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Poland
1-10 Employees
2019
Biocompatible, Skin contact, fire-retardant, glass filled versions available. Heat Deflection Temperature:standard 176°[email protected] and up-to 189°C for CF version. Choose your material, technology, color, and surface finish. Pay with a credit card, bank transfer, proforma, or request delayed payment terms. With SLS you can print as big as 300x300x560mm.
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Featured
Selective Laser Sintering
... Selective laser sintering is an additive manufacturing technique that uses a laser as the power and heat source to sinter powdered material, aiming the laser automatically at points in space defined by a 3D model, binding the material together to create a solid structure. ...
New Sharon, United States
11-50 Employees
2011
RP America began life as an organization solely dedicated to servicing additive manufacturing equipment for businesses. Founded on our Midwestern values, our experience in additive manufacturing technology led us to realize that we could provide more value to our clients by guiding them toward the best equipment, software, and accessories to meet their needs. We understand how to help companies derive the greatest benefit from their additive manufacturing investment. With valuable insight into the right tools to accomplish a variety of manufacturing objectives, we give customers the flexibility they need to create innovative solutions efficiently and with minimal waste. Our mission is to be the most respected service-first provider in the additive manufacturing industry.
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Industrial Selective Laser Sintering (SLS) 3D Printers
... Industrial Selective Laser Sintering (SLS) 3D ...
Modlniczka, Poland
11-50 Employees
2017
Jesteśmy w stanie zrealizować nawet najbardziej nietypowe pomysły. W tym etapie przeprowadzana zostaje analiza projektu, w której zwracamy szczególna uwagę na zasadność rozwiązania, rozwiązania konstrukcyjne, możliwość optymalizacji konstrukcyjnej części, zastosowane materiały, środowisko pracy czy specyficzne wymagania do produktu. Wynikiem tego etapu jest szczegółowy raport na bazie którego mogą zostać realizowane kolejne kroki. Po wnikliwej analizie i uzgodnionych zmianach konstrukcyjno-technologicznych pod technologie przyrostowe, wytwarzane zostają prototypy do oceny słuszności z pierwotnym założeniem. Ten etap pozwala zweryfikować założenia oraz ocenić w sposób laboratoryjny i rzeczywisty produktu, które poddane zostały procesowi.
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Featured
3d printing SLS: selective laser sintering
... 3d printing SLS: selective laser sintering | Fibometry: additive manufatuting ...
Singapore, Singapore
11-50 Employees
Our team is dedicated to build prototypes from your designs, 3D models or even simple drafts. Our engineering team will ensure precision and quality of your prototypes. We use both the latest additive and conventional prototyping technologies together with a wide range of materials. We produce your design and ship them as fast as in 24h. Our moto: we say what we do and do what we say.
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Featured
Selective Laser Sintering
... Selective Laser Sintering ...
Hangzhou City, China
1-10 Employees
2017
Zekes3D is founded in Hangzhou, China, by Robin Shakya. We are a small team of 20+ members from different countries super passionate about 3D printing technology and collaborating with vetted companies to bring you the quality you need from prototyping to production. According to Fortune Business Insights, 3D printing, commonly known as Additive Manufacturing (AM), was valued at USD 15.10 billion in 2021 and is expected to expand at a compound annual growth rate (CAGR) of 24.3% from 2022 to 2029, mostly adopted for prototyping applications in various industries and working concepts. Now it is possible to do low–scale production at a much lower price and faster than traditional manufacturing, making agile product development and lean manufacturing possible. The printing process dramatically reduces material waste, unlike subtractive manufacturing methods. Production on demand allows you to minimize inventory cost and space. Suitable for prototyping, low volume production, tooling, and customization. Suitable for rapid prototyping, production, tooling, and customization.
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Featured
Selective Laser Sintering (SLS)
... Selective Laser Sintering (SLS) - ...
Newbury, United Kingdom
11-50 Employees
2020
Use our online portal to get quick and easy quotes for you project.
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Featured
Unleash Your Imagination With Our Selective Laser Sintering Services
... Prototal UK is a leader in Selective Laser Sintering. SLS offers high resolution functional prototypes for complex models that are difficult to produce. ...
Germany
1-10 Employees
You provide the idea, we’ll give shape to it. This way you will receive your product within the shortest amount of time possible. We would be happy to give you further insights into our services.
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Featured
Selective laser sintering
... SLS-Plastic (Selective Laser Sintering), Services PTZ Prototypen GmbH, ...
Hyderabad, India
1-10 Employees
Shapefy enables individuals and businesses to bring their ideas from inception to post production and fulfillment with its end to end solution offerings in 3D printing and manufacturing. Founded in 2017, Shapefy is located in Hyderabad with a network of innovative partners around the world. Shapefy has a network of over a thousand businesses and has printed over 1 Lakh products. Unlike desktop printers or makerspaces, the Shapefy platform offers services from its own studios and global supply chain network. Printing in over 50 materials and finishes, Shapefy provides 3D printing manufacturing solutions to individuals and businesses of all sizes across a multitude of industries. Businesses in medical, robotics, drones, education, consumer products, to name a few, have all benefited from direct access to the most innovative technology and industrial-quality materials.
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Featured
Selective Laser Sintering (SLS)
... Selective Laser Sintering (SLS) is a 3D printing technology that uses high-powered lasers to sinter powdered material, binding it together to create a solid structure. ...
101-250 Employees
1994
SyBridge Technologies Acquired Advantage Engineering Inc in March 2022. Welcome to Advantage Engineering! For over 25 years, we have been delivering the highest quality products and services to our valued clients across industries, including medical supply, aerospace, consumer and composite products, automotive and so much more! We were founded in 1994, by offering advanced computer aided design and CNC machine programing to mold builders. Since then, we have continued to advance our capabilities allowing us to always meet the unique and innovative designs of our customers. We pride ourselves on not limiting the design needs of our customers.
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Featured
Selective Laser Sintering (SLS)
... Selective Laser Sintering (SLS) - Advantage ...
Manchester, United Kingdom
11-50 Employees
2018
We are an innovative hub of additive and digital manufacturing at Manchester Metropolitan University. PrintCity Director Carl is a Professor of Innovative Manufacturing and the Director of PrintCity as well as the Faculty of Science and Engineering Theme Lead for Advanced Materials and Manufacturing. PrintCity Project Manager Alan is the Project Manager and oversees all strategic planning and operations at PrintCity. PrintCity is a 3D additive and digital manufacturing centre based in Manchester, a city with a rich industrial legacy and one of the UK’s biggest technology hubs. PrintCity is equipped with a large range of facilities that will allow you to move from concept to finished product using in a variety of coloured resins, fibre-reinforced nylon, metal alloys and fully-coloured gypsum. On-site, we boast a large and varied range of 3D printers for manufacturing plastic and metal parts, coupled with facilities for investment casting of small metal parts such as jewellery (see the current list). Our dedicated post-production area houses equipment to finish plastics and metals, to ensure your designs are ready to go. Education is at the heart of PrintCity and we work across multiple disciplines within the University.
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Featured
Selective Laser Sintering
... Powder printing capabilities at PrintCity include Selective Laser Sintering (SLS) which uses a high-powered laser to sinter small particles of polymer powder into solid structures. The technology allows the printing of complex parts with no … ...
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Some interesting numbers and facts about the results you have just received for Selective Laser Sintering
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 76 |
| Amount of suitable service providers | 94 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1994 |
| Youngest suiting company | 2020 |
Selective Laser Sintering (SLS) is an advanced 3D printing technique that utilizes a high-power laser to fuse small particles of polymer powder into a solid structure, based on a 3D model. The process begins with a thin layer of powder spread over the build platform, where the laser selectively sinters the powder, solidifying it according to the cross-section of the product design. This procedure is repeated layer by layer until the object is fully formed, with unsintered powder supporting the object during printing, eliminating the need for additional support structures. SLS technology stands out for its ability to produce complex geometries and high-strength, functional parts with a high degree of accuracy and consistency. Its impact within the manufacturing and prototyping sectors is significant, enabling rapid product development cycles, reducing time-to-market, and allowing for the customization of products without the constraints of traditional manufacturing methods. The versatility and efficiency of SLS have made it a pivotal asset in industries ranging from aerospace and automotive to healthcare, where it is used for creating everything from intricate components to personalized medical devices. The method's contribution to advancing production capabilities and fostering innovation in product design and material science underscores its critical role within the broader field of additive manufacturing.
1. Complex Geometries and Detail
Selective Laser Sintering (SLS) allows for the creation of parts with complex geometries that would be challenging or impossible to achieve with traditional manufacturing methods. This flexibility opens up new possibilities for design innovation.
2. Material Diversity
SLS technology supports a wide range of materials, including polymers and metals, enabling the production of parts with specific properties such as high strength, flexibility, or thermal resistance. This versatility makes SLS suitable for a variety of applications across industries.
3. No Need for Support Structures
Unlike other additive manufacturing techniques, SLS does not require support structures because the powder bed itself supports the parts during printing. This results in cleaner builds and reduces the post-processing time significantly.
4. Waste Reduction
SLS is efficient in terms of material usage, as the unsintered powder can be reused for future prints. This recycling capability significantly reduces waste, making SLS an environmentally friendly option compared to traditional subtractive manufacturing processes.
1. Material Quality
Ensure the supplier offers high-grade materials compatible with your specific Selective Laser Sintering (SLS) applications, as material quality significantly impacts the final product's strength and durability.
2. Machine Precision
Verify the precision and capabilities of the supplier's SLS machines. High precision is crucial for achieving the desired detail and accuracy in your parts.
3. Lead Time
Assess the supplier's ability to meet deadlines. A reliable supplier should offer reasonable lead times without compromising on the quality of the output.
4. Cost Efficiency
Compare the pricing of different suppliers while considering the quality of the service and materials provided. Optimal suppliers offer competitive rates without hidden costs.
5. Experience and Reputation
Research the supplier's experience in the industry and their reputation among clients. Experienced suppliers with positive feedback are more likely to provide satisfactory services.
6. Post-Processing Capabilities
Inquire about the availability of post-processing services, such as dyeing or surface finishing, which are essential for the final appearance and functionality of SLS parts.
Selective Laser Sintering (SLS) technology finds extensive application in the aerospace industry, where precision and the strength of components are paramount. The ability to create lightweight, complex structures with high thermal and chemical resistance makes SLS ideal for manufacturing parts like air ducts, wall panels, and even critical engine components. This process not only accelerates production times but also significantly reduces the weight of parts, contributing to more fuel-efficient aircraft. In the medical sector, SLS is revolutionizing the production of customized implants and prosthetic devices. The technology's capability to fabricate bio-compatible materials into intricate shapes allows for the creation of patient-specific implants with improved integration into the human body. This customization leads to better patient outcomes, faster recovery times, and a reduction in the overall cost of medical procedures. The automotive industry benefits from SLS by enabling rapid prototyping and the production of complex parts that would be challenging or impossible to create using traditional manufacturing methods. Components such as gearboxes, ventilation systems, and brackets can be designed with optimized geometries for performance and manufactured quickly to accelerate development cycles. This flexibility allows automotive companies to innovate more freely, testing new concepts and bringing advanced designs to market faster. Each of these use cases underscores the versatile and transformative nature of Selective Laser Sintering, demonstrating its critical role in advancing manufacturing capabilities across various sectors.
Selective Laser Sintering (SLS) technology is currently considered to be at a high Technology Readiness Level (TRL), specifically at level 8 or 9. This classification is indicative of the technology having been fully tested and validated in both laboratory and real-world settings. The primary reason for SLS occupying such an advanced TRL is its extensive development and application over the past few decades, which has led to significant technical refinements and reliability improvements. SLS technology has demonstrated its capability to consistently produce high-quality, complex parts across various industries, including aerospace, automotive, and medical devices. Its robustness is further evidenced by the adoption and integration of SLS machines into manufacturing processes, where they operate with high efficiency and precision. The technical maturity of SLS is also reflected in the comprehensive understanding of its operational parameters, such as laser power, scanning speed, and powder characteristics, which are critical for optimizing the sintering process. Moreover, the advancement in materials compatible with SLS, ranging from polymers to metals, has expanded its application scope, reinforcing its status at the upper end of the TRL spectrum.
In the Short-Term, advancements in Selective Laser Sintering (SLS) technology are expected to focus on improving material compatibility and processing speeds. Innovations in laser systems and powder bed technology will enable the use of a wider range of materials, including advanced composites and high-performance polymers, enhancing the versatility of SLS applications. Additionally, efforts to increase the speed of the sintering process will make SLS more competitive in rapid prototyping and small batch production environments. The Mid-Term phase will likely witness significant strides in automation and machine intelligence integration within SLS processes. This will include the development of smarter, self-optimizing SLS machines that can adjust parameters in real-time for optimal results, reducing waste and improving efficiency. The introduction of artificial intelligence (AI) will further streamline the design-to-production workflow, enabling more complex and precise geometries with minimal human intervention. Looking into the Long-Term, the focus will shift towards sustainability and the circular economy. Technological breakthroughs are anticipated in the recycling of SLS materials, which will drastically reduce waste and lower the environmental impact of SLS manufacturing. Furthermore, innovation in energy-efficient lasers and renewable energy-powered SLS systems will align this technology more closely with green manufacturing principles, making it a cornerstone in the sustainable production of the future.
