Custom Laser Custom Services Online
Pride's laser cutting services cater to aerospace, energy, technology, and healthcare industries. From prototypes to production parts, we offer a wide selection of materials and fast, customized solutions to bring your ideas to life in just days. ISO 9001:2015 and ISO 13485 certified, ensuring top quality and precision.
-
0.01mmAccuracy
-
20+Years Experience
Precision Laser Cutting
Pride combines CNC laser cutting, precision parts manufacturing, laser marking, depaneling, drilling, micromachining, skiving, and routing with various laser frequencies to deliver innovative solutions for complex designs. We achieve cutting accuracy up to 0.01mm (10 microns), with no limit on material thickness and a minimum cutting diameter of 0.18mm.
Laser Cutting Capabilities
| Cutting Accuracy |
|
| Minimum Cutting Thickness | Unlimited (varies based on material) |
| Minimum Cutting Diameter | 0.18 mm / 0.0071 inches |
| Kerf (slit size) | Approximately 0.5 mm / 0.020 inches |
| Supported Laser Types | Fiber laser, CO2 laser, UV laser |
| Materials Processed | Metals (stainless steel, aluminum, copper), plastics, ceramics, etc. |
| Processing Speed | Adjustable based on material and thickness for optimal efficiency |
| Edge Quality | Smooth, burr-free, typically no secondary processing required |
| Shape Complexity | Capable of handling highly complex geometries |
| Applications | Medical devices, aerospace, electronics, automotive components, consumer products, etc. |
PRECISION LASER CUTTING SERVICES
Certified Quality
We are ISO 9001:2015 and ISO 13485 certified, ensuring top-quality and compliance for industrial and medical applications.
Surperior Precision
Our laser technology offers cutting accuracy of up to 0.01 mm (10 microns), delivering perfect results for complex designs.
Tailored Solutions
We provide fully customized laser cutting services, adapting to your specific material and design needs, whether for large-scale production or small batches.
Proven Expertise
With 20+ years of experience, we serve industries like medical, aerospace, electronics, and automotive, offering reliable, high-quality solutions for projects.
Why Choose Pride for Custom Laser Cutting Services?
Here Are Four Reasons Why You Choose Us
Provide personalized customized services
Pride stands out in custom laser cutting with ISO 9001:2015 and ISO 13485 certifications, ensuring top-quality production for both industrial and medical applications. Our laser technology offers cutting accuracy up to 0.01 mm (10 microns), providing precise results for complex designs. We deliver fully customized solutions for any production scale, from rapid prototyping to high-volume manufacturing, tailored to your specific material and design needs.
With over 20 years of experience, we serve industries like medical, aerospace, electronics, and automotive, ensuring reliable, high-quality solutions for challenging projects. Contact us for pricing, lead times, and expert design feedback.
What is Laser cutting?
Laser cutting is a manufacturing process that uses a high-powered, focused laser beam to cut or engrave materials like metal, plastic, wood, and ceramics. Known for its precision and ability to handle complex designs, laser cutting produces smooth, burr-free edges with minimal material waste. It is widely used in industries such as aerospace, electronics, automotive, and medical devices.
How Does Laser Cutting Work?
Laser cutting works by directing a high-powered, focused laser beam onto a material's surface, where it heats, melts, or vaporizes the material to create precise cuts. A computer-controlled system (CNC) guides the laser along a pre-programmed design. The process often uses gases like oxygen or nitrogen to blow away debris, ensuring a clean cut. The laser beam, created by stimulating lasing material, is focused and intensified through mirrors or fiber optics. For thicker materials, a piercing process is used to start the cut.
What Can Laser Cutting Do?
- Cut Precisely: Achieve clean, accurate cuts on various materials.
- Create Complex Shapes: Handle intricate designs with high precision.
- Engrave Details: Produce detailed engravings and patterns.
- Handle Various Thicknesses: Work with both thin and thick materials.
- Serve Multiple Industries: Ideal for aerospace, automotive, electronics, medical devices, and more.
Types of Laser Cutting
- CO2 Laser Cutting: Uses a carbon dioxide laser for cutting and engraving non-metals and some metals.
- Fiber Laser Cutting: Uses a solid-state laser with fiber optics, ideal for cutting metals like stainless steel and aluminum.
- Nd Laser Cutting: Uses a neodymium-doped laser, suitable for cutting and engraving of metals and ceramics.
- UV Laser Cutting: Utilizes ultraviolet light for cutting and engraving of heat-sensitive materials.
Custom Laser Cutting for Industries
Custom laser cutting excels at producing precise and efficient parts across diverse industries. From aerospace and automotive to electronics and medical devices, laser cutting delivers high-quality components with intricate designs and clean edges. Whether for aircraft parts, vehicle components, circuit boards, or surgical instruments, laser cutting ensures precision and versatility. Pride's laser cutting service simplifies production, offering tailored solutions that meet the specific needs of each industry, from initial prototypes to high-volume production.
Custom Laser T Services
Laser Cutting Tolerances
Minimum Cutting Diameter
0.18 mm / 0.0071 inches
Precision Tolerances
0.01 mm (10 microns) / 0.00039 inches
Standard Lead Time
7 business days for samples, 15 business days for mass production.
Supported Laser Types
Fiber laser, CO2 laser, UV laser.
Supported Materials
Metals (stainless steel, aluminum, copper), plastics, ceramics, etc.
Edge Quality
Smooth, burr-free, typically no secondary processing required.
Metal Laser Cutting Materials List
|
Aluminum |
Aluminum 2024-T3 Aluminum 5052 H32 Aluminum 6061 T6 Aluminum 7075 T6 Aluminum MIC6 |
Aluminum is a lightweight, durable metal known for its versatility and resistance to corrosion. It is widely used in various applications, including aerospace components, automotive parts, construction materials, packaging, and consumer goods. Its combination of strength, low weight, and corrosion resistance makes it ideal for both industrial and everyday uses. |
|
Copper |
Copper 101, H00 to H01 Copper 110, Annealed Copper 110, H01 Copper 110, H02 |
Copper is a highly conductive metal known for its excellent electrical and thermal conductivity. It is commonly used in electrical wiring, plumbing systems, industrial machinery, and construction applications due to its durability, corrosion resistance, and malleability. |
|
Bronze |
Copper C932 Bearing Bronze 932 M07 Bronze 220 H02 Bronze 510 H08 (spring) Silicon Bronze 655 |
Bronze is an alloy of copper and tin known for its strength, durability, and corrosion resistance. It is commonly used in sculptures, industrial components like bearings and gears, marine hardware, and coins due to its ability to withstand wear and its appealing finish. |
|
Brass |
Copper 260 Copper 360 Brass 260 Brass 353 H02 Brass 464 H01 |
Brass is an alloy of copper and zinc known for its machinability, strength, and corrosion resistance. It is widely used in applications such as plumbing fittings, musical instruments, decorative items, and electrical connectors due to its durability, aesthetic appeal, and ease of fabrication. |
| Spring Steel |
1075 Spring Steel, annealed 1075 Spring Steel, Blue Tempered 1095 Spring Steel, annealed 1095 Spring Steel, blue tempered 4130 chrome-moly steel, annealed |
Spring Steel is a high-carbon steel known for its strength and ability to return to its original shape after deformation. It is commonly used in automotive springs, industrial machinery, and tools due to its excellent flexibility and durability. |
|
Stainless Steel |
Stainless Steel 17-4 PH, annealed Stainless Steel 17-7 shim, hardened Stainless Steel 301, spring temper Stainless Steel 304 Stainless Steel 304 shim, hardened Stainless Steel 304, #4 brushed Stainless Steel 316 Stainless Steel 410, annealed Stainless Steel 430, #3 brushed Stainless Steel 440C Stainless Steel CPM 154 Stainless Steel S30V, annealed |
Stainless Steel is a corrosion-resistant alloy primarily composed of iron, chromium, and nickel. It is known for its durability, strength, and resistance to rust and staining. Common uses of stainless steel include kitchen appliances, medical instruments, construction materials, and automotive parts due to its combination of aesthetic appeal and practical performance. |
|
Steel |
AR400 Steel, hardened AR500 Steel, hardened Steel 1008, zinc-galvanized Steel 1018 Steel 4140, hardened Steel 80CRV2 Steel A36 Steel A36, pickled and oiled Steel A366/1008 Steel A572 Grade 50 Steel G90, galvanized Corten A588 (Weathered) Steel Hot Rolled Steel 1045 Hot Rolled Steel A569/ASTM A1011 Tool Steel D2, annealed Tool Steel O1, annealed |
Steel is a strong, durable alloy of iron and carbon, often with other elements added to enhance its properties. It is widely used in construction, automotive manufacturing, machinery, and tools due to its strength, versatility, and ability to be shaped into various forms. Steel's applications range from building frameworks and bridges to household items and industrial equipment. |
|
Titanium |
Titanium (Grade 2) Titanium 6Al-4V (Grade 5) |
Titanium is a lightweight, strong metal known for its exceptional strength-to-weight ratio and corrosion resistance. It is commonly used in aerospace components, medical implants, and high-performance sports equipment due to its durability, biocompatibility, and ability to withstand extreme conditions. |
| Nickel |
Nickel 200, annealed Nickel 625, annealed |
Nickel is a durable metal known for its corrosion resistance and strength. It is commonly used in making alloys like stainless steel, for plating to provide a protective and decorative finish, and in rechargeable batteries such as nickel-cadmium and nickel-metal hydride. |
| Nitinol |
Nitinol 60/40 Nitinol 55/45 Nitinol 50/50 |
Nitinol is a nickel-titanium alloy known for its unique shape memory and superelastic properties. It can return to a pre-defined shape when heated or undergo large deformations and recover its shape. Nitinol is commonly used in medical devices like stents and guidewires, as well as in actuators, robotics, and aerospace components due to its ability to adapt and respond to changes in temperature. |
|
Carbon Fiber |
Carbon Fiber |
Carbon Fiber is a lightweight, high-strength material made from thin, strong crystalline filaments of carbon. It is renowned for its high stiffness, strength-to-weight ratio, and resistance to corrosion. Carbon fiber is widely used in aerospace, automotive, sports equipment, and construction industries for applications such as aircraft components, high-performance car parts, bicycle frames, and reinforced structures, where reducing weight and enhancing strength are crucial. |
|
Custom |
If you don't find the material stock you need, we can source additional alloys and tempers through our network of 10,000 machine shops. Simply contact us, and you can submit your quote for manual review. Our expert manufacturing team will then reach out to assist you. | |
Plastic Laser Cutting Materials List
|
ABS |
ABS, Black ABS, White |
ABS is a high-strength engineering plastic widely used in a variety of commercial products due to its excellent durability, impact resistance, and ease of processing. It's commonly found in consumer electronics, automotive components, and household goods. |
|
Acrylic |
Acrylic, Clear Acrylic, Colored |
Acrylic is a transparent, glass-like plastic known for its excellent clarity and durability. It offers good wear and tear resistance, making it ideal for both indoor and outdoor applications. Common uses include signage, display cases, and protective barriers. |
|
Delrin (Acetal) |
Acetal, Black Acetal, White Delrin 150 Delrin 100 |
Delrin (Acetal) is a high-performance resin known for its excellent moisture resistance, high wear resistance, and low friction properties. Available in different grades like Delrin 150 and Delrin 100, it’s ideal for applications requiring durability and precision, such as gears, bearings, and mechanical components. |
| Rubber |
Buna-N Rubber, Adhesive-Backed, Black Buna-N Rubber, Black |
Rubber is a flexible, elastic material commonly used in a wide range of products, from tires to seals and gaskets. It can be made from natural rubber (derived from latex) or synthetic rubber (such as neoprene or silicone). |
|
EPDM |
EPDM |
EPDM stands for Ethylene Propylene Diene Monomer, which is a type of synthetic rubber. It is known for its excellent resistance to environmental factors like heat, UV rays, ozone, and aging, making it ideal for outdoor and industrial applications. |
| EVA |
EVA Foam, Black EVA Foam, Blue |
EVA (Ethylene Vinyl Acetate) is a flexible plastic material made by combining ethylene and vinyl acetate. It’s widely used in products like shoe soles, foam mats, packaging, sporting goods, and solar panel encapsulation. |
| Extra Soft PU Foam |
Extra Soft PU Foam, Adhesive Backed, Black Extra Soft PU Foam, Black |
Extra Soft PU Foam is a highly flexible and lightweight type of polyurethane foam, known for providing excellent cushioning and comfort. Its softness and elasticity make it ideal for custom applications, such as furniture cushions, mattresses, pillows, packaging, and automotive interiors. |
|
Fiberglass |
Fiberglass |
Fiberglass is a strong, durable, and lightweight material made from fine glass fibers. It is widely used for reinforcement in products like boat hulls, roofing, insulation, automotive parts, and industrial items such as pipes and tanks. |
| PU |
Flame-Retardant PU Air Filter Pad, Gray |
PU (Polyurethane) is a versatile polymer known for its durability, flexibility, and resistance to wear. It can be formed into foams, coatings, adhesives, and elastomers, making it ideal for applications like furniture cushions, mattresses, insulation panels, automotive components, and coatings. |
| Silicone Foam |
Flame-Retardant Silicone Foam, Gray High Temp Silicone Foam, Adhesive Backed, Red High Temp Silicone Rubber, Adhesive-Backed, Red High Temp Silicone Rubber, Red |
Silicone Foam is a foam made from silicone rubber, known for its excellent heat resistance, flexibility, and chemical resistance. It is commonly used for insulation in electrical components, seals and gaskets, cushioning in high-temperature environments, and vibration dampening in machinery. Its unique properties make it suitable for both industrial and consumer applications. |
|
Garolite |
Garolite G10 (FR4), Black Garolite G10 (non-FR) Garolite G11 (FR5), Green Garolite LE (Phenolic), Brown |
Garolite, available in grades like G10 (FR4), G10 (non-FR), and G11 (FR5), is a high-strength material made from epoxy resin reinforced with fiberglass fabric. Also known as epoxy-grade industrial laminate or phenolic, Garolite is valued for its excellent strength, low moisture absorption, and electrical insulation properties, making it ideal for electrical, mechanical, and structural applications. |
|
HDPE |
HDPE, White |
HDPE, or high-density polyethylene, is a durable plastic known for its excellent moisture and chemical resistance, along with good impact strength. It's highly suitable for outdoor applications and is commonly used in watertight containers, seals, and other products that require robust environmental protection. Additionally, HDPE offers excellent UV resistance, making it ideal for long-term use in harsh conditions. |
|
Nylon 6/6 |
Nylon 6/6, Black |
Nylon 6/6 provides enhanced mechanical strength and rigidity, along with excellent stability under heat and resistance to chemicals. This versatile material is well-suited for demanding applications, including industrial components, automotive parts, and high-stress environments. Its durability and toughness make it a reliable choice for both structural and functional uses. |
|
PC (Polycarbonate) |
Polycarbonate, Clear |
Polycarbonate (PC) boasts nearly twice the tensile strength of ABS, offering exceptional mechanical and structural properties. Its superior impact resistance and stability make it a preferred material in demanding fields such as automotive, aerospace, and electronics. Polycarbonate is also valued for its optical clarity and high-temperature resistance, making it ideal for applications requiring durability, transparency, and thermal stability. |
| Paper Fiber and Buna-N Blend |
Paper Fiber and Buna-N Blend, Gray |
Common uses of this blend include gaskets, seals, and other industrial components where a combination of strength and chemical resistance is needed. |
|
PEEK |
PEEK PEEK (USP Class VI TECAPEEK) PEEK GF30 |
PEEK (Polyetheretherketone) is renowned for its outstanding tensile strength and is frequently used as a lightweight alternative to metal components in high-temperature, high-stress environments. Available in variants like PEEK (USP Class VI TECAPEEK) and PEEK GF30, this advanced polymer offers excellent resistance to chemicals, wear, and moisture. PEEK’s exceptional mechanical properties and dimensional stability make it ideal for demanding applications in industries such as aerospace, automotive, and medical devices. |
|
Polypropylene |
Polypropylene, White |
Polypropylene is a versatile plastic known for its excellent electrical properties and minimal moisture absorption. It maintains its strength under light loads across a wide range of temperatures, making it suitable for various applications. Additionally, polypropylene can be machined into components that require resistance to chemicals and corrosion, making it ideal for use in industrial and medical settings where durability and reliability are essential. |
|
PTFE (Teflon) |
PTFE Gasket Material PTFE, White or Black |
PTFE (Teflon) excels beyond most plastics in terms of chemical resistance and performance under extreme temperatures. It resists a wide range of solvents and harsh chemicals, making it highly suitable for demanding industrial applications. Additionally, PTFE is an exceptional electrical insulator, providing reliable performance in various electronic and electrical applications. Its non-stick properties and low friction make it ideal for use in seals, gaskets, and bearings where durability and performance are crucial. |
|
UHMW PE |
UHMW-PE, White |
UHMW PE (Ultra-High Molecular Weight Polyethylene) is a versatile general-purpose material known for its exceptional wear and corrosion resistance. It combines low surface friction with high impact strength and outstanding chemical resistance, making it ideal for demanding applications. UHMW PE also boasts excellent durability and does not absorb moisture, ensuring long-term performance in both industrial and high-stress environments. Its unique properties make it suitable for use in a variety of applications, including conveyor systems, protective liners, and high-wear components. |
|
PVC |
PVC, Gray |
Polyvinyl chloride (PVC Type 1) is a highly chemical-resistant synthetic plastic, widely used in environments where exposure to liquids is common or where electrical insulation is required. Known for its durability and low cost, PVC offers excellent resistance to corrosion, chemicals, and moisture, making it suitable for a range of applications, including piping systems, electrical insulation, and protective coatings. Its versatility also extends to construction materials, medical devices, and various industrial components. |
|
ULTEM |
ULTEM 1000 ULTEM 2300 |
ULTEM (Polyetherimide), including grades like ULTEM 1000 and ULTEM 2300, is a high-performance thermoplastic known for its rigidity and strength. Capable of withstanding continuous operation at temperatures up to 340°F, ULTEM offers superior dielectric strength, making it an excellent electrical insulator. Its chemical resistance, ease of cleaning, and minimal moisture absorption further enhance its suitability for medical applications, as well as aerospace, automotive, and industrial uses. ULTEM's robust properties ensure reliable performance in demanding environments and critical applications. |
|
Custom CNC |
We can source additional plastics through our network. If you don't find the material you need, contact us to submit your quote for manual review, and our team will assist you. | |
our product Surface Finishes
| Standard (As-Milled) | This finish option offers the fastest turnaround. Machined parts will have visible tool marks, and may include sharp edges and burrs, which can be removed upon request. |
|
Bead Blast |
The part surface is finished with a smooth, matte texture. |
|
Tumbled |
This batch process uses vibrating media to smooth sharp edges and remove burrs from CNC parts. It can also eliminate machine marks on exterior surfaces. Parts larger than 8” may need a manual review. |
|
Anodized (Type II Or Type III) |
|
|
Titanium Anodize |
This surface finish, following the AMS-2488 Type 2 specification and also known as Tiodize, enhances the fatigue strength and wear resistance of titanium parts. Commonly used in aerospace and medical device manufacturing, titanium anodized finishes can dull over time and are available in non-pigmented or colored options. |
|
PTFE Impregnated Hard Anodize |
This hard coat anodizing process embeds PTFE to produce a self-lubricating, dry contact surface while maintaining the protective properties of Type 3 hard coat anodizing. Suitable for aluminum alloys or titanium, this finish enhances the service life of the product. It conforms to AMS-2482 Type 1 Hard Coat Anodizing with Teflon (Non-Dyed). |
|
Chem Film (Chromate Conversion Coating) |
This coating offers corrosion resistance and good conductivity and can serve as a base for paint. It typically leaves a yellow or gold appearance and adds minimal thickness, ranging from 0.00001” to 0.00004”. Chem Film conforms to MIL-DTL-5541, TYPE I/II standards. |
|
Passivation |
Enhances corrosion resistance for 200 and 300 series stainless steels, as well as precipitation-hardened corrosion-resistant steels. The thickness added is negligible, around 0.0000001”. Passivation meets standards such as ASTM A967, AMS-QQ-P-35, MIL-STD-171, ASTM A380, or AMS 2700. |
|
Powder Coat |
This process involves spraying powdered paint onto a part and then baking it in an oven. The result is a strong, durable layer that is more resistant to wear and corrosion compared to traditional painting methods. A wide range of colors is available to achieve the desired aesthetic. |
|
Electropolishing |
This electrochemical process cleans steel parts, enhancing their appearance by making the metal brighter and reducing corrosion. It removes approximately 0.0001” to 0.0025” of the metal surface. Electropolishing conforms to ASTM B912-02 standards. |
|
Electroless Nickel Plating |
This process applies a uniform nickel coating that protects against corrosion, oxidation, and wear on irregular surfaces. The finished part has a bright appearance, with a coating thickness starting at 0.0001”. Electroless nickel plating conforms to MIL-C-26074 standards. |
|
Silver Plating |
Silver plating provides excellent solderability and electrical conductivity but can be prone to tarnishing. It conforms to AMS QQ-S-365D standards, with a thickness ranging from 0.00002” to 0.0003”. |
|
Gold Plating |
Gold plating offers strong resistance to corrosion and tarnish, along with excellent solderability. It typically follows MIL-G-45204 and ASTM B488, CLASS 00, 0, OR 1 specifications. The thickness ranges from 0.00002" to 0.00005". |
|
Zinc Plating |
This process applies a uniform zinc coating that protects against corrosion, oxidation, and wear on irregular surfaces. It conforms to ASTM B633-15 standards. |
Ready to get started on your laser cutting services quote?
Laser cutting FAQs
What is Laser Cutting?
Laser cutting is a precise manufacturing process that uses a focused laser beam to cut or engrave materials by vaporizing them. The term "laser" stands for Light Amplification by the Stimulated Emission of Radiation, which refers to various technologies capable of forming laser beams. The most common types of lasers used in laser cutting are CO2, fiber, and LED.
Laser cutters are known for their exceptional speed and accuracy, primarily due to computer numeric control (CNC), which governs the movement of the cutting axis and the highly predictable nature of the laser beam. This makes laser cutting suitable for both prototyping and mass production, as it allows for fast adjustments without the need for tools or consumables—unlike traditional CNC machines. This flexibility makes it easy to implement sudden design changes during the manufacturing process.
In addition to its efficiency, laser cutting is favored across multiple industries due to its ability to produce clean, detailed cuts with minimal material waste.
What can Laser Cutting be Used for?
Laser cutting is an incredibly versatile technology used across almost every industry due to its ability to cut a wide range of materials, from thick steel to precise micron-sized incisions in soft materials. The adaptability of laser beams makes it suitable for both large-scale manufacturing and highly detailed work.
One prominent application of laser cutting is in the transition from prototyping to initial product runs. When scaling up production, where thousands or even hundreds of thousands of parts may be required, laser cutting is ideal due to its efficiency. With no need for machinery adjustments or design file modifications, scaling up becomes a seamless process. Additionally, any design changes can easily be integrated before full-scale production begins, allowing for flexibility and fast turnaround.
Laser cutting is also highly valued in industries that demand extreme precision and accuracy. The combination of a well-defined laser beam and advanced CNC control enables the creation of small, complex parts. For instance, Shenzhen Pride can manufacture components as small as 6x6mm, with intricate features down to 1x1mm, making it an excellent choice for sectors like aerospace and automotive where precision is crucial.
Another major advantage of laser cutting is its ability to produce custom parts, particularly for legacy systems where original components are no longer available. Industries that rely on aging hardware often face challenges in sourcing replacement parts. With laser cutting, companies like Pride can manufacture custom 2D parts, allowing these industries to maintain their equipment and avoid costly system replacements.
In addition to industrial applications, laser cutting has found popularity in artistic and aesthetic projects. The unique cutting method, especially on organic materials like wood and paper, leaves a distinctive burnt edge, creating a striking visual contrast. This effect is often used to enhance the appearance of decorative items, panels for equipment, and artistic displays, making laser cutting a favored choice for both functional and decorative purposes.
How Long does Laser Cutting Take?
Laser cutting is a notably fast process compared to other manufacturing techniques like CNC machining or manual cutting. However, the complexity of a design can influence cutting speed. Intricate designs with many features or engraved areas can slow down production. For instance, engraving large areas, where the laser beam must cover an entire surface, can be time-consuming. Since laser beams have focal points that can be sub-millimeter, engraving a large area (e.g., 10x10cm) can take a significant amount of time. To optimize cutting speed, it's often better to keep designs simple and avoid extensive area engraving when possible.
Even for designs with complex features and large engravings, laser cutting still offers speed advantages due to the lack of tool changes. Unlike CNC machines that require different tools for various operations, laser cutters can handle all tasks with the same laser beam. This efficiency is further enhanced by the quick material changes, as laser cutting doesn't require materials to be tightly secured, and no tabs are needed between the part and the parent material. This allows for clean, fully cut-out parts without additional steps, making the overall process faster and more efficient.
What is the Difference Between Plasma Cutting and Laser Cutting?
The primary difference between plasma and laser cutting lies in their cutting methods. Plasma cutters use a stream of hot plasma—a superheated gas with separated electrons and nuclei—to cut through materials. Plasma cutters work by electrically charging the plasma torch and the workpiece, taking advantage of plasma’s electrical conductivity. This method is effective for cutting thicker materials but is limited to electrically conductive materials such as metals.
In contrast, laser cutters utilize a laser beam to cut through materials, independent of the material's electrical properties. This versatility allows laser cutters to handle a broader range of materials, including plastics, wood, and cardboard, in addition to metals. While laser cutting is generally more precise and can cut thinner materials with cleaner edges, plasma cutting excels at cutting thicker metals.
What Design Files do Laser Cutters Use?
Laser cutters are controlled by computers using G-code, which specifies the positions and feed rates for all axes. However, users typically submit design files rather than G-code. These design files outline the layers of the design, including line cuts, line engravings, and area engravings.
The preferred file format for laser cutting is often DXF, as it is well-suited for detailing the design's dimensions and elements. When uploading a file to services like Pride, it is crucial to clearly define different aspects of the design using distinct colors to specify line cuts, line engravings, and area engravings. This ensures accurate processing and execution of the design.
How Fast can Laser Parts be Ordered and Received from Pride?
At Shenzhen Pride Industrial Co., Ltd., we provide efficient and global laser cutting services. For sample orders, you can expect to receive your parts within 7 business days, facilitating rapid prototyping and design validation. For larger orders or mass production, the standard lead time is 15 business days, ensuring that we can deliver high-quality parts in larger quantities. As a worldwide laser cutting service, we are available to clients across the globe, committed to delivering precision and efficiency no matter where you are.
What Materials can Laser Cutters Cut?
At Shenzhen Pride Industrial Co., Ltd., we stock over 150 materials in various compositions, thicknesses, and colors. What sets these materials apart is that they are all engineered to specific standards, meaning they come with clearly defined characteristics such as tensile strength and density. This ensures consistency and precision in every project.
Our material selection includes metals like steel, brass, copper, and aluminum, as well as organic materials such as card, cardboard, paper, and felt. Additionally, we offer a wide range of plastics including acrylic and Delrin. However, we avoid using materials like PVC due to the release of harmful gases, such as chlorine, during laser cutting. This focus on safety and quality allows us to meet industry standards while delivering reliable results.
Is Laser Cutting Cost-effective?
Among various production methods, laser cutting stands out as one of the most cost-effective options due to its speed, accuracy, repeatability, and the lack of tooling required. Additionally, laser cutting offers the flexibility to easily load new design files, making it ideal for both prototyping and production runs.
While CNC machining also uses computer numeric control, it involves a head with changeable tools, which increases production time due to tool changes. The use of consumable tools, like cutting bits, means additional costs for replacement, and the need to cut materials slowly to avoid damage further extends production time.
In comparison, plastic injection molding can be cheaper than laser cutting, but only when manufacturing on a large scale, such as in the millions. For smaller to mid-sized production runs, even in the thousands, laser cutting remains the more cost-effective option. This makes it a highly efficient choice for many industries that need both flexibility and precision without the higher costs associated with tooling or slow processing.
Get in touch to discuss your project and request a quote. Our team is ready to deliver precision and quality for your needs. Let’s make your ideas a reality!
Our address
3rd Floor, Block 58, Changxing Industrial Park, Changzhen St., Guangming District, Shenzhen, Guangdong Province, China
Phone Number
+8618666663894
zhang@pride-cnc.com
We're well-known as one of the leading laser cutting manufacturers and suppliers in China for our quality products and customized service. Please feel free to wholesale laser cutting made in China here from our factory.