applies minimal mechanical stress and generates no heat, allowing brittle materials to be processed safely.
Materials commonly cut include:
- Marble
- Granite
- Quartz
- Sintered stone
- Porcelain slabs
- Ceramic tiles
Properly configured systems can achieve clean edges while minimizing chips and micro-cracks.
Yes.
Waterjet technology is widely used for:
- Architectural glass
- Decorative glass
- Laminated glass
- Mirror glass
- Specialty glass panels
The non-contact cutting process significantly reduces the risk of edge chipping compared with conventional machining methods.
Yes.
Waterjet cutting is considered one of the best methods for composite processing because it applies neither heat nor excessive mechanical force.
Common composite materials include:
- Carbon fiber
- Fiberglass
- Kevlar®
- Honeycomb structures
- Sandwich panels
This helps maintain structural integrity and prevents fiber pull-out or delamination.
Modern CNC waterjet cutting machines typically achieve:
| Parameter | Typical Value |
|---|---|
| Positioning Accuracy | ±0.05 mm |
| Cutting Accuracy | ±0.1 mm |
| Repeatability | ±0.025 mm |
Actual results depend on material type, thickness, machine quality, and cutting parameters.
Yes.
Waterjet cutting can produce edges that often require little or no secondary finishing.
Benefits include:
- Smooth surface finish
- Minimal burrs
- Reduced polishing requirements
- Accurate edge geometry
Higher edge quality can be achieved by reducing cutting speed and optimizing pressure settings.
| Feature | Waterjet | Laser |
|---|---|---|
| Heat Generation | None | High |
| Material Distortion | None | Possible |
| Reflective Materials | Excellent | Limited |
| Thick Material Cutting | Excellent | Limited |
| Composite Processing | Excellent | Poor |
| Cutting Speed on Thin Metal | Slower | Faster |
Laser cutting is often faster on thin sheet metal, while waterjet cutting provides greater material flexibility.
Yes.
Stack cutting is commonly used in:
- Rubber manufacturing
- Gasket production
- Foam processing
- Textile cutting
By cutting multiple layers simultaneously, manufacturers can significantly improve productivity and reduce production costs.
Compared with many traditional cutting technologies, waterjet cutting is considered environmentally responsible.
Advantages include:
- No toxic fumes
- No smoke generation
- No thermal emissions
- Reduced material waste
- Recyclable abrasives in some applications
Water is typically filtered and reused in industrial systems.
Waterjet technology is widely used in:
- Aerospace
- Automotive
- Architecture
- Interior decoration
- Stone fabrication
- Metal fabrication
- Glass processing
- Composite manufacturing
- Electronics
- Industrial machinery
Its versatility makes it suitable for both mass production and custom fabrication.
Yes, but not in the same way as conventional machining.
Harder materials generally require:
- Slower cutting speeds
- Increased abrasive consumption
- Higher operating pressure
However, waterjet cutting can process extremely hard materials such as titanium, granite, ceramics, and hardened steel while maintaining excellent precision.
The best machine depends on:
- Material type
- Material thickness
- Production volume
- Required precision
- Part complexity
For example:
- Marble mosaics → AB 5-Axis Waterjet
- Porcelain slabs → AC 5-Axis Waterjet
- Metal fabrication → CNC 3-Axis Waterjet
- Glass processing → Compact Waterjet Cutter
- Composite materials → 5-Axis Waterjet System
Consulting with an experienced waterjet manufacturer helps ensure the machine configuration matches your production requirements and investment goals.
