3D Printing Archives - Sodick Inc.

3D printing is the future of die-cast and mold production. In a previous article, we explored how metal additive manufacturing enables faster turnaround times, longer-lasting molds, and complex cooling geometries that simply aren’t possible with traditional methods. By printing directly from digital models, die-cast shops can streamline tooling production, reduce waste, and improve part consistency—all while cutting costs over time.

However, when it comes time to invest in your first 3D printer—how do you know which is right for your operation? In this guide, we’ll walk you through the key considerations for selecting a 3D printer and material that align with your needs and maximize performance and cost efficiency.

Key considerations when choosing a metal 3D printer for tooling

Selecting the right system starts with a deep understanding of what your operation needs. While all metal 3D printers offer digital flexibility and geometric freedom, not all are built for the rigors of die-casting environments.

Precision and material compatibility

Tooling applications demand high-precision output—often down to tight tolerances, sharp detail, and clean surface finishes. For die-casting shops, the ability to print with tool-grade metals like H13 or its equivalents is critical. Not all 3D printers support these high-strength materials, and some require extensive post-processing.

Printers using laser powder bed fusion (LPBF) technology are typically preferred in tooling environments for their fine resolution and support for dense, durable metal powders.

Not all 3D printing methods are tooling-ready

When evaluating a printer for die-casting or mold-making, it’s important to understand that not all 3D printing technologies are designed for functional, production-grade tooling. Here’s a quick breakdown of the most relevant 3D printing technologies you’ll encounter when evaluating options for die-casting or mold-making.

LPBF – laser powder bed fusion (e.g., LPM)

LPBF uses a high-powered laser to selectively melt and fuse metal powder, layer by layer. It’s ideal for producing strong, dense parts with intricate features—such as conformal cooling channels—that are essential for die-casting tooling. LPBF systems are typically well-suited for high-performance applications but require moderate post-processing (e.g., support removal, heat treatment) and come with a higher upfront investment.

DMLS – direct metal laser sintering

DMLS is similar to LPBF in that it also uses a laser and a bed of metal powder. However, while LPBF melts the powder fully, DMLS sinters it—meaning the powder is heated just below melting point, causing the particles to fuse. The output is still strong and precise, but parts can have slightly higher porosity and may require additional finishing steps. DMLS is widely used in aerospace and medical but also applicable to tooling, particularly when paired with heat treatment to improve density.

Binder Jetting

Binder Jetting builds parts by depositing a liquid binding agent onto layers of metal powder, essentially “gluing” particles together to create the part’s shape. After printing, the part must undergo debinding (to remove the binder) and sintering (to fuse the metal). While binder jetting can be fast and is typically more affordable up front, the final part quality depends heavily on post-processing. It may not be suitable for die-cast tooling without extensive finishing, especially when mechanical strength and thermal resistance are required.

FDM/FFF – fused deposition modeling (metal filament)

FDM printers work by extruding melted filament, layer by layer. In metal printing, this typically means using metal-filled plastic filament. After printing, parts go through debinding and sintering to achieve a metal final part. However, porosity and low resolution make it ill-suited for high-precision, high-strength applications like tooling.

SLA – stereolithography

SLA uses UV light to cure liquid resin into solid layers, producing parts with excellent surface finish and fine detail. However, SLA materials are plastic-based and inherently brittle, making them great for prototyping or patterns—but not for functional die-casting molds.

If you’re producing molds that must endure high pressures, thermal cycling, and long production runs, metal-focused technologies like Laser Powder Bed Fusion (LPBF) or Direct Metal Laser Sintering (DMLS) are far more appropriate.

Comparing metal 3D printing technologies

	LPBF (e.g., LPM)	DMLS	Binder Jetting	FDM/FFF (metal filament)	SLA
Material Compatibility	Tool steels, Inconel, titanium	Tool steels, Inconel	Limited; may require sintering	Basic stainless and bronze	Resin-based plastics only
Precision	High (ideal for tooling)	High	Moderate	Low	Very high (for plastics)
Speed	Moderate	Moderate	Fast	Slow	Fast for small plastic parts
Durability of Output	High	High	Lower (porosity issues)	Low	Low
Cooling Channel Support	Excellent	Good	Limited	None	None
Post-Processing	Moderate	Moderate	High (debinding/sintering)	Very high	High (curing, cleaning)
Use in Tooling	Strong fit	Strong fit	Not typically used	Not recommended	Not recommended
Operating Cost	High upfront, moderate per part	High per part	Moderate material cost, high post-processing	Low printer cost, high material cost	Low to moderate

Operating costs and learning curve

Beyond purchase price and printing method, there are other factors to consider before investing in your 3D printer.

Powder or material costs
Maintenance and downtime
Operator training and software ecosystem
Availability of replacement parts or service

Systems optimized for manufacturing environments tend to offer longer service intervals, more robust training, and better ROI in the long term. These factors have less to do with the machine type and more to do with the manufacturer and quality of the machines themselves. Finding a brand of machine tools that are well known for their quality and ease of use is critical for ensuring long term ROI.

Material choice

While the machine enables the geometry, the material determines performance. For die-casting molds, the powder used must withstand:

Repeated thermal cycling
High clamping pressure
Erosive wear
Long production runs

Understanding Powder Options

Tool steel alloys such as H13 are a common benchmark for die-casting tooling. When selecting a powder, look for:

High hardness and tensile strength
Thermal stability
Reliable powder flowability (for consistent printing)
Compatibility with your chosen printer

Some manufacturers offer proprietary powders designed for 3D printing that match H13 performance. For example, SVM powder is engineered for additive manufacturing and offers tool-grade mechanical properties comparable to H13 while being cost-effective.

Comparing tool-grade powder materials

	SVM (3D Printing Grade)	H13 Tool Steel	Inconel 718	Stainless Steel 316L
Hardness (HRC)	42	45–50	35–45	20–30
Tensile Strength (MPa)	~1,400	~1,400	~1,200	~600
Thermal Resistance	High	High	Very High	Moderate
Wear Resistance	Excellent	Excellent	Excellent	Moderate
Elongation	20%	18–22%	30–40%	40–50%
Cost	$$	$$$	$$$$	$-$$
Applications	Tooling, Die-Casting	Tooling, Die-Casting	Aerospace, High-Temp	Medical, Food, Prototyping

Integration: getting started with metal 3D printing

A successful transition into additive doesn’t just depend on the machine—it’s about workflow integration. Before choosing a system, evaluate:

Training: Does the manufacturer or partner offer operator training?
Software: Is it intuitive? Does it support complex mold designs?
Maintenance & Support: What service programs or warranties are available?
Powder supply chain: Is the material easy to source consistently?

Consider starting with a pilot project or consultation to test print a sample mold and evaluate the workflow firsthand.

Purpose-built for tooling: Sodick’s LPM and SVM solution

While the market offers a wide range of 3D printing technologies, not all are designed with die-casting and mold-making in mind. Sodick recognized the gap—and engineered a solution specifically tailored to the unique needs of toolmakers and high-pressure die-cast operations.

LPM 3D printer: precision and practicality in one system

The LPM325 is a laser powder bed fusion (LPBF) system built from the ground up for industrial tooling environments. From its high-precision laser system to its rigid construction and user-friendly software, every detail supports the real-world requirements of mold makers:

Ultra-fine resolution for detailed geometries and precision-fit tooling
Durable frame and optics designed for continuous industrial use
Integrated support for conformal cooling channels—no need to compromise on mold performance
Operator-focused workflow with streamlined print prep and post-processing

It’s built for teams that need performance and practicality—from first print to full production.

SVM metal powder: high-performance, tool-grade material for additive

Sodick also developed SVM high-performance powder, a tool-grade metal alloy engineered specifically for additive. Comparable to H13, SVM delivers:

Superior hardness and thermal resistance for long-lasting molds
Print-optimized flowability for reliable builds and smooth finishes
Proven endurance—supporting up to 130,000 shots in aluminum die-casting with minimal wear (on average this is 3x the durability of average die cast tooling produced using traditional manufacturing methods)

Choosing the right 3D printing solution for die-casting tooling comes down to balancing performance, cost, and integration. Systems built for tool-grade applications—particularly those using LPBF technology and high-performance powders like SVM—tend to offer the best fit for shops seeking high uptime, mold durability, and complex cooling geometry support.

But the right solution ultimately depends on your throughput needs, design complexity, and budget. Take time to review options, ask for sample prints, and partner with vendors who understand your industry.

Test before you invest

If you’re ready to take the next step but want proof before making an investment, our Additive Parts Lab is here to help. We offer a unique opportunity to test your tooling designs using the LPM printer and SVM powder—before you buy.

Whether you’re evaluating complex mold inserts, conformal cooling performance, or material durability, our team can help you validate results in a real-world production scenario.

Request a test print from our Additive Parts Lab today to get started.

Why 3D printing is transforming die casting tooling

Die casting is a critical manufacturing process for producing large, complex, and high-performance metal components in industries such as automotive, aerospace, and industrial equipment. However, traditional mold-making methods—such as CNC machining and EDM—come with design limitations, shorter mold lifespans, and challenges in achieving optimal part quality.

3D printing is emerging as a new solution in die-casting mold manufacturing, enabling more durable, innovative, and performance-enhancing molds. With advances in additive manufacturing, manufacturers can now overcome design constraints, extend die life, and improve the quality of die-cast parts while maintaining the reliability required for high-performance applications.

This article explores how 3D printing is redefining die-casting tooling and the technological advancements that make it possible.

Why 3D printing is a game-changer for die casting

1. Greater design freedom and engineering flexibility

Traditional mold-making is constrained by machining limitations, particularly when it comes to internal geometries, cooling channel designs, and part complexity. 3D printing removes these barriers, allowing for molds with features that cannot be achieved through conventional methods.

Conformal cooling channels – Unlike drilled cooling lines, 3D-printed molds feature optimized internal pathways that reduce thermal stress and improve part consistency.
More intricate mold features – 3D printing allows for thin walls, complex undercuts, and lightweight lattice structures, improving mold performance.
One-piece mold production – Instead of assembling multiple machined components, 3D printing builds entire mold sections as a single unit, eliminating weak points.

2. Longer-lasting molds with less wear and thermal fatigue

One of the biggest challenges in die casting is mold wear and thermal fatigue due to extreme heat and pressure cycles. Traditional molds degrade over time, leading to frequent repairs or full replacements.

3D-printed molds can offer improved longevity because they allow for optimized heat distribution and stress resistance.

Advanced thermal management – Conformal cooling prevents hot spots that cause premature cracking and thermal fatigue.
Stronger material options – Recent advancements in metal 3D printing materials allow for high-performance alloys that resist wear better than conventional steel.
Fewer failure points – 3D-printed molds eliminate assembly seams, reducing the likelihood of cracks and distortions.

3. Higher-quality cast parts with improved surface finish and integrity

The ultimate goal of die casting is to produce high-quality metal components with excellent mechanical properties and dimensional accuracy. Traditional die-cast molds can sometimes lead to defects such as porosity, warping, or inconsistent cooling effects.

3D printing enables molds that improve the quality of cast parts through advanced thermal and material flow control.

More uniform cooling leads to fewer defects – Properly managed heat dissipation prevents shrinkage porosity, warping, and residual stresses in the cast parts.
Enhanced material properties – 3D-printed molds allow for precision-engineered surfaces that create smoother, stronger cast parts.
Reduced cycle-to-cycle variability – The better thermal balance in 3D-printed molds ensures that every cast part meets tighter tolerances.

Key advancements in metal 3D printing: the role of LPM and SVM

Recent advancements in metal additive manufacturing have made 3D printing a more viable option for die-casting tooling. Technologies like Laser Powder Bed Fusion (LPBF) and specialized high-performance metal powders are helping manufacturers achieve longer-lasting, more efficient molds.

LPM 3D metal printing: precision-built for die casting

One example of these advancements is the LPM325, a laser powder bed fusion (LPBF) system designed specifically for creating ultra-durable die-casting molds. LPBF technology allows for precise, layer-by-layer metal fabrication, enabling intricate mold geometries and enhanced cooling designs that were previously unachievable.

Improved mold durability – The controlled printing process reduces internal defects, leading to more reliable die-casting molds.
Complex internal cooling channels – These help optimize heat dissipation, reducing thermal stress and extending mold life.

SVM high-performance powder: a new standard for 3D-printed dies

A critical component in making 3D-printed molds viable for die casting is the development of high-performance metal powders optimized for additive manufacturing. SVM Powder, for example, is designed to match H13 tool steel properties while offering enhanced hardness, thermal resistance, and wear durability.

Extended mold lifespan – Molds printed with high-performance powders like SVM withstand extreme heat and wear, allowing for more casting cycles per mold compared to conventional steel dies.
More shots per die – In aluminum die casting applications, 3D-printed dies using optimized powders have been shown to last nearly 3X longer than traditional stainless steel dies.

These technological advancements in both printing processes and material development are pushing 3D printing to the forefront of die-casting mold production. By leveraging these innovations, manufacturers can increase efficiency, improve part quality, and reduce the need for frequent mold replacements.

By integrating the latest developments in metal 3D printing, manufacturers are moving toward a new era of die-casting tooling that is more durable, efficient, and capable than ever before.

As metal additive manufacturing continues to evolve, the integration of LPBF technology and high-performance metal powders like SVM is shaping the future of die-casting molds. If you’re interested in learning more about how these technologies can enhance your production process, connect with one of our 3D printing experts.

The 3D printing sector is no stranger to growing pains, but it appears adulthood is approaching. In the last few years, 3D-printed parts have replaced traditional parts in everything from running shoes to cars. Hearing aids, dental guards, and prosthetic limbs are all produced using this technology. Homes are built using specialized 3D printing technology both domestically and abroad. To cope with pandemic supply shortages, it even aided in creating nose swabs, face masks, and critical care ventilators.

Now, we have reached a stage in 3D printing’s development where manufacturers can print with metals. This development allows manufacturers to go from design to complex metal parts faster and easier with more cost efficiency.

What is 3D printing?

The first models of 3D printers for home usage were produced in 2010, but the technology was first developed in the mid-1980s. 3D printing was expected to start a revolution in which the 3D printer would become a staple in every home with the hope that people would start printing everything they needed.

Because the first 3D printer was too sluggish and pricey for the typical customer, the technology never caught on in mainstream society. The printers of the time were limited in the types of objects and shapes they could create. These limits led many people to think that 3D printing was never going anywhere, and while the possibility of 3D printing excited people’s imaginations, the subsequent expectations were never met.

However, now that technology has advanced, certain 3D printers have been successful, especially among manufacturers. They find 3D printing useful for simple and quick prototyping. This use case for 3D printing will become even more common once the techniques for making metal parts become cheaper and faster.

How does 3D metal printing work?

Metal 3D printing is accomplished by focusing a laser onto a thin layer of metal powder, which melts it, and then welding it to the layer below. The layers build up, and the item grows as the digital design takes shape. While this is not the only metal 3D printing method, it is the main process used in manufacturing.

Metal 3D printing offers up new performance possibilities for technical parts in particular. Any unique shape, such as holes, threads, texturing, or connecting parts, can be “built into” the part and printed directly. The entire lead time to manufacturing the finished product can be reduced by weeks.

Additionally, the process of creating the molds or tooling needed to make the final components for injection molding can be expensive and take weeks or even months to complete. With metal 3D printing, this process may be entirely skipped, bringing new levels of efficiency from both a time and a cost standpoint.

Types of 3D metal printing

Metal binding

A glue-like substance is applied to each thin layer of metal powder when using metal binding. The structure takes shape as the alternating layers of glue and powder start to come together. It can take several hours to complete the design with this technique.

The leftover metal powder utilized to support the construction is separated when finished, and the completed product is placed in an oven set at 350 degrees for 34 hours to eliminate any remaining liquid and solidify the binding.

Powder bed fusion

Powder bed fusion is like metal binding, except instead of adhesive, it uses an energy source such as a laser. The laser heats the metal powder in the design, which is then fused and formed into a solid layer. The process repeats until the completion of the entire design.

Directed energy deposition

This technique uses a metal wire or metal powder. Until completion of the design, a nozzle shoots out metal wire or powder in multiple directions. Once finished, a laser or electron beam melts it. This procedure can also create brand-new objects from scratch and fix damaged metal artifacts.

The business case for 3D metal printing

The promise surrounding 3D metal printing has many real-world economic advantages. Applications for 3D metal printing have expanded as a result of the technology’s tremendous development, and its benefit to businesses’ bottom lines has become evident in three ways:

Bringing products to market faster. Reducing the length of the product development cycle with a 3D metal printing procedure helps organizations increase income. Organizations can quickly and economically prototype functional products using a metal 3D printer. With a finalized design, this technology can assist in creating tools, fixtures, and other elements to generate parts quicker.
Conformal cooling reduces time and increases productivity. With conformal cooling in plastic injection molds, cycle times can be reduced by anywhere from 10-40%. Conformal cooling solutions also significantly reduce the total cost of production.
Metal additive manufacturing was designed to consolidate the machining process. Instead of using multiple machines to build and finish a part, metal 3D printing brings all of the necessary processes into one.

For instance, applications in the aerospace industry highlight the possibilities that 3D metal printing brings to a field constantly in demand. Well-known examples include fuel nozzles that have been altered and improved for performance (more lightweight and enhanced durability).

But it goes further than that. Metal 3D printing offers new production opportunities with considerable improvements that enable value creation (innovation and distinction) and value capture, allowing designers and engineers to optimize existing manufacturing operations (optimization and efficiency in time and cost).

The application advantages of metal additive manufacturing can be seen across a wide array of industries and companies, including GE (aerospace), Volkswagen (automotive), Cobra Golf (consumer products), and Parmatech (manufacturing).

How affordable Is 3D metal printing?

While the price of printers has decreased as more advanced models become available, they still require a sizable investment.

That said, they can still be a wise investment, even—or especially—for a small business wanting to launch a new product. With the ability to create more iterations of prototypes and products faster, consolidate the machining process, and bring products to market faster, small businesses can greatly benefit from additive manufacturing.

As engineers understand how to design for 3D printing in manufacturing and gain confidence in the performance characteristics of 3D output, the use cases begin to expand.

3D printing is a revolutionary process that allows you to make three-dimensional objects from plastic, metal, or even ceramic. It’s a form of additive manufacturing, which means it adds layers of material one at a time to build a 3D object.

3D printing technology has been around since the 1980s and has become increasingly popular in recent years. As it becomes more accessible, it’s also becoming an essential part of many industries—from medicine to construction and even food production.

In manufacturing, 3D printers have many purposes: From prototyping new products to creating custom tools and parts on demand anywhere in the world. Aerospace and automotive companies led the charge on adopting the technology with companies like GE and BMW using 3D printing to develop prototypes for new engine parts. This removes a significant amount of cost from Research and Development Budgets.

The advantages of 3D printing make it one of the most promising technologies to enter the manufacturing industry in recent years. Being an additive technology, 3D printing marks a whole new way in which products are created and thus offers many advantages compared to the traditional manufacturing methods.

Advantages of 3D printing—cost cutting

Cost reduction is crucial for any firm, and one benefit of 3D printing is that it will contribute to lower prices. Machine operating costs, labor costs, and material costs are all categories of manufacturing expenses where savings can be realized.

Machine prices

The overall cost of the manufacturing process is mostly accounted for by machine operation costs. Although producing parts in an industrial setting can demand a lot of energy, it is more efficient and faster to develop and produce complicated parts and products all at once. As a result, the savings realized during the manufacturing process more than offset the cost of operating the equipment.

Labor costs

Unlike traditional manufacturing, where a production line is needed to assemble the product or where several workers may be needed to operate a variety of different machinery, each 3D printer requires one human operator to make sure the uploaded design can be automatically created. As a result, labor expenses are far lower than in traditional production.

Materials prices

The variety of 3D printer filaments available is expanding, which has allowed the cost to come down over the past few years. However, the overall cost is significantly reduced as compared to conventional procedures, much like the costs associated with machine operating.

Lower shipping expenses

The ability to shorten the distance that a product must travel is one of the main benefits of 3D printing. Designers can design a product in one nation and email it to another in preparation for manufacturing, all thanks to 3D printers’ ability to build an object from scratch. It is not necessary to build prototypes that must be transported from one manufacturer to another in order to finish the process. Because of this, the 3D printing sector may be developed globally without leaving a trace, reducing shipping, air travel, and ground transportation.

In addition to designing and producing prototypes, it is also feasible to build spare components locally, which can drastically minimize the carbon footprint.

Other advantages Of 3D printing

While cost is a large concern for manufacturers, this isn’t the primary reason that they are turning to 3D printing to create prototypes and products. Other advantages of the technology include:

Less waste And greater sustainability

The typical manufacturing process is mostly a subtractive process, which leads to high costs and waste because raw materials are wasted and reused again. A benefit of additive manufacturing, or 3D printing, is the distinctive way it constructs the object with relatively little waste. Even while garbage from more conventional ways can occasionally be recycled or reused, it still takes time and effort to plan how and when the waste will be used. Due to this, large-scale 3D printing has become a very sustainable choice.

For instance, thermoplastic materials can be melted, cured (cooled until they solidify), melted again, cured again, and so on. As a result, manufacturing “waste” can be recycled, keeping it from ever turning into “waste.”

Shorter lead times

In our fast-paced society, when everything must be completed swiftly, 3D printing can make all the difference. One of the major benefits of 3D printing is that products and parts can be produced much more quickly than they can using conventional techniques. In just a few hours, a complex CAD model can be developed and then turned into a working prototype. This provides design concepts in a way that makes it possible for them to be swiftly validated and fast designed. This is vastly superior to conventional approaches, which might take weeks or months to progress from the design stage to the prototype stage to the actual production process.

Stronger competitive advantage

Businesses can produce better, upgraded, and enhanced products in less time if they can shorten the prototype period. These prototypes also enable early product development and more frequent development until the product is polished and prepared for production, resulting in a highly successful product launch.

With Sodick 3D printers, the competitive advantage of 3D printing is elevated to a new level. Designers are able to rethink the items they develop because they have the opportunity to build a life-size prototype.

Enhanced market research

It takes a lot of research to determine whether a product will be successful, especially when traditional production processes are involved. But by using 3D printing to create a prototype, businesses will be able to get input from prospective customers and investors in a way that has never been feasible before. Traditional manufacturing techniques do not allow for this kind of last-minute customization and modification of the product. Accordingly, 3D printing presents a special and useful method of determining whether a product has the ability to reach the market and be profitable at the same time.

Fewer mistakes

Designers must take efficiency into account while developing parts and products. Traditional manufacturing processes call for a large number of steps to manufacture many parts and products. As a result, every stage carries the potential for error and the possibility of having to start over again, which could cause issues with the manufacturing process as a whole. It is better to create something in a single stage.

One benefit of 3D printing is that it produces the product in a single phase without the need for human engagement. Finish the design, then send it to the printer. This improves control over the finished product by removing reliance on several manufacturing procedures.

Protecting trade secrets

In-house 3D printing and continuous prototyping ensure that designs never leave the company’s walls, protecting your intellectual property. Nobody else will ever claim your innovations as their own. Confidentiality concerns are no longer necessary because every novel design is kept in-house.

Manufacturing on demand

One significant benefit of 3D printing is the opportunity to have complete creative control, even to the point of personalizing designs. Because 3D printing is ideal for one-off manufacturing and producing individual parts in a single step, it implies that the option for customization is available and should be used. As a result of the potential to produce individualized implants and assistance, numerous sectors, including the medical and dentistry fields, have embraced 3D printing and design. For example, athletic equipment may be made to fit certain athletes, allowing for the production of unique, person-specific pieces in ways that have never been done before.

Because traditional techniques relied on molds and cutting, personalizing takes a lot of time. On the other hand, objects generated by 3D printing can be customized to have greater structural integrity, sophisticated alterations done, and pieces adjusted to meet specific specifications. Such customization opens up a world of possibilities for 3D printing.

3D printing is already here, and it’s a game changer

The question isn’t whether or not 3D printing will change the industrial manufacturing landscape (our answer is a resounding yes), but when it will happen. Many industries, such as the automotive and aerospace industries, have already been using 3D printing to manufacture parts for decades. Other industries might not have caught on yet, but that is liable to change. It is predicted that the 3D Printing industry will see compound annual growth in metal printing grow by 24% to reach $44.5 billion by 2026.

That said, the reality is that this technology is currently in its infancy compared to its conventional counterparts. The increasing demand for 3D printed products will spur the growth of this market, especially as companies realize that mass production is a lot more efficient when separated from design.

But that only means that it pays to have both conventional production lines and 3D printing capabilities under the same roof. If you are interested in 3D printing capabilities for your business, contact us to discuss your 3D printing machine requirements.

Buyer’s guide to choosing the best metal 3D printer for die-casting tooling