Printing Materials

In this section we will discuss a number of materials that can be used with RepRap and the ways to use them, as well as the core information needed for their successful application. Many of these materials will fall under the Polymer class (loosely called plastics). In time we will also discuss clays, plasters, cements, gels, and any other materials we think can be of use.

Polymers

Thermoplastic

The term thermoplastics applies to polymers that reversibly change phase with temperature. While keeping within a boundary of temperatures, these phase changes can be done safely and the material returns to it's original solid state after cooling, without any alteration in it's original properties.

See also WorkingWithThermoplastic.

Thermoplastics Data Sheets and where to get them

These are the various suppliers we've found. YMMV.

A useful plastic with a very low melting point that is hand-workable. You can use it to fashion your own parts without a machine, Its a tad bit expensive, but very handy. Check out the link above for suppliers.

This is very common engineering plastic. It is used in a wide variety of consumer goods. It's strong, durable, and has a decent melting point. It's also very cheap. Unfortunately it has, compared to FDM-friendlier plastics, a very high shrinkage factor when solidifying, so there isn't much of a chance of it ending up being the main working material of choice for RepRap.

ABS is a general purpose, strong, and very resistant type of plastic. It is a bit more expensive than HDPE, but it also is a bit higher quality material than HDPE.

Polylactic acid is a cheap, biodegradable polymer, that is produced from lactic acid, which can be obtained from the maceration of starch and sugars in biotanks. Typically it is produced from Genetically Modified Corn, grown in the United States, then processed as noted.

Abbeon Cal $10 / lb

Informations about plastics

http://www.ides.com/info/generics (from http://forums.reprap.org/read.php?1,70471)

Paste

In physics, a paste is a substance that behaves as a solid until a sufficiently large load or stress is applied, at which point it flows like a fluid.

A paste extruder, such as as Syringe Based Extruder, could be adapted to Paste Extrusion a large number of materials, including Chocolate Extrusion, Frostruder, clay Ceramic Extrusion, etc.

Duroplastics

Duroplastic polymers are plastics that once hardened cannot reversibly change phase (molten) through heat. Solvents may dilute some of them (Acrylics, Polyesters in their lower molecular weight form) and by evaporation of the solvent they will harden again. This application, very common in solvent based varnishes and paints, is nevertheless not practical for RepRap, as the volatile solvents take a long time to evaporate and in large section or layer thickness, this evaporation cannot be regulated and controlled so as to produce uniform deposition layers (bubbles, hardening imperfections).

Is "duroplastic polymer" a synonym for "thermosetting polymer" ?

The most common way to obtain Duroplastics is by polymerizing their monomer and oligomer blends, also called Resins, through chain reactions, whether initiated by catalysts and radicals that spring from reaction with moisture, pH, oxygen, radiation or heat (thermosetting) or auto-initiation with another identical monomer or a suitable copolymer. Polymerization can be initiated by a simple change in pH, by adding an acidic or basic reactant (Furan resins, phenol-formaldehide (Resol), urea-formaldehide...)

For rapid prototype deposition, Duroplastic resins have to fulfill a number of conditions:

1) They have to have a long work time, meaning that they have to remain fluid, preferably without any changes in viscosity and state for the whole time frame of the deposition session. Failing to do so would mean that the depositing tool would get clogged as well as introducing deposition artifacts and distortions due to variations in flow rates.

2) They have to have the correct viscosity and plasticity, so that after deposition they don't sag too much or change shape noticeably. Additionally, at no moment during the hardening process should the volume of the polymer change severely.

3) After deposition they have to have suitable adhesive properties so that threads glue together with the best possible bond strength.

4) Once deposited, there has to exist a mechanism by which the polymer will set and harden, if possible, on command. The curing has to occur through the whole section of the deposited material, not just on the surface of the thread or layer. This point will be discussed under the section Catalysts and Initiators

These conditions are less restrictive if you want to use these polymers as casting resins to fill molds (built by the deposition technique).

Spontaneous polymerization resin blends

This section will describe resins that need to be stored in two separated components for them to remain fluid for long periods of time. The most common blends of this class, generally called Dual Component Resins have to be mixed in a given proportion just before usage and start the polymerization chain reaction as soon as the two parts are homogeneously mixed. Spontaneously polymerizing monomers will not be addressed in their pure state, due to their uncontrollable and often dangerous polymerization properties. Additives and fillers can tame these processes so as to make them useful in some cases.

Read more on spontaneous polymerization resin blends

Triggered polymerization resin blends

In this section we will discuss resin blends that can be mixed in their final composition and still be kept unchanged for long periods of time. They will only start polymerizing after having been given the right trigger effect (see Catalysts and Initiators)

Read more on triggered polymerization resin blends

Other Additives, Monomers, Fillers

Here you will find a number of filler materials: Go to Fillers section

A good website to find all types of monomers and oligomers with their descriptions and properties can be found at this very complete site:

Oligomers at Sartomer.com

Monomers at Sartomer.com

or at

BASF Resins

For Organic products I have found some sites that provide chemical products all over the globe. Go to their web and search for the systematic name or name parts of the product. If you cave a CAS number (unique number for a given product) these sites will deliver a very accurate search result list. All of these sites require you to register to get prices and place orders:

Chemexper web, will give you a list of companies that sell the searched compound

ACROS Organics

Concrete

If the entry is wrong here, move it to a better place.

The video is in german language. Maybe there are other sources.

Pricing for a house in the video 5000 US$

Used for building houses

Catalysts and Initiators

There are several chemical types of catalysts that are of use to RepRap. All of them, independently of their chemical type, fall into two categories of importance to RepRap and those will be discussed below:

Catalysts for dual-component mixes

Spontaneously catalyzed systems start the polymerization reaction as soon as the catalyst comes in contact with the monomer. They do not need any further external input to fulfill their initiator role, be it heat, moisture, radiation (UV, visible, IR...).

Catalysts for single-component mixes

TriggeredPolymerizationResinBlends need a triggering effect (a TriggeredCatalysts) to start their initiator role. This is an obvious advantage as they can be blended in the monomer mix and be kept on the shelve for significant amounts of time (weeks, months...). They will not clog any tubings, pumps or dispensers. Also, they offer one more level of control, being able to decide when and where to apply the trigger effect and sometimes also when to stop the chain reaction. These triggered initiators are usually more complex as the first category, specially if what you are looking for is a rapid reaction producing fast setting times through thick sections of material. One example of these systems are the acrylic based tooth fillings the dentists use, that are triggered by UV light. Many varnishes are also UV triggered but they have a much longer setting time and require hour-long exposures to achieve definitive hardening.

Misc

Cheese
Chocolate_Extrusion
Pancakebot
See Category:Food
See Paste
See Category:Edible Paste Extruders
See Category:Consumables


Gutta-Percha from tropical trees, a natural rubber latex like material

Wheat paste
Glue

In short, whatever thermoplastic type material you can extrude from a nozzle
See thermoplastic

Glossary of Terms and Definitions

Here you will find a short and basic explanation of terms used in all the sections above. If some term used above seems unclear to you, please post a message in the forum and I will see to add the term to this glossary.

Go to Glossary

3D printing is a flexible, efficient and profitable approach to production, but it requires more than a printer and filament. Between storage, ventilation, handling materials and equipment configurations, your 3D printing budget must accommodate additional items, especially if you plan to utilize a 3D printer’s exceptional versatility.

Before you explore the world of 3D printing, you’ll need a thorough understanding of the process and all the 3D printing supplies you might need.

QUICK LINKS

Basic 3D Printer Supplies | Types of Printing Material | Cost of 3D Printing | How Hard Is 3D Printing?| Questions To Ask Before Buying a 3D Printer | What Industries Use 3D Printing? | Benefits of 3D Printing | Plate Your 3D Products at SPC

Basic 3D Printer Supplies

Of course, 3D printing starts with a printer. You can find many different types of 3D printers on the market,1 but some of the most popular styles for commercial users include:

• Stereolithography (SLA): SLA is one of the largest 3D printing technologies and is available to both hobbyists and professionals. These printers aim one or two lasers over a vat of resin,2 curing a small part of it. They build up the product in individual layers. They can use particularly strong lasers suitable for engineering-grade resins.
• Fused deposition modeling (FDM): FDM printers range from consumer-grade printers to industrial-grade. A filament wrapped around a spool gets fed through a nozzle,3 which heats and softens the filament. The nozzle then deposits the heated filament in layers that join together.
• Digital light printing (DLP): Many users opt for DLP printing to create larger parts or larger volumes of parts because this technology can flash an entire layer at one time rather than a small area.4
• Selective laser sintering (SLS): SLS printers use powdered materials.5 They heat the powder to just below its melting point, then deposit a thin layer of the material onto the build platform. A laser scans the surface in the selected pattern, sintering and solidifying the powder. The platform moves down a layer, and another layer of powder gets deposited.

Specialized printers also exist to work with materials like concrete and biological matter. Your printer must accommodate the material you plan to work with and offer an appropriate size and speed for your application.

The next major component of 3D printing is the printing material. We’ll discuss these in more detail later, but common options include plastics, resin and metals.

While the necessary 3D printer accessories vary by application and printer, some items you may need include:

• Printing material storage containers: Keeping your printing material in good condition requires proper storage. You will need containers to store materials to prevent moisture and other environmental threats from damaging them. A plastic filament, for instance, may need an airtight container or desiccant pouches to absorb moisture and keep them from warping. Check with the manufacturer for more information on appropriate storage.
• Adhesives: Many projects benefit from adhesives used on the first layer to help the product stay in place on the printer bed. Materials like masking tape and glue can help keep this layer in place while providing easy removal after the product is finished. You may also need adhesives to connect different parts of your printed item during assembly.
• Build plates: Depending on the project, a build plate can help improve adhesion and surface finish for your print. Printers generally include a build plate, but you can purchase additional plates. Having different plates provides more versatility and performance in different situations while protecting your equipment for a longer life span.
• Ventilation equipment: 3D printing can release hazardous fumes that can lead to cellular damage, inflammation and oxidative stress,6 particularly when working with thermoplastics. You will need the appropriate equipment to safely work with the printer, such as respiratory masks, fans and fume extractors. Research your printing method and read the safety information related to your printer to learn more.
• Calipers: 3D parts typically call for precision and accuracy. A reliable set of calipers can provide the necessary measurements for quality assurance and verification.
• A toolset: If you need to access the inner workings of your 3D printer for maintenance and repairs, you will likely need a set of tools like screwdrivers and Allen keys.
• Finishing tools: After printing, 3D products often need finishing, such as sanding or carving. Sandpaper or sanders smooth out rough edges, while carving tools help you remove supports and create fine details. For significant production runs, you may need large-scale finishing equipment.
• Spatula: A tapered spatula wedges underneath the 3D part to separate it from the print bed without damaging the part. They are simple but essential for smaller operations.
• Nozzle sets: Depending on your printer and your application, you may need additional nozzles to accommodate varying print thicknesses. Smaller diameters can provide more precision, but larger ones can print faster. A set of different sizes offers versatility if you need to accommodate an array of print projects.

Types of Printing Material

3D printing materials can vary widely, with options that include plastic, powders, resins, metal and carbon fiber. These materials make 3D printing a promising option for many parts, from highly accurate aerospace and industrial machinery components to customized consumer goods.

1. Plastics

Out of all the raw materials for 3D printing in use today, plastic is the most common. Plastic is one of the most diverse materials for 3D-printed toys and household fixtures. Products made with this technique include desk utensils, vases and action figures. Available in transparent form as well as bright colors, plastic filaments are sold on spools and can have either a matte or shiny texture.

With its firmness, flexibility, smoothness and bright range of color options, the appeal of plastic is easy to understand. As a relatively affordable option, plastic is generally light on the pocketbooks of creators and consumers alike.

Plastic products are generally made with FDM printers, in which thermoplastic filaments are melted and molded into shape, layer by layer. The types of plastic used in this process are usually made from one of the following materials:

• Polylactic acid (PLA): One of the eco-friendliest options for 3D printers, polylactic acid is sourced from natural products like sugar cane and corn starch and is therefore biodegradable. Available in soft and hard forms, plastics made from polylactic acid will likely dominate the 3D printing industry in the coming years.7 Hard PLA is the stronger and, therefore more ideal material for a broader range of products.
• Acrylonitrile butadiene styrene (ABS): Valued for its strength and safety, ABS is a popular option for home-based 3D printers. Also referred to as “LEGO plastic,” the material consists of pasta-like filaments that give ABS its firmness and flexibility. ABS is available in various colors that make the material suitable for products like stickers and toys. It is popular among hobbyist printers but also used in commercially made consumer goods.
• Polyvinyl alcohol plastic (PVA): Used in low-end home printers, PVA is a suitable plastic for support materials of the dissolvable variety. Though not suitable for products that require high strength, PVA can be a low-cost option for temporary-use items.
• Polycarbonate (PC): Less frequently used than the aforementioned plastic types, polycarbonate only works in 3D printers that feature nozzle designs and that operate at high temperatures. Among other things, polycarbonate is used to make low-cost plastic fasteners and molding trays.

Plastic items made in 3D printers come in a variety of shapes and consistencies, from flat and round to grooved and meshed. A quick search of Google images will show a novel range of 3D-printed plastic products such as cog wheels and Incredible Hulk action figures. Home craftspeople can even buy polycarbonate spools at most supply stores.

2. Powders

Today’s more state-of-the-art 3D printers use powdered materials to construct products. Inside the printer, the powder is melted and distributed in layers until the desired thickness, texture and patterns are made. The powders can come from various sources and materials, but the most common are:

• Polyamide (Nylon): With its strength and flexibility, polyamide allows for high levels of detail on a 3D-printed product. The material is especially suited for joining pieces and interlocking parts in a 3D-printed model. Polyamide is used to print everything from fasteners and handles to toy cars and figures.
• Alumide: Comprised of a mix of polyamide and gray aluminum, alumide powder makes for some of the strongest 3D-printed models. Recognized by its grainy and sandy appearance, the powder is reliable for industrial models and prototypes.

In powder form, materials like steel, copper and other types of metal are easier to transport and mold into desired shapes. As with the various types of plastic used in 3D printing, metal powder must be heated to the point where it can be distributed layer-by-layer to form a completed shape.

3. Resins

One of the more limiting and, therefore, less-used materials in 3D printing is resin. Compared to other 3D-applicable materials, resin offers limited flexibility and strength. Made of liquid polymer, resin reaches its end state with exposure to UV light. Resin is generally found in black, white and transparent varieties, but certain printed items have also been produced in orange, red, blue and green.

The material comes in the following three categories:

• High-detail resins: Generally used for small models that require intricate detail. For example, four-inch figurines with complex wardrobe and facial details are often printed with this grade of resin.
• Paintable resin: Sometimes used in smooth-surface 3D prints, resins in this class are noted for their aesthetic appeal. Figurines with rendered facial details are often made of paintable resin.
• Transparent resin: This is the strongest class of resin and therefore the most suitable for a range of 3D-printed products. This resin is often used for models that must be smoother to the touch and transparent in appearance.

Transparent resins of clear and colored varieties are used to make figurines, chess pieces and small household accessories and fixtures.

4. Metals

The second-most-popular material in the industry of 3D printing is metal, which is used through a process known as direct metal laser sintering (DMLS). This technique has already been embraced by manufacturers of air-travel equipment who have used metal 3D printing to speed up and simplify the construction of component parts.

Metal can produce a stronger and arguably more diverse array of everyday items. One of the main advantages of this process is that the printer handles the engraving work. As such, products can be finished by the box-load in just a few mechanically programmed steps that do not involve the hands-on labor that engraving work once required.

The technology for metal-based 3D printing is also opening doors for machine manufacturers to ultimately use DMLS to produce at speeds and volumes that would be impossible with current assembly equipment. Supporters of these developments believe 3D printing would allow machine-makers to produce metal parts with strength superior to conventional parts that consist of refined metals.

The range of metals that apply to the DMLS technique is just as diverse as the various 3D printer plastic types:

• Stainless steel: Ideal for printing out components that could ultimately come into contact with water.
• Bronze: Can be used to make vases and other fixtures.
• Nickel: Suitable for the printing of coins.
• Aluminum: Ideal for thin metal objects.
• Titanium: The preferred choice for strong, solid fixtures.

In the printing process, metal is utilized in dust form. The metal dust is fired to attain its hardness. This allows printers to bypass casting and directly use metal dust in forming metal parts. Once the printing finishes, these parts can then be electro-polished and released to the market.

Metal dust is most often used to print prototypes of metal instruments, but it has also been used to produce finished, marketable products and field-ready parts. Powderized metal has even been used to make medical devices.

When metal dust is used for 3D printing, the process allows for fewer parts in the finished product. For example, 3D printers have produced rocket injectors that consist of just two parts, whereas a similar device welded in the traditional manner will typically consist of more than 100 individual pieces.

5. Other Materials

You’ll also find other materials used in 3D printing, such as:

• Carbon fiber: Composites like carbon fiber are used in 3D printers as a top coat over plastic materials. The purpose is to make the plastic stronger. The combination of carbon fiber over plastic has been used in the 3D printing industry as a fast, convenient alternative to metal. In the future, 3D carbon fiber printing is expected to replace the much slower process of carbon-fiber layup. With the use of conductive carbomorph, manufacturers can reduce the number of steps required to assemble electromechanical devices.
• Graphite and graphene: Graphene has become a popular choice for 3D printing because of its strength and conductivity. The material is ideal for device parts that need to be flexible, such as touchscreens. Graphene is also used for solar panels and building parts. Proponents of the graphene option claim it is one of the most flexible of 3D-applicable materials. It is light, strong and very electrically conductive.8
• Nitinol: As a common material in medical implants, nitinol is valued in the 3D printing world for its super-elasticity. Made from a mixture of nickel and titanium, nitinol can bend to considerable degrees without breaking. Even if folded in half, the material can be restored to its original shape. As such, nitinol is one of the strongest materials with flexible qualities. For the production of medical products, nitinol allows printers to accomplish things that would otherwise be impossible.

• Paper: Designs can be printed on paper with 3D technology to achieve a far more realistic prototype than a flat illustration. When a design is presented for approval, the 3D-printed model allows the presenter to convey the essence of the design with greater detail and accuracy. This makes the presentation far more compelling, as it gives a more vivid sense of the engineering realities should the design be taken to fruition.

Cost of 3D Printing

While 3D printing can offer cost savings, expenses go beyond the printer and printing material. Depending on your application, a 3D printer alone can cost between several hundred and tens of thousands of dollars. Cheaper models are typically inappropriate for commercial applications. Business-grade options might range from $1,000 to $5,000.9 The cost of industrial-sized 3D printers — usually SLS printers — goes up from there.

Printing materials similarly vary by application. Basic PLA 3D printer filament might cost less than $20 for a 1 kilogram (kg) spool.10 PETG filament is a similarly affordable option that offers food safety for around $20 per kg.11 

Moving away from plastics, expect to spend more on resins and flexible materials like thermoplastics. Specialty materials, like those with metal, carbon fiber or polymer, are some of the most expensive. 

Other costs to consider include 3D printing supplies, like those we listed earlier, and repair expenses. Over time, you may need to replace certain parts or pay for the skills of experienced technicians who can properly fix the equipment. You’ll also need to consider the costs of finishing tasks, such as heat treatment, metal machining and electroplating. 

While the expenses of 3D printing vary widely, many companies still find significant cost savings from the efficient processes, short lead times and design flexibility. 

How Hard Is 3D Printing?

3D printing can be challenging due to the need for a diverse skill set. You’ll combine creativity, math and computer-aided design (CAD) skills to create and troubleshoot issues with a 3D printer. Over time, you’ll learn the best tactics for designing a piece, selecting the right materials and identifying proper configurations. Subtle differences contribute to the quality of the finished piece, but each application is unique, so it will take trial and error.

Part of the challenge of 3D printing comes from learning software programs. Even with a strong background in CAD, you may need to spend some time learning your printer’s software. Online resources, manufacturer support and CAD courses can help improve your knowledge of 3D printing.

3D printing requires patience and problem-solving skills, but it is rewarding once you get past the learning curve. Here are a few beginner tips for mastering 3D printing:

• Level the bed: An uneven print bed impacts the quality of your print by affecting how far the nozzle is from the bed in different areas. You can manually level the bed, but you can also make the process easier with leveling sensors or built-in leveling technologies.
• Pay attention to your nozzle temperature: The nozzle needs to be at just the right temperature to print without filament strings or malformations. Mitigate temperature problems in several ways, such as creating an ooze shield to catch strings or adjusting the bed temperature. For example, if your bed temperature is too low, the bottom edges might start to contract as they cool and pull away from the build plate. By increasing the temperature, you can keep it adhered.
• Establish regular maintenance procedures: Ongoing maintenance is crucial for any piece of equipment, including your 3D printer. Keep up with maintenance tasks like cleaning the bed, lubricating the rails and calibrating the extruder. Set aside time to tighten bolts and belts and check for software and firmware updates from the manufacturer.

Questions to Ask Before Buying a 3D Printer

If you’re considering buying a 3D printer, build a thorough picture of your requirements and options. Ask yourself these questions as you look for the right 3D printer:

• How much experience do I have? Are you familiar with topics like CAD and minor equipment repairs? If not, you may need to hire someone to tackle these issues or spend time learning about them before making an investment in 3D printing. Some printers and materials are more beginner-friendly than others. Discuss your experience level with the seller to find the best fit.
• What features do I need in a 3D printer? Research your application and note features you may need, such as a large build plate, user-friendly software or direct drive extruders. Consider which features are must-haves and which would be convenient.
• What environmental limitations do I have? Determine where you will put your 3D printer. For large, industrial-grade printers, this task is especially important. Think about your space and whether you need a printer with a small footprint. Consider your ventilation, too, and whether you need to adjust your HVAC system to provide a safe environment.
• What level of quality and throughput do I need? The printer’s resolution determines print quality, while speed comes from the height it can achieve per hour. Carefully consider your intended use and how your printer will need to perform. High-volume production might call for a low-quality but fast print, while infrequently produced models would benefit from increased accuracy. You may need to trade one for the other or spend more on a well-rounded printer.
• Is the seller trustworthy? Make sure where you buy your printer from has a strong track record of customer satisfaction. Check reviews for both the seller and the manufacturer. Ask for sample prints that are representative of your intended application to see a real-world example of how a model performs.
• How much do I want to spend on equipment and materials? Some technologies cost more than others, so determine your budget and potential savings from 3D printing. Factor in all future costs, including supplies, repairs and education requirements. For example, if your team will need training on CAD, include those expenses in your budget.
• How do I plan to use the 3D printer? You may know what you need, or you might have many possibilities in mind. Keep your use cases in mind as you shop for a printer. If you plan to use your printer for various projects, you may need one that’s as versatile as possible. Alternatively, you could choose a printer designed for a specific task if you know exactly how you’ll use it.

What Industries Use 3D Printing?

3D printing is an attractive option that’s gained viability across industries. As technology has advanced, 3D-printed parts have found homes in everything from jet engines and automobiles to consumer goods.

1. Aerospace

The aerospace industry makes good use of 3D printing due to the need for intricate, precise components. While subtractive manufacturing processes can make these components difficult to achieve, the additive nature of 3D printing supports complex structures with fewer parts. Aviation companies can use 3D-printed components to simplify assembly, reduce potential opportunities for failure and save time and money.

GE Aviation and Boeing now use 3D printing in jet engine prototypes and end-use parts.12 This technology offers high precision and customization for these applications.

In space, 3D printing’s on-demand capabilities make it a promising option for creating parts without requiring additional manned space travel. For example, technicians on the International Space Station (ISS) could simply print a part instead of having one sent up through a resource-intensive launch.

2. Automotive

The automotive field is a good fit for 3D printing. It allows manufacturers to print intricate parts as needed and save significantly on material waste. Ford has been using this technology since the 1990s and is building an entire 3D printing center in Europe to support its new all-electric vehicles.13

3. Manufacturing

In the manufacturing industry, where interruptions have considerable costs, 3D printing offers the benefit of speed. Manufacturers can create parts as needed without long lead times, keeping operations moving smoothly with on-demand part printing for items like injection molds and spare parts.

4. Health Care and Medicine

3D printing has promise in the field of medicine, particularly regarding medical devices, prosthetics and implants. It can help create custom orthopedic products or dental aligners, with each item made to order for the patient’s unique anatomy.

Benefits of 3D Printing

Across industries, 3D printing comes with many advantages:

• Time savings: With on-demand printing capabilities, organizations can build parts immediately instead of waiting for a company to fabricate and ship them. They can eliminate downtime and long lead times. 3D printing can also speed up design processes and prototyping with quick, tangible products.
• Cost savings: Faster production capabilities can save on costs, as can the additive process of 3D printing. Since additive processes don’t require cutting material away, they reduce material costs and energy use for a more affordable approach to design and parts acquisition.
• Versatility: A 3D printer puts an unlimited number of parts at your disposal. It can replace rare or complicated components and expand the possibilities for designers and researchers. Even large-scale production lines benefit from the adaptability of 3D printing and the parts it produces.
• On-site sourcing: 3D printing can even reduce dependence on overseas manufacturing, such as metalworking and casting. It can support a streamlined supply chain and more in-house operations.
• Eco-friendly production: From reduced material waste to fewer shipping requirements, 3D printing helps many organizations meet their sustainability goals. It is a great way to meet environmental goals and improve the efficiency of business operations.

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Can You Electroplate 3D Parts?

Electroplating 3D parts makes them even more versatile. While plastic parts won’t conduct electricity, you can electroplate them to add conductivity and open up more design opportunities. SLA printers work best with electroplating because they produce smooth layers that can better adhere to the metal, but other printing methods can also accommodate electroplating. Electroplating onto printed components can add conductivity and a wide range of other physical properties,14 like strength and specific surface finishes.

You can find electroplated 3D printed parts in many of the applications we’ve discussed, such as on-demand parts, prototyping and large-scale production.

Despite its flexibility, electroplating comes with potential challenges. One of the most difficult aspects of electroplating is staying up to date with the technology. The field of injection molding often introduces new resins and techniques that might affect how the products interact with different types of electroplating. You may need to stay in the loop on how these new materials might impact characteristics like rigidity, adhesion and flexibility. Plastic sometimes poses unique plating challenges,15 so staying knowledgeable can be difficult.

Electroplating is a complex process, but working with a professional team who understands industry updates allows you to maximize the value of your 3D-printed parts.

Plate Your 3D Products at SPC

For more than 90 years, SPC has offered prompt, affordable, high-quality plating services. Operating from our 70,000-square-foot Pennsylvania production facility, we offer services to customers across North America and abroad. As one of the most globally recognized names in the plating industry, our customizers know they can trust us for plating, metal finishing and other solutions.

With each passing decade, SPC has remained at the forefront of innovation in the world of plating. Now, with 3D printing technology approaching maturity, we are determined to meet the demands of this exciting and revolutionary new form of product creation.

At SPC, our extensive background with plating applications has allowed us to apply these capabilities to 3D-printed parts. In recent years, we have applied surface finishing to 3D parts manufactured by electronics and automotive companies as well as in numerous other industries. Regardless of your industry, we can customize a process that will suit your products.

Ultimately, companies that master this technology are bound to have an edge over their competition. Browse our 3D-print plating page16 to learn more about the options and contact us today for a free quote.17

Sources: