Our Services
WORLD WIDE SERVICE | FREE QUOTING | FASTER TURNAROUND
Manufacturing Services
IT Services
Worldwide delivery
We offer a quick worldwide delivery to meet your custom manufacturing goal.
Instant Quoting
Get instant quotes for your project. Experience 24×7 availability services with us.
Industry Experience
We have a team of experienced & skilled engineers that understand your every requirement.
Guaranteed Quality
We ensure state-of-the-art quality services in every product to deliver you the best result.
Advanced Solution
Our workshops are equipped with top-notch 3d printer & robust technologies.
PORTFOLIO
Welcome to KARV Automation
3D Printing Service North Carolina
KARV Automation is a custom 3D printing company in North Carolina that specializes in offering on-demand Industry 4.0 3D designing, additive manufacturing solutions, and digital manufacturing services. To assist you in leading this contemporary upheaval, we offer strong industry-specific and customer-focused services. KARV Automation's primary mission is to support and assist our clients in overcoming the difficult design and manufacturing challenges they encounter on a daily basis. We can take care of everything for you, from planning and designing to manufacturing, validation, and marketing.
Latest Articles Updated Daily
We Are Here To Learn More
3D Printing Technology
The process of building a three-dimensional object or structure from a CAD model or digital 3D model is known as additive manufacturing, or 3D printing. The term “3D printing” is an umbrella term that covers a wide range of 3D printing processes and technologies. The following list includes some of the most popular 3D printing technologies.
For instance, the printer may extrude a second substance that would act as support for the object being created during the printing procedure1. Later, the support material might be eliminated or dissolved.
Fused Deposition Modeling (FDM)
The most widely used 3D printing method, fused deposition modeling (FDM), is very useful for building plastic models, prototypes, and buildings. With production-grade thermoplastics, 3D items can be seamlessly constructed using this FDM technology. By melting a thermoplastic filament and layer-by-layer extruding the molten plastic, 3D objects are constructed. Complex structures can be made using specialized methods.» Read More
For instance, the printer may extrude a second substance that would act as support for the object being created during the printing procedure1. Later, the support material might be eliminated or dissolved.
3D printing Materials Used in FDM
- Acrylonitrile butadiene styrene (ABS)
- ABS-M30i
- ULTEM 1010
- ULTEM 9085
- NYLON 6
- NYLON 12
- NYLON 12 CF
- Polylactic acid (PLA)
- ASA
- Polycarbonate (PC)
- Polycarbonate-ISO (PC-ISO)
Applications
- Functional prototypes
- Concept models
- Tools, jigs, and fixtures
- Prosthetics
- Pre-surgical models
- Customized domestic products
- Props & cosplay items
Stereolithography (SLA)
Stereolithography technology is one of the fast-prototyping printing methods that is best suited for printing intricate and precise details. In a matter of hours, the printer creates the 3D objects using an ultraviolet laser. An object is created using SLA technology by selectively curing a polymer resin layer by layer with an ultraviolet (UV) laser beam.3D Printing Materials Used in SLA
- ABS resin plastic
- Accura 25
- Transparent resin plastic
- White Soft Resin(flexible)
- Temperature resin plastic
Applications
- Concept-based prototypes
- Dental models
- Investment casting patterns
- Rapid tooling, jigs & fixtures
- Designer models
- Snap-fit assemblies
- Exhibition or display models
- Transparent coverings
- Molds and casting patterns
Selective Laser Sintering (SLS)
In the SLS process, small powder particles are fused together by a powerful laser to form a mass with the desired three-dimensional shape. By initially scanning the layers or cross-sections on the surface of a powder bed, the laser selectively fuses powder. In order to build up the object to be made, a layer of powdered material is applied using a roller to the top of the layer beneath it. The powdered material is then laser sintered in accordance with a predetermined pattern. Due to the properties produced, selective laser sintering (SLS) is frequently used for the production of polymer parts.3D Printing Materials Used in SLS
- Nylon PA2200
- Flexible PEBA 2301 Plastics
- Glass Filled Nylon PA3200
- Alumide
- Nylon 12 Powder
- Nylon 11 Powder
- Nylon 12 GF
- Nylon 11 CF Powder
Applications
- Functional prototypes
- Investment casting patterns
- Wind tunnel models
- Rapid manufacturing of tooling, jigs, and fixtures.
- Mockups of existing products
- Medical device prototyping
- Prosthetics and orthotics
- Production of replacement spare parts,
- Custom automotive hardware
Multi Jet Fusion (MJF)
A quick method of creating prototypes and finished products by employing the process of 3D printing is called Multi Jet Fusion (MJF). MJF provides engineering-grade materials with excellent all-around characteristics. In addition, MJF offers a better surface polish, finer details, more consistent mechanical qualities, and quicker manufacturing times. Final products made using MJF have higher-quality surface finishes, finer feature resolution, and more reliable mechanical properties than those made using processes like selective laser sintering.3D Printing Materials Used in MJF
- HP Premium Nylon PA12
- PA11
- PA12GB
Applications
- Functional nylon prototypes
- End-use production parts
- Spares with high quality surface finishes
- Customized dental molds
- Customizable medical prosthetics
Polyjet Printing
A sophisticated 3D printing method that incorporates the benefits of both plastic and powder-based techniques is called polyjet technology. Additionally, it provides the best single print combination of strength, efficiency, dependability, quality, and flexibility. If you want to offer your prototype a competitive edge in terms of design, materials, and accuracy, polyjet is the method to go with.3D printing Materials Used in Polyjet Printing
- Digital ABS plus
- Vero White
- Agilus 30
- RGD 450
- Basic Vero
- Vero Clear
- MED 610
Applications
- Concept modeling
- Rapid prototyping
- Prototyping for complex parts
- Preclinical testing parts
- Replicas of human organs
- Prosthetic limbs
- Flexible, rubber-like models
- Zero slip or soft surfaces
Multi-Jet Modeling (MJM)
Multi-Jet Modeling (MJM), also referred to as additive manufacturing or 3D printing, uses multiple layers of photopolymer that are stacked on top of one another and then UV-cured. The creation of things with a smooth surface and fine details is achievable thanks to multi-jet modeling.3D Printing Materials Used in MJM Technology
- Transparent Acrylic
- Frosted Details
- UV Cured Acrylic Plastics
- Castable Wax
Applications
- High-detail and intricate parts
- Filigreed concept-based models
- Design prototypes
- High-end model making
- Models with a delicate design
- Models with thin walls
- Precise mold and casting templates
Direct Metal Laser Sintering (DMLS)
DMLS is essentially very much like SLS, but it makes use of metal powder. The entire amount of powder that hasn’t been consumed becomes the object’s support structure. The next print can be made with leftover powder. The DMLS process is frequently used to create parts that have good surface finishes, outstanding physical qualities, and are frequently stronger than the standard metal itself. They can be employed with ceramics and metal super alloys, which are challenging to work with in conventional ways.3D Printing Materials Used in DMLS
- Stainless Steel 316L
- Titanium
- NickelAlloy IN625
- NickelAlloy IN718
- MS1 Steel
- Cobalt Chrome
Applications
- Prototyping of production-grade materials
- Functional prototypes
- End-use parts
- Waveguides
- Custom Implants
- Die and Mold Inserts
» Close
Industries That Widely Use 3D Printing Services
Automobile: The automobile industry is very interested in the ability to quickly and affordably print lightweight parts, some of which may be complex and rarely used. Automobile manufacturers utilize 3D printers to create a variety of parts like cradles, fittings, and prototypes that are long-lasting and robust.
Aerospace: The aerospace industry has greatly benefited from 3D printing since they produce essential components for airplanes, such as wall panels, air ducts, structural metal components, etc. The main advantage of using 3D printing in the aircraft sector is weight reduction, which leads to a significant reduction in payload, fuel use, and carbon dioxide emissions.
Medical: 3D printing is frequently used in the disciplines of medicine and dentistry to manufacture everything from medical supplies to prosthetics and bioprinting. In addition, a design for a medical device can be created or improved via 3D printing. Rapid prototyping at a cheap cost has given medical device makers more creative freedom when creating new items, hastening the release of new medical equipment.
Construction: The construction industry uses 3D printing to manufacture everything from microscopic components to robust components, lightweight tools to printing entire homes. 3D printing is also used in the interior design sector to create office chairs, desks, and tables. Since 3D printing reduces labor time and costs while minimizing inefficiencies, it can be appealing to experts in the building business. This is particularly important because these experts want to construct elaborate, complex buildings more quickly and sustainably.
Manufacturing: Industrial 3D printers are fundamentally changing the long-established manufacturing business, from jigs and fixtures to end-of-arm tooling. For example, now that companies can make custom, low-volume equipment and fixtures for a fraction of the price, designers and engineers have more time to focus on products that generate revenue. Due to advancements in the 3D printing industry, small, regional enterprises can benefit from using a professional 3D printer to optimize and speed up production while reducing downtime.
Aerospace: The aerospace industry has greatly benefited from 3D printing since they produce essential components for airplanes, such as wall panels, air ducts, structural metal components, etc. The main advantage of using 3D printing in the aircraft sector is weight reduction, which leads to a significant reduction in payload, fuel use, and carbon dioxide emissions.
» Read More
Medical: 3D printing is frequently used in the disciplines of medicine and dentistry to manufacture everything from medical supplies to prosthetics and bioprinting. In addition, a design for a medical device can be created or improved via 3D printing. Rapid prototyping at a cheap cost has given medical device makers more creative freedom when creating new items, hastening the release of new medical equipment.
Construction: The construction industry uses 3D printing to manufacture everything from microscopic components to robust components, lightweight tools to printing entire homes. 3D printing is also used in the interior design sector to create office chairs, desks, and tables. Since 3D printing reduces labor time and costs while minimizing inefficiencies, it can be appealing to experts in the building business. This is particularly important because these experts want to construct elaborate, complex buildings more quickly and sustainably.
Manufacturing: Industrial 3D printers are fundamentally changing the long-established manufacturing business, from jigs and fixtures to end-of-arm tooling. For example, now that companies can make custom, low-volume equipment and fixtures for a fraction of the price, designers and engineers have more time to focus on products that generate revenue. Due to advancements in the 3D printing industry, small, regional enterprises can benefit from using a professional 3D printer to optimize and speed up production while reducing downtime.
» Close
Small Batch and Mass Production
Small Batch Production
In many facets of the industry, 3D printing manufacturing is an excellent choice for small-batch or low-volume production. Not every business can afford to produce in vast quantities. Small batch manufacturing enables you to test a product on fewer consumers before making changes for the next batch. KARV Automation’s 3D printing services for North Carolina offer on-demand small manufacturing services in order to manufacture products in custom-specified quantities. We will work with you to meet your production needs and make sure you can take full advantage of 3D printing technology.» Read More
Mass Production
The manufacturing industry is extremely competitive, and the amount of time it takes a product to reach the market can have a significant impact on a company’s ability to succeed. This calls for the production method to be able to produce a high number of goods in a short amount of time. With the help of KARV Automation’s 3D printing services in North Carolina, you can produce large batches of goods in the most effective and affordable manner possible. One of our team’s areas of expertise is the prototyping and production of high-quality metal components for consumer goods, automotive, electrical, medical equipment, and other industries. With the help of our extensive assortment of 3D printing technologies, you can quickly create a wide range of products in large quantities.» Close
How Does 3D Printing Work?
The techniques used in 3D printing are comparable to those of an inkjet printer and are a subset of the additive manufacturing process. With the 3D printing process, a three-dimensional object is built from scratch using a combination of cutting-edge software, powder-like materials, and precise instruments.
Model Designing: By implementing 3D modeling, you can create a digital version of the item you wish to print. Later, the previously designed 3D model will be printed using the 3D printer. Object models are often created by utilizing a specialized computer program called a computer-aided design (CAD) package. In the modeling phase, manufacturing companies will check the model file for errors. Most CAD programs may locate errors that, if not fixed, could lead to problems in the printed product.
Slicing: Slicing is the process of using software to divide a 3D model into hundreds or thousands of layers. Your file is prepared for your 3D printer once it has been sliced. You can use USB, SD, or Wi-Fi to send the file to your printer, and your sliced file is now ready for layer-by-layer 3D printing.
3D Printing: Once the slice file has been created, you may upload it to the printer and calibrate it so that printing can begin. The appropriate file’s instructions will be used by the 3D printer to direct where and how the material should be placed. To increase printing accuracy, the extruders and the printing base need to be calibrated. You can watch the printing process while it is taking place through the printer’s transparent panel, or you can keep track of it remotely using our APP in real-time.
Finishing: Finishing is the fourth and last phase in 3D printing. Finishing, as the name implies, entails giving the printed piece its finishing touches. For example, solvents will be added to the 3D printed object to remove any surface flaws and produce a smoother surface finish. Alternatively, during this fourth and final phase, supports that were used to support the object during the printing process will need to be taken out.
Model Designing: By implementing 3D modeling, you can create a digital version of the item you wish to print. Later, the previously designed 3D model will be printed using the 3D printer. Object models are often created by utilizing a specialized computer program called a computer-aided design (CAD) package. In the modeling phase, manufacturing companies will check the model file for errors. Most CAD programs may locate errors that, if not fixed, could lead to problems in the printed product.
» Read More
Slicing: Slicing is the process of using software to divide a 3D model into hundreds or thousands of layers. Your file is prepared for your 3D printer once it has been sliced. You can use USB, SD, or Wi-Fi to send the file to your printer, and your sliced file is now ready for layer-by-layer 3D printing.
3D Printing: Once the slice file has been created, you may upload it to the printer and calibrate it so that printing can begin. The appropriate file’s instructions will be used by the 3D printer to direct where and how the material should be placed. To increase printing accuracy, the extruders and the printing base need to be calibrated. You can watch the printing process while it is taking place through the printer’s transparent panel, or you can keep track of it remotely using our APP in real-time.
Finishing: Finishing is the fourth and last phase in 3D printing. Finishing, as the name implies, entails giving the printed piece its finishing touches. For example, solvents will be added to the 3D printed object to remove any surface flaws and produce a smoother surface finish. Alternatively, during this fourth and final phase, supports that were used to support the object during the printing process will need to be taken out.
» Close
What is 3D Printing?
The method of 3D printing includes sequentially applying tiny layers of material to a surface in order to produce a finished 3D structure from a three-dimensional digital model by employing various 3D printing technologies. Moreover, the method of 3D printing is also known as additive manufacturing, which is a method that uses an additive mechanism to produce three-dimensional items layer by layer.
Importance of 3D Printing in Industry 4.0
3D printing is one of the fundamental technologies and core components of Industry 4.0, or the fourth industrial revolution. The manufacturing sector is moving toward intelligent production, where autonomous, fully automated, and intelligent machines, systems, and networks may communicate or exchange information and respond to production management systems. This is being made possible by the use and implementation of additive manufacturing in combination with other technologies. Furthermore, 3D printing is essential since it is a technology that can instantly turn a 3D design into a finished product. The lack of expensive equipment and fixtures also lessens the need for post-processing, material waste, and human intervention.
3D Printing Materials
Like the objects created by the 3D printing process, the materials utilized in 3D printing are highly diverse in nature. Some of the most commonly used materials for 3D printing are plastic and metals.
Plastic
Plastic is the most widely used raw material out of all the substances now used for 3D printing. It is used to create items like action figures, vases, and desk accessories. The appeal of plastic is simple to grasp given its firmness, flexibility, smoothness, and vibrant array of color options. Plastic is typically inexpensive, making it a good choice for both producers and consumers. Some of the widely used plastic materials in 3D printing are as follows.» Read More
- ABS resin plastic
- Polylactic acid (PLA)
- Polyvinyl Alcohol Plastic (PVA)
- Nylon PA2200
- Glass Filled Nylon PA3200
- HP Premium Nylon PA12
- Transparent resin plastic
- Polycarbonate (PC)
- NYLON 12 CF
- MED610
- Agilus30
- ULTEM 9085
- Digital ABS plus
- Multicolor
- ABS-M30i
- ASA
- RGD 450
Metal
When used in the 3D printing process, metals can produce a more robust and arguably more varied range of products. Additionally, the development of metal 3D printing is allowing machine makers to employ DMLS to eventually create at rates and in quantities that are not feasible with existing assembly technologies. Proponents of these innovations claim that 3D printing would enable machine manufacturers to generate metal parts with a strength that is superior to those made of traditional, refined metals.- Aluminum
- Stainless Steel 316L
- Stainless Steel 420
- Bronze
- MS1 Steel
- Titanium
- Nickel Alloy IN625
- Nickel Alloy IN718
- Cobalt Chrome
- Brass
- Copper
- Gold 18 K
» Close
3D Printing Quote in North Carolina
Our top-notch 3D printing service can help you turn your concept into a tangible reality. You can request a free quotation for 3D printing with a one-day minimum delivery time. Once the quote has been accepted, we will start 3D printing your idea into reality.
Get Started with KARV’s Online 3D Printing Services in North Carolina
Get in touch with us for economical 3D printing services and collaborate with us to expand your manufacturing. With the aid of our first-rate printing service, you can make your concept a solid reality. Receive an immediate price for 3D printing with standard shipping that begins the next day. We also provide a wide range of online 3D printing services to clients all around the world.Why Choose KARV for 3D Printing Services in North Carolina?
- Customized Solution: KARV Automation a well-known custom 3D printing company in North Carolina committed to providing our customers with cutting-edge 3D products and components.
- Extensive Material Support: To meet all of your 3D printing needs, we offer a full range of materials that are of industrial standard. We cover all with a range of over 40 materials, including ceramics, metals, and plastics. Additionally, we are able to offer a custom material without a minimum order quantity.
- Instant Quoting: KARV Automation follows a manufacturing-on-demand methodology that streamlines the quotation process to just a few minutes. With our quick quoting system, you can estimate lead times, acquire accurate prices, and receive DFM feedback in only a few clicks. No matter the batch size, we offer an immediate quotation.
- Worldwide Delivery: KARV provides its digital manufacturing services—including 3D printing solutions—to clients all over the world. In order to grow your company, we provide both on-site and off-site services globally. Everything is available under one roof, whether it is manufacturing or CAD outsourcing services.
- High-end CNC Machining: For implementing prototyping and large-scale manufacturing, KARV Automation also provides reliable CNC machining in a variety of 50+ polymer, metal, composite, and foam materials.
- Guaranteed Quality: At KARV Automation, we are committed to providing you with high-quality services for all your 3D printing and other digital manufacturing needs. A dedicated team of quality control specialists works with KARV automation to guarantee that every product we offer is of the highest caliber.
