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Guide to Selective Laser Sintering (SLS) 3D Printing

Selective laser sintering (SLS) 3D printing is trusted by engineers and manufacturers across different industries for its ability to produce strong, functional parts.

In this extensive guide, we’ll cover the selective laser sintering process, the different systems and materials available on the market, the workflow for using SLS printers, the various applications, and when to consider using SLS 3D printing over other additive and traditional manufacturing methods.

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Selective laser sintering is an additive manufacturing (AM) technology that uses a high-power laser to sinter small particles of polymer powder into a solid structure based on a 3D model.  

SLS 3D printing has been a popular choice for engineers and manufacturers for decades. Low cost per part, high productivity, and established materials make the technology ideal for a range of applications from rapid prototyping to small-batch, bridge, or custom manufacturing.

Recent advances in machinery, materials, and software have made SLS printing accessible to a wider range of businesses, enabling more and more companies to use these tools that were previously limited to a few high-tech industries.

Introducing the Formlabs Fuse Series SLS 3D printers, bringing high-performance SLS 3D printing finally within reach.

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Schematic of the selective laser sintering process. SLS 3D printing uses a high-power laser to sinter small particles of polymer powder into a solid structure based on a 3D model.

  1. Printing: The powder is dispersed in a thin layer on top of a platform inside of the build chamber. The printer preheats the powder to a temperature somewhat below the melting point of the raw material, which makes it easier for the laser to raise the temperature of specific regions of the powder bed as it traces the model to solidify a part. The laser scans a cross-section of the 3D model, heating the powder to just below or right at the melting point of the material. This fuses the particles together mechanically to create one solid part. The unfused powder supports the part during printing and eliminates the need for dedicated support structures. The platform then lowers by one layer into the build chamber, typically between 50 to 200 microns, and the process repeats for each layer until parts are complete.

  2. Cooling: After printing, the build chamber needs to slightly cool down inside the print enclosure and then outside the printer to ensure optimal mechanical properties and avoid warping in parts.

  3. Post-processing: The finished parts need to be removed from the build chamber, separated, and cleaned of excess powder. The powder can be recycled and the printed parts can be further post-processed by media blasting or media tumbling.

For the detailed workflow, see the “The SLS 3D Printing Workflow” section below.

SLS parts have a slightly grainy surface finish, but almost no visible layer lines. Media blasting or media tumbling SLS parts is recommended for a smoother surface finish. This example part was printed on a Formlabs Fuse 1+ 30W benchtop industrial SLS 3D printer.

As the unfused powder supports the part during printing, there’s no need for dedicated support structures. This makes SLS ideal for complex geometries, including interior features, undercuts, thin walls, and negative features. 

Parts produced with SLS 3D printing have excellent mechanical characteristics, with strength resembling injection-molded parts.

Sample part

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FDM vs SLA vs SLS: Compare selective laser sintering (SLS) 3D printing to two other common 3D printing processes for producing plastic parts: fused deposition modeling (FDM) and stereolithography (SLA).

Selective laser sintering was one of the first additive manufacturing techniques, developed in the mid-1980s by Dr. Carl Deckard and Dr. Joe Beaman at the University of Texas at Austin. Their method has since been adapted to work with a range of materials, including plastics, metals, glass, ceramics, and various composite material powders. Today, these technologies are collectively categorized as powder bed fusion—additive manufacturing processes in which thermal energy selectively fuses regions of a powder bed.

The two most common powder bed fusion 3D printing systems today are plastic-based, commonly referred to as SLS, and metal-based, known as direct metal laser sintering (DMLS) or selective laser melting (SLM). Until recently, both plastic and metal powder bed fusion systems have been prohibitively expensive and complex, limiting their use to small quantities of high-value or custom parts, such as aerospace components or medical devices.

Innovation in the field has surged recently, and plastic-based SLS is now poised to follow other 3D printing technologies like stereolithography (SLA) and fused deposition modeling (FDM) to gain widespread adoption with accessible, compact systems.

All selective laser sintering 3D printers are built around the process described in the previous section. The main differentiators are the type of laser, the size of the build volume, and the complexity of the system. Different machines use different solutions for temperature control, powder dispensing, and layer deposition.

Selective laser sintering requires a high level of precision and tight control throughout the printing process. The temperature of the powder along with the (incomplete) parts must be controlled within 2 °C during the three stages of preheating, sintering, and storing before removal to minimize warping, stresses, and heat-induced distortion.

Selective laser sintering has been one of the most popular 3D printing technologies for professionals for decades, but its complexity, requirements, and high price have limited its use to service bureaus and large enterprises. 

These machines require special HVAC and industrial power, and even the smallest industrial machines take up at least 10 m² of installation space. Setting them up takes multiple days with on-site installation and training. The complex workflow and the steep learning curve also mean that these systems require a skilled technician in-house to operate and maintain. 

With a starting price of around $200,000 that goes well beyond that for complete solutions, traditional industrial SLS has been inaccessible for many businesses.

Just like with other 3D printing technologies like FDM or SLA, lower-cost, compact SLS systems have recently started to emerge on the market, but initially, these solutions came with considerable trade-offs, including lower part quality and complex, manual workflows resulting from the lack of post-processing solutions, which limited their use in industrial and production settings.

The Formlabs Fuse 1 bridged that gap and created its own category as the first benchtop industrial SLS 3D printer that offered high quality, compact footprint, and a complete, simplified workflow at a fraction of the cost of traditional industrial SLS systems. Now, the next generation Fuse 1+ 30W extends that category with a more powerful laser, improved powder handling features, and new material capabilities for industrial quality parts and high throughput.

The Fuse 1+ 30W requires no specialized infrastructure, and can easily fit into your workspace. 

Fuse Series SLS 3D printers use a single laser and a smaller build chamber that requires less heating. The lower energy consumption means that they can run on standard AC power without requiring specialized infrastructure. An optional nitrogen feature for the Fuse 1+ 30W printer creates an inert gas environment, preserving the quality of the unsintered powder for a lower refresh rate (more recycled powder than new powder in consecutive builds), minimizing waste, and enabling a better surface finish on sintered parts.  

Fuse Series printers also feature a patent-pending solution called Surface Armor—a semi-sintered shell that keeps the area around the parts evenly heated as they print, ensuring great surface finish, consistent mechanical properties, high reliability, and better refresh rates.

To offer a compact, contained ecosystem and end-to-end powder handling, Fuse Series printers also come with the Fuse Sift, which combines part extraction, powder recovery, storage, and mixing in a single free-standing device. 

Overall, benchtop industrial SLS 3D printing with Fuse Series printers offers a slightly smaller build volume compared to the entry-level traditional SLS systems, in return for a substantially smaller footprint, simplified workflow, and lower cost.

Fuse Series: Benchtop Industrial SLS 3D PrintersTraditional Industrial SLS 3D Printers
PriceStarting at $18,500 for the Fuse 1, $28,000 for the Fuse 1+ 30W$200,000-$500,000+
Print VolumeUp to 165 x 165 x 300 mmUp to 550 x 550 x 750 mm
ProsAffordable High-quality parts High throughput Multiple material options Simplified workflow Small footprint Low maintenanceLarge build volume High-quality parts High throughput Multiple material options
ConsSmaller build volumeExpensive machinery Large footprint Facility requirements High maintenance Requires a dedicated operator

The comparison is based on the Formlabs Fuse Series benchtop industrial SLS system and traditional industrial SLS systems by EOS and 3D Systems.

A drill prototype printed on the Fuse 1+ 30W (left) and on an EOS printer (right), with comparable quality but a vastly different machine price point.

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The most common material for selective laser sintering is nylon, a highly capable engineering thermoplastic for both functional prototyping and end-use production. Nylon is ideal for complex assemblies and durable parts with high environmental stability. 

SLS 3D printed nylon parts are strong, stiff, sturdy, and durable. The final parts are impact-resistant and can endure repeated wear and tear. Nylon is resistant to UV, light, heat, moisture, solvents, temperature, and water. 3D printed nylon parts can also be biocompatible and not sensitizing, which means that they are ready to wear and safe to use in many contexts.

Nylon is ideal for a range of functional applications, from engineering consumer products to healthcare.

Nylon is a synthetic thermoplastic polymer that belongs to the family of polyamides. It is available in multiple variants, each tailored to different applications. Nylon 12 Powder and Nylon 11 Powder are single-component powders, while Nylon 12 GF Powder is a glass-filled composite, and Nylon 11 CF Powder is a carbon fiber reinforced composite. These composite materials are developed to optimize parts for higher strength, stiffness, or flexibility. With these two-component powders, only the component with the lower glass transition point is sintered, binding both components.

  • High performance prototyping
  • Small batch manufacturing
  • Permanent jigs, fixtures, and tooling
  • General SLS parts 
  • Impact-resistant prototypes, jigs, and fixtures
  • Thin-walled ducts and enclosures
  • Snaps, clips, and hinges
  • Orthotics and prosthetics*
  • Robust jigs and fixtures and replacement parts
  • Parts undergoing sustained loading
  • Threads and sockets
  • Parts subjected to high temperature
  • Replacement and spare alternatives to metal parts
  • Tooling, jigs, fixtures
  • High-impact equipment
  • Functional composite prototypes

* Material properties may vary based on part design and manufacturing practices. It is the manufacturer’s responsibility to validate the suitability of the printed parts for the intended use.

MaterialsNylon 12 PowderNylon 11 PowderNylon 12 GF PowderNylon 11 CF Powder
Ultimate Tensile Strength X (MPa)50493869
Ultimate Tensile Strength Y (MPa)N/AN/AN/A52
Ultimate Tensile Strength Z (MPa)N/AN/AN/A38
Tensile Modulus X (MPa)1850160028005300
Elongation at Break, X/Y (%)114049 / 15
Elongation at Break, Z (%)6N/A35
Notched Izod (J/m)32713674

SLS 3D printing accelerates innovation and supports businesses across a wide range of industries, including engineering, manufacturing, and healthcare.  

Take control of your entire product development process, from iterating on your first concept design to manufacturing ready-to-use products:

  • Rapid prototyping
  • Mockups of products for in-field customer feedback
  • Functional prototyping
  • Rigorous functional testing of products (e.g. ductwork, brackets)

Own your supply chain and respond quickly to changing demands:

  • End-use part production
  • Small batch, stop-gap, and bridge manufacturing
  • Mass customized consumer products
  • Replacement parts, aftermarket parts, spare parts
  • Long-lasting, durable manufacturing aids, jigs and fixtures (e.g clips and clamps) and tooling
  • Custom automotive or motorcycle parts, marine equipment, military ‘resupply on-demand’

Manufacture ready-to-use, patient-specific medical devices in-house:

  • Medical device prototyping
  • Prosthetics and orthotics (i.e. limb replacements + braces)
  • Surgical models + tools
  • End-use parts (Nylon 12 Powder is biocompatible + compatible with sterilization*)

* Material properties may vary based on part design and manufacturing practices. It is the manufacturer’s responsibility to validate the suitability of the printed parts for the intended use.

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This white paper showcases the cost-dynamics for real-life use cases, and presents guidelines for using SLS 3D printing, injection molding, or both.

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Watch this video to see the step by step process of using the Fuse 1 selective laser sintering (SLS) 3D printer and the Fuse Sift powder recovery station.

Use any CAD software or 3D scan data to design your model, and export it in a 3D printable file format (STL or OBJ). Each SLS printer includes software to specify printing settings, orient and arrange models, estimate print times, and slice the digital model into layers for printing. Once setup is complete, the print preparation software sends the instructions to the printer via a wireless or cable connection.

Fuse Series printers use PreForm print preparation software (free to download) that allows you to seamlessly duplicate and organize multiple parts within a 3D grid to use as much of the build space as possible for a single print. PreForm automatically suggests optimal orientation and part packing, with the ability to manually refine as needed.

The workflow for preparing the printer varies by system. Most traditional SLS systems require extensive training, tools, and physical effort to prepare and maintain. 

Fuse Series printers reimagine the SLS workflow for simplicity and efficiency, with modular components to enable nonstop printing and end-to-end powder handling.

On Fuse Series printers, you can load powder easily using the powder cartridge. 

Fuse Series printers use a removable build chamber so you can run another print while a previous one is still cooling.

Once all preprint checks have been completed, the machine is ready to print. SLS 3D prints can take anywhere from a few hours to multiple days depending on the size and complexity of parts, as well as the part density.

Once the print is finished, the build chamber needs to slightly cool down in the print enclosure before moving to the next step. After that, the build chamber can be removed and a new one inserted to run another print. The build chamber has to cool down before post-processing to ensure the optimal mechanical properties and avoid warping in parts. This may take up to half of the print time.

On Fuse Series printers, the touchscreen displays a live stream of the print bed during printing so you can watch each new layer take shape. This camera view is also available from your computer in PreForm so you can monitor your print without leaving your desk.

Post-processing SLS parts requires minimal time and labor compared to other 3D printing processes. It is easily scalable and yields consistent results for batches of parts thanks to the lack of support structures.

After a print job is complete, remove the finished parts from the build chamber, separate them, and clean them of excess powder. This process is typically completed manually at a cleaning station using compressed air or a media blaster.

Any excess powder remaining after part recovery is filtered to remove larger particles and can be recycled. Unfused powder degrades slightly with exposure to high temperatures, so it should be refreshed with new material for subsequent print jobs. This ability to re-use the material for subsequent jobs makes SLS one of the least wasteful manufacturing methods.

A common theme in the SLS industry is to offer separate devices for reclaiming, storing, and mixing powder. In the Fuse Series workflow, a single device, Fuse Sift, handles the extraction of parts and unsintered powder, as well as storing, dosing, and mixing of streams.

For Fuse Series printers, Fuse Sift completes the SLS printing workflow. It offers a safe and efficient system for extracting prints and recycling powder.

Fuse Sift can dispense and mix used and new powder automatically so you can reduce waste and control your powder supply.

SLS 3D printed parts are ready to use after sifting. However, there are several other post-processing steps that you might consider for selective laser sintered parts.

By default, SLS 3D prints have a grainy finish. Formlabs recommends media blasting or media tumbling SLS parts for a smoother surface finish. Parts may be spray painted, lacquered, electroplated, and coated to achieve different colors, finishes, and properties, for example, watertightness (coating) and conductivity (electroplating). Formlabs SLS parts are dark in color, so they are not ideal for dyeing.

SLS part with hydrographics from Partial Hand Solutions.

SLS parts can be electroplated for a metal-like finish.

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Engineers and manufacturers choose selective laser sintering for its design freedom, high productivity and throughput, low cost per part, and proven, end-use materials.

Most additive manufacturing processes, such as stereolithography (SLA) and fused deposition modeling (FDM), require specialized support structures to fabricate designs with overhanging features.

Selective laser sintering does not require support structures because unsintered powder surrounds the parts during printing. SLS printing can produce previously impossible complex geometries, such as interlocking or moving parts, parts with interior components or channels, and other highly complex designs.

Hand splint designed with a complex pattern to reduce weight.

Engineers generally design parts with the capabilities of the final manufacturing process in mind, also known as design for manufacturing (DFM). When additive manufacturing is used for prototyping alone, it is limited to parts and designs that conventional manufacturing tools can ultimately reproduce during production.

As selective laser sintering becomes a viable rapid manufacturing method for an increasing number of end-use applications, it has the potential to unleash new possibilities for design and engineering. SLS 3D printers can produce complex geometries that are impossible or prohibitively costly to manufacture with traditional processes. SLS also empowers designers to consolidate complex assemblies that would normally require multiple parts into a single part. This helps alleviate weak joints and cuts down on assembly time.

Selective laser sintering can take generative design to its full potential by enabling lightweight designs that employ complex lattice structures impossible to manufacture with traditional methods.

SLS printing is the fastest additive manufacturing technology for functional, durable prototypes and end-use parts. The lasers that fuse the powder have a much faster scanning speed and are more accurate than the layer deposition methods used in other processes like industrial FDM.

Multiple parts can be tightly arranged during printing to maximize the available build space in each machine. Operators use software to optimize each build for the highest productivity leaving only minimal clearance between parts.

SLS allows operators to pack the build chamber with as many parts it can fit and print them without supports to save time in post-processing.

The key to SLS 3D printing’s functionality and versatility is the materials. Nylon and its composites are proven, high-quality thermoplastics. Laser-sintered nylon parts have close to 100 percent density with mechanical properties comparable to parts created with conventional manufacturing methods like injection molding.

Drill assembly printed in Nylon 12 Powder. Nylon parts can be easily post-processed to achieve smooth, professional surface finishes.

SLS nylon is a great substitute for common injection molded plastics. It offers superior snap fits and mechanical joints compared to any other additive manufacturing technology. It is ideal for functional applications requiring plastic parts that will last where parts produced with other AM methods would degrade and become brittle over time.

Calculating cost per part usually requires accounting for equipment ownership, material, and labor costs:

  • Equipment ownership: The more parts a machine can produce over its lifetime, the lower the costs attributable to each individual part. Consequently, higher productivity leads to lower equipment ownership costs on a per-part basis. Given the fast scanning speed of the laser, the nesting of parts to maximize build capacity, and simple post-processing, SLS 3D printing offers the highest productivity and throughput of all plastic additive manufacturing techniques.

  • Material: While most 3D printing technologies use proprietary materials, nylon is a common thermoplastic produced in large quantities for industrial purposes, making it one of the least expensive raw materials for additive manufacturing. As SLS 3D printing doesn’t require support structures and allows for printing with recycled powder, the process produces minimal waste.

  • Labor: The Achilles heel of many 3D printing solutions is labor. Most processes have complex workflows that are hard to automate, which can substantially influence the cost per part. The simple post-processing workflow of SLS printing means less labor is required and the process is easy to scale.

An SLS 3D printer represents a substantial initial investment, but it can often recoup the initial investment even faster than smaller machines. Benchtop SLS significantly reduces this barrier to entry and also the per par cost for most applications.

Outsourcing production to service bureaus is recommended when your business requires 3D printing only occasionally, but it also comes with higher costs and long lead times. One of the greatest benefits of 3D printing is its speed compared to traditional manufacturing methods, which quickly diminishes when an outsourced part takes a week or even multiple weeks to arrive.  

CostLead Time
Service Bureau$118.337-10 days
Fuse 1+ 30W$9.0213 hours

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Selective laser sintering enables engineers to prototype parts early in the design cycle, then use the same machine and material to produce end-use parts. SLS 3D printing does not require the same expensive and time-consuming tooling as traditional manufacturing, so prototypes of parts and assemblies can be tested and easily modified over the course of a few days. This drastically reduces product development time.

SLS 3D is ideal for creating durable, functional prototypes that are ready to undergo rigorous functional testing or to ship to customers as replacement parts or products that are ready to use.

Given its low cost per part and durable materials, SLS 3D printing is an economical way to produce complex, custom parts, or a series of small components for end products. In many cases, laser sintering is a cost-effective alternative to injection molding for limited-run or bridge manufacturing.

Until now, industrial SLS 3D printers have been prohibitively costly for most businesses, with a single machine running over $200,000.

With the Fuse 1+ 30W, Formlabs is bringing the industrial power of selective laser sintering to the benchtop, offering high-performance materials at the lowest cost per part, with a compact footprint and simple workflow.

A new wave of independent manufacturing and prototyping starts now with the Fuse 1+ 30W.

See the Fuse 1+ 30W Benchtop Industrial SLS 3D Printer

Selective Laser Sintering (SLS) Overview

SLS Applications

SLS uses production-grade nylon materials, resulting in durable, functional parts that last, rivaling parts produced using traditional manufacturing methods.
The robustness of SLS makes this technology great for:

SLS Material Properties & Uses

Our SLS materials include a wide range of advanced nylon and composite materials consisting of superfine particles <100 nm in diameter.

The materials available for SLS enable uses ranging from impact-resistant plastics to styrene-based options that are great for plaster and metal castings. SLS is frequently chosen for low- to mid-volume end-use parts like enclosures, snap-fit parts, automotive moldings, and thin-walled ducting. Some of our SLS engineering plastics are made with flame-retardant materials, enabling them to answer aircraft and consumer product requirements. Glass-filled materials are also available, offering greater stiffness and heat resistance, as well as  fiber-reinforced plastic for ultimate stiffness. SLS also includes material options on the other end of the spectrum, for rubber-like flexible parts, enabling applications like hoses, gaskets, grip padding, and more.

Watch the SLS Materials Video

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SLS Printers

We offer an integrated solution for SLS including hardware, software, and fine-tuned nylon and composite materials that to deliver robust, high-resolution parts at high throughput. The surface finish, resolution, repeatability, and accuracy of SLS enable increased manufacturing agility with a low total cost of operations.

Our SLS printers use 3D Sprint® software, an all-in-one software for plastic printing that brings increased productivity and quality to SLS production without the need for additional third-party software. 3D Sprint provides tools to prepare and optimize CAD data, and manage the printing process including automatic high-density 3D nesting, quality checks for pre-build verification, repair options, print queue tools for efficient build planning, a cage structure generator for small parts enclosure, and more. Our SLS printers range from medium to large frame, with different build volumes, levels of automation, and a large variety of materials.

Our SLS 3D printers offer a range of build volumes and price points.

Compare Build Volumes

SLS 380
381 x 330x 460 mm (15 x 13x 18 in) build volume

sPro 140
550 x 550 x 460 mm (22 x 22 x 18 in) build volume

sPro 230
550 x 550 x 750 mm (22 x 22 x 30 in) build volume

✕

SLS 380

Industrial-scale, process controlled additive manufacturing solution for selective laser sintering

sPro 140

High repeatability and throughput of SLS production parts

sPro 230

Large capacity SLS printer for high throughput of tough and durable thermoplastic parts

Why Use Selective Laser Sintering?

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(Solution available) Is there a grease that can be used for both linear bearings and bronze sinter bushings and threaded rods?

My printer will be equipped with LM8UU bearings/threaded rods for the z axis and bronze sinter bushings for the x and y axes.

As well, but not only, it is written here http://reprap. org/wiki/Lubrication, I know what to do:
- use machine oil for agglomerate bearings, if anything at all,
- grease on the "fluid" side for linear bearings so that the grease stays evenly with the balls on the top and bottom sides
- and probably PTFE grease for threaded rods (as provided by Ultimaker UM2 for example).

Is there a way to unify this or at least use only two lubricants?
I have no idea about lubricants, I wouldn't know what to actually buy if it was a combination of eg machine oil and a low viscosity lubricant. Do you have specific recommendations for what to avoid?

▲ 3

A medium weight PTFE grease like the popular Superlube will work in all the applications you mention (bearings, screws and sintered bushings). The operating conditions of 3D printers are quite light in terms of lubricants. You really just need everything to be a little "wet" with oil or grease and performance will be adequate.

The main disadvantage of using grease with sintered bushings is that they are likely to no longer be "self-lubricating" after the first exposure. The lubricant tends to clog pores, which allows the factory oil treatment of the sintered bushings to maintain a good oil film on the sliding surfaces. Therefore, the bushings will forever require regular re-lubrication, just like ball bearings and a threaded rod.

By comparison, a light machine oil such as 3-in-1 will retain the self-lubricating properties of sintered bushings, but will require very frequent refills when used in ball bearings and screws. And it's certainly an option - oil DOES work on bearings and screws - but the chances are good that you end up over-greasing the bearings, getting drips on the build plate, and banging your head against the wall trying to figure out why your prints won't suddenly stick. Lube doesn't need to be applied as often and tends to stay where you put it instead of dripping. So lube is usually preferred over oil if you only have to choose one lube.

Again, the most important thing is that the sliding and sliding surfaces of be something wet . You will just have different service options with different options.

, @ Ryan Carlyle

▲ 0

I needed to oil my car and didn't have access to specialty supplies. So I did some research and ended up using Vaseline.

I now have a small tub with it as part of my car maintenance kit.

, @ Cris Thompson

▲ 0

As for me... I used the oil I use to lubricate my trombone slide!

, @ Mark Ward

VIA ALTA | Novinky

Project CHITEC - Equipment for the production of nano-electrified programmable layered structures

VIA ALTA is implementing another project in cooperation with VUT Brno and other foreign partners, which was supported by the Czech Technological Agency. The project will focus on the development of a new nanotechnological device.

VIA ALTA team

more than

POLYBET technology received the title of Visionary 2021

Our POLYBET technology was awarded the title of Visionary 2021. You can find out more about the awarded projects in 2021 here: https://czechinno.cz/soutez-vizionari- vyhlasila-nejlepsi-inovativni-projekty-i-osobnost-roku-2021/.

more than

Technological line for the production of ameliorative restorative materials is protected by a utility model.

The Industrial Property Office has issued a utility model for a production line for the production of remediation and restoration materials from waste, by-products and recycled materials.

more than

VIA ALTA once again confirmed its compliance with ISO

standards As part of the supervisory audit, the auditor BUREAU VERITAS CERTIFICATION CZ, s. r.o. the compliance of our activities with ISO 9001 - Quality Management System and ISO 14001 - Environmental Management System standards was checked and certification was confirmed.

more than

VIA ALTA will present the new MULTIFERM at TVIP 2021

As part of the Week of Research and Innovation for Practice and the Environment - TVIP, which will take place on an alternative day from 19until October 21, 2021, again in Hustopeč u Brna, we will present our solution for the joint management of BRO, gastro-waste and sewage sludge.

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VIA ALTA is part of the new Kaloman project

Last week there was a kick-off meeting for a project called Kaloman that addresses the issue of sewage sludge, especially the treatment of this waste for later use.

more than

Our frame 3D printer prints elements for the parkour area.

In cooperation with Stavební spořitelna Česká spořitelna and 3Deposition, elements of the parkour playground are created on a 3D frame printer developed by us.

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Industrial agglomeration extruder and belt dryer for drying light materials

Industrial sinter extruder and belt dryer for drying light materials University of Brno under the project "Development of a dryer for the disposal of sewage sludge". The meeting mainly discussed the concept of a laboratory dryer, which will be used for hypothesis testing and testing.

more than

Roof tested for reaction to fire

Polidach roof has an additional qualification in the building technical passport. Now the tests were focused on the reaction of the fire.

over

VIA ALTA has developed a prototype laboratory extruder.

A prototype laboratory extruder was developed specifically for melting waste thermoplastics. The extruder is currently testing various materials for fusibility, and based on the results, an industrial plant with many times higher productivity will be designed.

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VIA ALTA a.s. starts research and development of the sewage sludge dryer

In cooperation with the Faculty of Agriculture of the Mendel University in Brno and the Faculty of Chemistry of the Brno University of Technology, we started the research and development of the sewage sludge dryer.

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Rotating nozzle protected by utility model

VIA ALTA a.s. worked on a utility model. together with the Faculty of Mechanical Engineering of the Brno University of Technology within the framework of the project "Research and development of a 3D printer for use in construction".

more than

First results of certification tests of our Polydach roofing

The first certification tests carried out in an accredited testing laboratory in Brno as part of the issuance of a building technical certificate showed satisfactory criteria for our Polydach roofing materials.

more than

Successful FAT tests of POLYBET technology for a Polish customer

Factory acceptance tests (FAT) were successfully completed at the end of last year.

more than

VIA ALTA is protected by trademark

The Industrial Property Office of the Czech Republic issued a trademark registration certificate for VIA ALTA, which is now registered in the trademark register under number 382822.

more than

VIA ALTA publishes the results of its research in the journal WASTE FORUM

Everything VIA ALTA does is based on research and development. You can read more about our research in the WASTE FORUM magazine, where we published an article about new useful properties of the composite we developed.

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New official address of VIA ALTA a.s.

From July 24, 2019, the new official address of VIA ALTA a.

Learn more