Axisproto is Trusted By Engineers And Manufacturers Across Different Industries

Axisproto is Trusted By Engineers And Manufacturers Across Different Industries

Do you have a metal design in mind that you think is impossible to build? Let us turn your ideas into reality with our DMLS 3D printing service. 

This technology offers exceptional strength and functionality, allowing us to produce high-quality parts, with 99%+ density. Our team will engage with you at any stage of your product development and perform the necessary technical procedures to help you build an outstanding final metal part. 


Get a quote

What is Direct Metal Laser Sintering?

Direct Metal Laser Sintering or DMLS for shortis a 3D laser-based additive manufacturing method. It consists of creating metal additively by sintering fine metal powders, to fuse them together locally. This 3D printing technology allows to create fully dense metal parts, with no upfront setup or tooling costs. 

DMLS technology is suitable for producing meticulous metal parts, with exceptional mechanical properties and precision. With the help of our metal experts, we deliver highly precise metal parts with complex features, using high-calibre DMLS machines and a variety of materials. 

Contact Our Experts to See How You Can Use DMLS in Your Industry

Direct Metal Laser Sintering (DMLS), How Does It Work?



The first step is to create a digital 3D model of the part that has to be printed, using a Computer-Aided Design (CAD) software and STL file. The technician uses this 3D model to properly align the geometry and add support structures. The digital model is then loaded into a slicing program that will analyze it and create instructions that the 3D printer will use to build the finished part layer-by-layer. 


Support Structures

Support structures are often used to anchor the part to the build platform, and draw some heat away to allow for stable, controlled cooling, and prevent warping. DMLS parts move around in the build envelope if not properly secured to the build platform. This movement  can cause failures in part accuracy and could potentially lead to machine crashes. 

Furthermore, complex designs require more support as they may contain more arches, curves, large holes and overhangs. Nevertheless, using support structures does not impact the quality of the print. They are made from the same material as the part and will be manually clipped off in post-processing, leaving no marks in the final printed part. 


3D Printing

The print run is now initiated. This step begins with heating the build chamber to just below the material’s melting point and filling it with inert gas in order to prevent the oxidation of the metal powder and preserve the quality of the metal. Similarly to the SLS process for plastics, a thin layer of powder is then spread across the building area. 

Following the points defined by the CAD model, a powerful laser in the 3D printer starts to sinter the powder. Once the first layer of the 3D printed part is done, the build platform lowers itself by one layer height and the recoater blade moves across the platform to deposit the next layer of powder into the inert build chamber. 

The process of distributing the metal powder, evenly, through the build platform and the laser sintering the powder into solid, is repeated until the part is completed. 



After the build process is done, the part needs to cool down to room temperature. Removing the loose powder, manually, follows. The excess of powder can be reused in future printing operations, minimising the waste of materials. 

Before detaching the part, the appropriate heat-treat cycle is administered to relieve any stresses. The final steps include removing the part from the build plate, then removing support structures. 

The final metal piece may need to undergo varying levels of finishing like bead blasting and deburring for function and esthetic requirements, because the printing process creates parts with grainy surface texture. 

3D Metal Printing Applications

Direct Metal Laser Sintering (DMLS) is revolutionizing many industries because it can produce customized parts with few restrictions to geometrical designs. Unlike CNC machining or casting, our DMLS printing service is very advantageous as it allows our clients to have design freedom and build parts in a shorter time.


Strict thermal, weight reduction and complex, dense parts are all requirements in Aerospace industries. These requirements are easily achievable with the DMLS printing technology. From Aircraft Rapid Prototyping to Spacecrafts and Rockets manufacturing, Direct Metal Laser Sintering (DMLS) allows to build intricate, incredibly durable, consistent and cost-effective metal parts that are difficult or impossible to fabricate with other manufacturing methods.

Components of satellites and rockets must perform consistently at high temperatures. Our DMLS machines are capable of producing flight-qualified, end-production parts for aerospace applications.

Get Started


Prostheses and Implants

DMLS technology is used in the fabrication of human implants directly from computer-aided design (CAD). It helps meeting the patient’s specific anatomic needs which reduces the risk of problems normally caused by ill-fitted implants. Customization of parts is a great benefit provided by DMLS technology.

Custom implants make the surgery less complex and reduce the need for secondary revision procedures such as flap repositioning. Moreover, CAD surgeries have the potential not only to reduce surgical time, but also, to reduce prosthesis-related complications. Direct Metal Laser Sintering (DMLS) has proven to be a useful way to build prostheses for major reconstructive surgeries.

Get Started


Components and Antennas

Waveguide-based components and antenna-feed chains are complex radio-frequency assemblies, used in applications such as imaging, satellite communications, navigation and earth observations. DMLS technology offers advantages in terms of the realisation of complex shapes, lighter weights, through hollow or lattice structures, with enhanced structural strength.

Microwave and antenna engineers can now use DMLS printing technology to design waveguide-based components, with high levels of efficiency and accuracy. This technique offers the flexibility to fabricate complicated microwave structures and antennas with good reliability and high precision.

Get Started



Due to a wide range of applications, materials, flexibility and low complexity in the manufacturing process, DMLS technology is transforming the automotive industry. This 3D printing method contributes in speeding up the design phase since it’s used in early stages to create miniatures components. This process enables testing of forms and functionalities for designers.

Using DMLS manufacturing technology in the automotive industry not only allows producing advanced designs and shapes, but it also raises the capabilities to produce consolidated, durable parts in a very short time. Optimized geometry enables a weight reduction in the final part which is required in producing cars with an internal combustion engine.

Get Started



Following the patient’s dentition and oral anatomy, strong and durable bridges, crowns, partial dentures, and dental prosthetics can be custom-made, using DMLS. This technology guarantees a density of 99+ % which makes dental prosthetics highly accurate and very consistent. Besides being moderate in weight, computer-aided design (CAD) precision gives excellent fitting, high strength and rigidity, allowing a secure crown fixing.

Compared to conventional casting procedures, DMLS allows dental technicians to dramatically increase the number of crowns and bridges created in 24 hours, with higher quality and efficiency. This means that, for the dentist, time is reduced in both the chair side and the dental laboratory.

Get Started


Rapid Prototyping

Rapid prototyping is used to test the efficiency of a part and validate the final design and manufacturing. Direct Metal Laser Sintering (DMLS) technology is perfect for building fully dense metal parts while creating a time advantage. Moreover, it offers design freedom in the case of complex structures and improves the functionality of the prototypes, which would not have been possible with conventional prototyping methods.

Furthermore, DMLS can be used for rapid tooling, printing versions of the model at different design stages, and being able to test and optimize the tool much faster. Rapid tooling helps reduce development and production steps, which leads to faster time-to-market and lowers costs.

DMLS Materials

Are you looking for the perfect metal 3D printing material for your project? We provide you with some of the best materials, excellent for DMLS printing technology and ideal for tooling applications across many industries.

LPW 155 Stainless Steel
Used in medical applications and for complex tooling inserts, this stainless steel material is tough and resistant to heat and oxidation, making it ideal for functional prototyping and manufacturing small series products. Parts show a fair corrosion resistance and excellent mechanical properties. These features make the material suitable for producing solid parts in several industries. Compared to other metal 3D printing materials, Stainless Steel remains the smoothest one. Is this the ideal material for a product you have in mind?

Enquire about Using 3D Printed Stainless Steel for your Project


LPW M300 Tool Steel
Employed in direct manufacturing of heavy duty injection molds and inserts, and for moulding thermoplastics, maraging steel allows for high precision metal prototypes resulting in greater cost and time savings. It is also used for high performance industrial and engineering parts, for example in aerospace and motor racing applications.
M300 Tool Steel has excellent mechanical properties and is easily heat-treatable. It is characterized by its excellent strength and high toughness. Do you need a bespoke Tool Steel part for your project?

Enquire about Using 3D Printed Stainless Steel for your Project

DMLS Advantages

  • Speed: Speed is an important aspect of the design and manufacturing process. Compared to traditional manufacturing methods, DMLS is a very quick printing process. This technology is very suitable for rapid prototyping as it allows speeding up the prototyping process and giving customers the chance to modify designs more efficiently.


  • Stronger Parts: Characterized by their strength and functionality, DMLS parts are just as durable as traditionally manufactured parts. Densities of 99%+ can be achieved through the DMLS process while maintaining part strength and uniformity.These parts can withstand high stress environments, and can be used for many applications like tooling, fixtures, bracketing, and jigs.


  • Complex Geometries: Unlike traditional manufacturing methods, DMLS printing technology offers nearly unlimited design potential. It enables to build internal and external features accurately, such as, free-form surfaces, deep grooves and three-dimensional cooling channels, that could not be cast or otherwise machined. 


  • Cost and Weight Reduction: DMLS printing process is capable of reducing the part weight while maintaining the required strength. Thanks to its single step manufacturing process, this 3D metal printing method saves time associated with using different machines or manufacturing. No tooling or equipment setup means less input production, which helps increase production efficiency. 


  • High Accuracy and Superior Quality: DMLS bypasses the standard metal prototype limitations of CNC and investment casting. Parts produced using the technology are strong and dense, making them ideal for field testing and engineering evaluation. DMLS is a very reliable technology when it comes to producing consistent, high quality parts. Thanks to the accuracy of precision lasers, each cut perfectly matches the CAD design. 


  • Waste Minimization: DMLS printing process is considered to be environmentally friendly when compared to conventional manufacturing processes, which confers many potential applications in diverse industrial sectors, such as automotive, aerospace and biomedical. This technology guarantees minimal waste and decreased material costs as it only uses the material required to build the part. It also offers the possibility to reuse the metal that was not sintered. 


  • Fine Feature Details: Thanks to its layer-by-layer design process, DMLS technology allows to create internal features very difficult to construct otherwise. It can build hollowed geometries and open lattice to replace solid structures within a part with the goal of maximizing performance while minimizing material and weight.

Are you looking to implement any of these advantages into your future projects to build stronger, faster and more accurate items with minimized waste? Talk to our experts on how we can help you starting today.


Talk to us about giving you the upper hand in your industry using DMLS

Why Choose Our Outstanding DMLS 3D Printing Service?

The goal of our company is to meet the needs of our clients in the time frame required. Therefore, we provide you with bleeding-edge technologies, offering you a new way to design, develop and manufacture your products. Thanks to our expertise in DMLS technology, we can find solutions according to each client specifications.

Direct Metal Laser Sintering (DMLS) is an effective production choice for delivering complex designs with top quality and precision. This technology eliminates the costs and time needed to produce accurate, fully dense, high definition metal parts, allowing to accelerate the qualification and optimize stages of product development.

Currently, Axis operates an EOS M270 metal sintering machine that can produce customized metal objects and end-use applications. With the help of our 3D metal printing experts and the use of this high-performing machine, we are capable of delivering incredible, highly detailed functional parts, more quickly while eliminating time-consuming tooling, which was not possible with traditional manufacturing methods.

If you require the production of a fully dense metal part, with complex design, then DMLS technology is perfect for you. Let us help you with the 3D printing process and get your product out in the market as soon as possible.



Our clients

Over the last 5 years, we have worked with Axis on several mandates of varying complexity. As a business, their capability and execution are exemplary. As a partner, they are knowledgeable, supportive and passionate about the projects they take on. We have been excited to grow our relationship with them in the high regards.

Large Food Storage Manufacturer and Distributor

We would like to thank you for your excellent and rapid services.

Designer and manufacturer of safety products

AXIS is an excellent provider of Rapid Prototyping services. They have always delivered a quality product at a low cost.

Manufacturer of construction tools

Very impressed with the transfer of data and quality of the parts from AXIS.

Manufacturer of public spectator seating

Parts were delivered on time and in perfect shape.

Important entertainment and lighting control manufacturer

Axis Prototypes is a great supplier to work with. They provided more than enough information to make an informed decision on alternatives.

Major US Manufacturer of Fabricated Steel Products

Our customers are addicted to the quality and service that AXIS provides. Over the last 8 years, we’ve built garden tools, mobile computers, beer taps, and prosthetics. We’ve constantly demanded more from our prototypes, and Axis has responded by adding new materials, new equipment and new knowledge. Axis is essential to our business.

Leading Canadian design firm

Once again you have taken top spot. I will never take quotes from any other supplier, due to your outstanding performance. Over and over, your team at Axis has made me shine. Thank you for your excellent support.

Automotive mold and engineering firm

Axis Proto has won our hearts and we can see why your firm came recommended to us. Without a doubt Axis Proto takes it's business serious and quality. Thank you in the highest manner

Human lifestyle innovation company