3D Printing Technology Blog & News

GreatLight’s blog aims to share our hard-earned knowledge on 3D Printing Technology. We hope these articles help you to optimize your product design and better understand the world of rapid prototyping. Enjoy!

could self detecting materials represent the future of 3d printing?

Could self-detecting materials represent the future of 3D printing?

imagine3D printed materials can detect problems before they become serious. Engineers at the University of Glasgow are working to achieve this with a system that can simulate the physical properties of self-sensing composite materials. These materials can measure voltage, charge or damage simply by analyzing electrical current, allowing their condition to be monitored in real time. This opens up new perspectives in safety and quality assurance in many sectors.

How do these self-sensing materials work? The integration of carbon nanotubes into these materials allows them to conduct electric current, according to a press release from the University of Glasgow. This phenomenon, called piezoresistiveness, allows the material to control the integrity of its own structure. If the current changes, it can indicate deformation, such as compression or tension, allowing faults to be identified and corrected before they become worse.

Could self detecting materials represent the future of 3D printing

Four different networks created by engineers at the University of Glasgow (Photo credit: University of Glasgow)

Development and testing of self-determined materials

James, University of GlasgowProfessor Shanmugam Kumar from the Watt School of Engineering led the research. He explains: “Giving piezoresistive behavior to 3D printed honeycomb materials allows their performance to be monitored without adding additional hardware.

By adding polyetherimide(PEI) and carbon nanotubes, researchers developed four lightweight network structures produced by fused filament fabrication (FFF). These “self-sensing building materials” are then tested to assess their rigidity, strength, energy absorption and, most importantly, their ability to self-monitor.

Engineers have developed computer models that predict how these materials will respond to different mechanical stresses. These predictions were verified in real-world testing, where infrared thermal analysis visualized the flow of electrical current through the material. This confirms the accuracy of the model and the ability of the material to detect deformations due to changes in electrical resistance.

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Crystal lattices and their thermal imaging (Photo credit: University of Glasgow)

Professor Kumar explains how the model they developed will help optimize the design of self-sensing materials:“Although researchers have known about these properties for some time, what we have not been able to do is provide a way to know in advance how effective new attempts at creating innovative sensor-sensing materials will be. “We often have to rely on them.”

What are the possible applications of 3D printed self-detecting materials?

The possibilities offered by these materials are vast. In the aerospace and automotive industries, they can improve safety and maintenance by monitoring the integrity of critical components in real time. For infrastructure such as bridges or tunnels, these materials can detect structural problems before they develop into major failures. Engineers believe these findings could also have applications in areas such as smart orthopedics, structural monitoring, sensors and even batteries.

Professor Kumar also spoke about the future prospects:

“While we focus in this paper on PEI materials embedded with carbon nanotubes, the multi-scale finite element modeling on which our results are based can be applied to other materials created by additive manufacturing. »

“We hope this approach will encourage other researchers to develop new building materials with autonomous sensing capabilities, unlocking the full potential of this approach in materials design and development across all industries.”

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

aachen adhope avant garde project

Aachen AdHoPe avant-garde project

To address these challenges, the recently launched “AdHoPe” project at the Institute for Digital Additive Manufacturing at RWTH Aachen University, RWTH DAP, a core R&D member of the ACAM Center for Additive Manufacturing at Aachen, aims to optimize laser powder beds by integrating simulation and real-time sensor data. Merger process (PBF-LB/M).

The project plans to introduce aIntelligent process control systema system that optimizes parameters in real time, avoiding overheating and guaranteeing consistent quality of parts.

RWTH DAP_AdHoPe▲ AdHoPe project
© RWTH DAP, Institute for Digital Additive Manufacturing, RWTH Aachen University

Valley_FutureAM▲ futurAM
© 3D Science Valley white paper

block Significantly improve productivity

According to the German additive manufacturing center ACAM Aachen, 3D printing companies generally do not make very good profits worldwide. A key point is that from an application industrialization perspective, a manufacturing model capable of achieving profitability should have end-to-end impact. The final manufacturing process chain driven by the economic benefits of digital is at the heart, but currently 3D printing faces a dilemma. Often, as the scale expands, the resulting production costs increase at the series level, which in turn makes production very difficult. profitability.

ACAM Additive Manufacturing Center Aachen

The AdHoPe project’s research is key to advancing the development of additive manufacturing technology, as it not only improves production efficiency but also ensures higher quality products. By monitoring and adjusting process parameters in real time, waste and production defects can be significantly reduced, thereby reducing costs and improving competitiveness.

AdHoPe aims not only to improve existing methods, but also to set new standards. By developing a vector simulation model, temperature values ​​during powder coating processes can be quickly calculated. This real-time information allows subsequent coatings to be adjusted, reducing the risk of defects and improving the overall robustness of the process.

But that’s not all. The project also focuses on optimizing the vector design of the laser to maintain a uniform thermal environment and reduce the risk of overheating.

Discovery of Science Valley 3D

Discovery of Science Valley 3D

Strengths of the AdHoPe project:

Real-time optimization:By integrating advanced simulations and real-time sensor data, the AdHoPe project aims to optimize process parameters in real-time to accommodate different geometries and structural requirements.

Intelligent process control:The intelligent control system introduced in the project plan can adjust parameters in real time to avoid overheating and ensure part quality.

Vector simulation model:A vector simulation model was developed to quickly calculate temperature values ​​during the powder coating process, thereby providing real-time information about the process.

Process robustness:By adjusting subsequent coatings in real time, the risk of defects is reduced and the robustness of the entire process is increased.

Laser vector design:The project also focuses on optimizing the vector design of the laser to maintain a uniform thermal environment and reduce the risk of overheating.

Ideas that make life better

The AdHoPe project is funded by the central innovation program for small and medium-sized businesses of the Federal Ministry of Economy. Project consortium members include Aconity GmbH, ModuleWorks GmbH and the RWTH DAP Institute for Digital Additive Manufacturing at RWTH Aachen University.

block Laser – the magical power that changes the world

According to 3D Science Valley, Aachen has an inherent advantage in promoting the research of the AdHoPe project. The Selective Laser Melting Additive Manufacturing (L-PBF or SLM) process, considered by many to be the “Holy Grail,” has been used to create various. process of manufacturing industrial parts, from custom race car parts to some custom metal parts used on equipment launched into the atmosphere using SpaceX. Interestingly, the founding patent for selective laser melting seen on the market comes from the Fraunhofer Institute for Laser Technology belonging to the German Fraunhofer Institute. This year’s patent was born in 1997, and it has been 27 years since the birth of this basic patent. The commercialization process reflects the magical power of how a fundamental research technology will change the world to a large extent!

Since L-PBF metal 3D printing technology builds components layer by layer, it is a three-dimensional manufacturing technology based on two-dimensional manufacturing. Compared to traditional manufacturing technologies, this process has many system advantages, such as the ability to generate complex cooling. channels for lightweight applications (such as lattice structure) to achieve more complex microstructures, etc. Another benefit of the system is reduced development time, making it easier to implement multiple design iterations, which can reduce the time to market for new products.

Over the past 27 years, Fraunhofer ILT has developed a series of application and fundamental research technologies based on L-PBF, including high-temperature selective laser melting of alloys, high-power SLM processing of Inconel 718, optical systems for high power SLM. and minimal deformation. Additive manufacturing of aluminum components, additive manufacturing of high-strength oxide ceramics by selective laser melting (SLM), additive manufacturing of satellite power components, additive manufacturing of copper components by selective laser melting, use of a laser high power selective. fusion of mass additive manufacturing, using selective laser melting to create resorbable implants and much more.

Domestically, in 2024, Shanghai Electric officially joined the Aachen Additive Manufacturing Center (ACAM) in Germany, becoming the first Chinese partner company of this joint research and development organization. In the future, Shanghai Electric will partner with more international leading scientists. Research institutions, which continuously encourage scientific and technological innovation and open cooperation, bring more wisdom and strength to the development of new productive forces.

block The power of numbers

ACAM Aachen Additive Manufacturing Center’s vision for additive manufacturing of multifunctional materials is based on unlimited combinations of materials and technologies, and the ultimate goal is to click and produce. The ACAM Aachen Additive Manufacturing Center defines the advanced process to realize this vision as including five gradients. Most of the current developments in the world are still at level 0. Level 0 is a functional additive manufacturing process and level 1 is a functional additive manufacturing process. For the intended additive manufacturing process, Level 2 is an automated additive manufacturing process, Level 3 is a fully automated additive manufacturing including pre-processing and post-processing, and Level 4 is an integrated and fully automated combination of different manufacturing processes.

The current downstream processing steps of metal additive manufacturing have not yet been automated, partly due to the different geometries of the parts to be manufactured, which poses a great automation challenge. Promoting the scale of 3D printing, RWTH DAP RWTH Aachen University Digital Additive. Manufacturing The institute has made positive arrangements in all aspects.

According to 3D Science Valley, there is no additive manufacturing (AM) without digital manufacturing data. Therefore, efficient and reliable data generation and processing are fundamental prerequisites for the 3D printing manufacturing process.

In laser powder bed fusion (LPBF), 3D printed parts are designed as 3D models using computer-aided design (CAD) software. Then the model is converted into a data collection of two-dimensional layers of the component – ​​called slices. – At the factory side input, it is used to melt the layers one by one in the powder bed. Currently, many companies are faced with the enormous amount of data.

In this regard, the DAP School of Digital Additive Manufacturing at RWTH Aachen University applied the vector format (OVF) in the BMW IDAM project. The IDAM project is the first time in the world to integrate metal 3D printing into the automated automotive manufacturing process. RWTH Aachen University is The BMW IDAM project provides support for the process chain. As part of the BMBF-funded project IDAM (Industrialization and Digitalization of Additive Manufacturing), the DAP Institute for Digital Additive Manufacturing at RWTH Aachen University has created two. new processes for BMW. Fully automatic production line for additive mass production of automotive parts.

Additionally, for scalable additive manufacturing production applications, according to the article “RWTH Aachen University “Electric Vehicle Parts Production Engineering” Cooperates with Ford to Open Electric Motor Research Base in Cologne” in 3D Science Valley , Ford and RWTH Aachen University “Electric Vehicle Parts Production Engineering” The Department of Component Production Engineering (PEM), ThyssenKrupp System Engineering and the DAP Academy at RWTH Aachen University la-Chapelle are together developing flexible and sustainable production of electric motor components on a production line The name of the project is HaPiPro2, which refers to hairpin technology, and the aim of the research is to develop a. Flexible manufacturing technology and production concepts for hairpins.

Generally speaking, the DAP School of Digital Additive Manufacturing at RWTH Aachen University leads the AdHoPe project and has accumulated various accumulations from basic theoretical research to the practice of specific projects, it has brought a solid basis for this AdHoPe project.

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Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

mosaic raises ca$28 million to expand its 3d printing infrastructure

Mosaic raises CA$28 million to expand its 3D printing infrastructure

Mosaic Manufacturing Ltd. has raised CA$28 million in growth capital to scale up production of its innovative 3D printers. The funding, announced Wednesday, will allow Mosaic to scale its locally manufactured 3D printing systems, which are made in Canada and designed for industrial use.

The round was led by Montreal-based Idealist Capital, with participation from previous backers including Toronto-based Freycinet Ventures. François Boudreault of Idealist Capital will join Mosaic’s board of directors, alongside the company’s co-founders Mitch Debora, Derek Vogt and Chris Labelle, as well as James Appleyard of Freycinet. A number of private family offices also participated in the funding round, but details were not disclosed.

Expand in response to growing demand
Mosaic CEO Mitch Debora explained that the company is seeing increasing demand from manufacturers looking to shift their supply chains back to their home countries. This trend, known as nearshoring, is accelerating as companies look for ways to shorten supply chains in response to disruptions caused by the pandemic and global geopolitical tensions.

“We raised this funding because we see manufacturers actively adopting our technology to move supply chains back to their home countries,” Debora said in an interview with BetaKit. “With a few months of funding, we have entered the expansion phase and are working to introduce our technology to more factories.”

Founded in 2014, Mosaic has already raised $10 million from investors including Techstars, Real Ventures and SOAN. This latest round of funding of CA$28 million will support the company’s efforts to expand its 3D printing systems and expand its customer base.

Innovative 3D printing system
Mosaic is known for its automated 3D printers, which manufacturers use to produce custom plastic parts on demand. The company offers a range of systems priced from $10,000 to $100,000. The latest innovation, Array, launched in early 2023, allows continuous production with almost no manual intervention.

The Array has four print compartments and a storage area for collecting printed parts. As an example of efficiency, Debora explained that the system can produce up to 30,000 parts in 72 hours without human supervision during the entire process. Customers can install as many machines as needed to meet their production requirements, making the system highly adaptable.

Mosaic secures $28 million in funding to expand its 3D printing infrastructure

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Mosaic’s latest 3D printing system – Mosaic Array. (Image credit: Mosaic.)

Expand business reach and future development
Mosaic’s 3D printing systems are gaining traction with contract manufacturers, particularly in the medical device, machinery and automation industries. The company has customers in Canada, the United States, Mexico, Germany and Hong Kong, and plans to expand into new verticals and geographies. This latest funding will focus on expanding Mosaic’s operations in North America and Europe and will lead to an announcement on the use of the technology in consumer textile production.

In addition to expanding its customer base, Mosaic plans to use the new funding to double the size of its current team of 60 employees in the Greater Toronto Area over the next 12 to 18 months. The company is also focused on building its management team and business units while strengthening its manufacturing infrastructure in Canada.

“We are taking full advantage of our pioneering position in the market, working with some of the largest companies in the world,” added Debora, emphasizing that Mosaic’s batch 3D printing system is unique in its category.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

decryption of 3d printed titanium metal (1)

Decryption of 3D printed titanium metal (1)

Deciphering 3D printing in titanium (2)

In this article, Mohou.com will work with you to understand what’s available todayWho uses titanium?3D printing? These manufacturers produce a wide range of products, from medical and military equipment to high-performance bicycles and consumer electronics. What they all have in common is the desire to offer lightweight yet strong products through innovative (often custom) designs.

Recently, titaniumThe biggest news in the world of 3D printing is that Apple’s latest iWatch will reportedly use the technology. According to an unconfirmed report from financial services analyst Ming-Chi Kuo, who gathered intelligence from Apple’s supply chain contacts in Asia, the tech giant will adopt the powered Apple Watch Series 10 by Bright starting in the second half of 2024. 3D printed titanium parts produced by Laser Technologies (BLT). Kuo said Apple and BLT have been experimenting with 3D printing in titanium for years to streamline the process.

Decryption of 3D printed titanium metal 1

picture1:Incus and Element22 demonstrate titanium 3D printing of smartwatch cases using photolithography-based metal fabrication (LMM) technology (Source: Incus)

A,Medical and dental implants

1729509588 3 Decryption of 3D printed titanium metal 1

Figure 2

As medical product manufacturers increasingly adopt additive manufacturing technology for their production, the U.S.The number of FDA-approved titanium-based 3D printed surgical implants continues to grow.

In the medical industry,3D printed titanium implants have been used successfully in the spine, hips, knees and extremities due to the metal’s inherent biocompatibility and good mechanical properties, combined with the ability of 3D printing to personalize porous structures (allowing bone integration) and on a large scale. better outcomes for patients.

3D printed titanium implants are growing in popularity and popularity. Since most medical implants are intended for large numbers of people with the same disease, they are not suitable for everyone. People with rare diseases are often excluded. Now, thanks to 3D printing, it is possible to produce implants designed specifically for individual patients.

hospital for special surgery in new york(HSS) reported earlier this year that it was 3D printing custom titanium joint replacements for extremely complex cases where standard implants fail. HSS is the first hospital in the United States to have a 3D printing facility.

In 2023, a British surgeon performed four wrist operations on the same day, using patient-specific 3D printed titanium plates to correct previously fractured wrist deformities. Dr Akshay Malhotra, consultant orthopedic surgeon and clinical lead for hand and wrist surgery at University Hospitals of the North Midlands, said: “Once this planning process is complete, bespoke titanium plates will be hand printed. using titanium powder, then tested, shipped to UK and shipped to UK. Spayed at the county hospital in preparation for surgery.

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picture3:CoreLink’s 3D printed titanium screws have a porous structure that promotes bone growth, and the image on the right is the new specialized titanium joint provided to patients by the FingerKit consortium.

In 2022, doctors at Manipal Hospital in India received a cancer patient whose tumor was destroying his chest, so they began using a 3D printed titanium alloy. Normally, implants of this size would be too heavy for the human body, but because titanium is so light and strong, a custom replacement weighing less than 250 grams can be 3D printed for the patient. Thanks to the success of the 3D printed implant, the patient made a full recovery and was able to return to his normal life without relying on external machines to help him breathe.

Used in a patient-specific contextPatients report positive results in trial of 3D printed titanium talus for ankle bone replacement surgery. Bone replacement means that patients do not need a complete ankle replacement. The anatomical characteristics of the talus are very patient specific, requiring the design of unique 3D parts based on the patient’s CT data.

In 2023, the US FDA approved a number of 3D printed titanium implants, most of which are spinal implants.

Restor3d will receive approval in 2023 to launch the first patient-specific 3D printed ankle replacement device made entirely of metal (titanium).

SurGenTec will receive approval for its 3D printed titanium posterior sacroiliac joint fusion system, TiLink-P, in 2023.

FloSpin e will receive FDA approval in 2023 for a 3D printed implant to support the spine called the Tri-Largo Cervical Interbody Fusion System.

Eminent Spine will receive FDA approval in 2023 for its 3D cervical interbody fusion system using a 3D printed titanium alloy framework.

ChoiceSpine will receive FDA approval for its Blackhawk Ti 3D printed titanium cervical spacer system in 2023.

CoreLink is expected to receive FDA approval in 2023 for its Siber Ti sacroiliac joint fusion system, which consists of a 3D printed porous nanosurface titanium implant.

two,aerospace

1729509588 231 Decryption of 3D printed titanium metal 1

picture4:GKN Aerospace plans to add a new large-scale titanium 3D printer to its Texas factory (Source: GKN Aerospace)

In the aerospace industry, there are currently a variety of titanium-based additively manufactured parts for commercial and military use, with many additional prototypes pending.FAA certified. 3D printed titanium is valued for its low buy-to-fly ratio – an aerospace term that refers to the correlation between the weight of the starting material and the weight of the printed part.

Several specialist subcontractors in the aerospace, defense and space markets, e.g.Primus Aerospace, StarHagen Aerospace and Zeda have all invested in 3D printers capable of producing titanium components for prototypes and final parts.

1729509589 98 Decryption of 3D printed titanium metal 1

picture5:becauseNASA only needs one, so 3D printing a titanium bucket for a cold-actuated lunar deployable arm makes more sense than traditional manufacturing (Source: NASA Jet Propulsion Laboratory)

two,Bicycles and consumer goods

1729509589 904 Decryption of 3D printed titanium metal 1

picture6

NOW,3D printed titanium is found almost everywhere in high-performance bikes because every ounce of weight counts and high strength is essential. Used in cranks, brake levers, stems, derailleur hangers and even entire frames, titanium has proven to be as strong as aluminum and as light as carbon fiber without the durability issues of carbon fiber.

Recently, bicycle manufacturersRibble launched the Allroad Ti with a 3D printed frame, which the company says “allows us to hand-craft titanium tubes with much more advanced aerodynamics than standard round tubes on a typical titanium frame.” 3D printing also allows Ribble to eliminate welds.” seams, invisible cable routing and integration of parts.

Based in New YorkNo.22 Bicycle Company has focused on the production of titanium alloy bicycles for many years. The company launched the Reactor Aero in August. This bike incorporates several 3D printed titanium alloy parts and will be officially launched in 2025. No.22 co-founder Bryce Gracey said in a press release: “3D printing titanium has structural properties extraordinary. The ability to print internal support structures anywhere on the frame gives us unprecedented control over ride quality. »

Speaking of complete frames, bicycle manufacturersAngel Cycle Works has 3D printed a lightweight, all-titanium frame, which the company says allows for faster race times and allows for new design geometries. The company’s new superbike is called Heaven and weighs 400 grams less than the previous version. Another all-titanium frame from Pilot, launched this year, is called Pilot Seiren. The road bike frame is entirely 3D printed in titanium (divided into three parts). The company says 3D printed titanium allows it to customize the bike to the rider’s preferences, without the frame needing painting or coating.

Carbon Wasp explains why it ditched aluminum and carbon fiber in favor of 3D printed titanium for its latest aftermarket crank arms: “We found all kinds of creative ways to attach the crank to the driveshaft without having to tighten it in pressed carbon. carbon fiber, but I always had to add metal inserts… but I had many problems bonding the inserts to the carbon fiber. “After some prototyping, Carbon Wasp discovered 3D printing titanium-filled mesh. The crank is as light as carbon fiber but is stronger in impact-prone areas. “We still think carbon fiber is the best material for many other uses, including frames… but we are already investigating other titanium components.”

1729509589 185 Decryption of 3D printed titanium metal 1

picture7:bicycle companyMythos offers its customers a range of 3D printed titanium parts, including this handlebar, while at Verve Cycling (right) they offer a new 3D printed titanium crank.

The Pilot’s Tim Blankers told the Road.cc website: “The printing process helps reduce wall thickness, resulting in a lighter, stronger frame with no stress points. The frame weighs a little more of one kilogram The Pilot is OK Adding material where stiffness is needed to optimize power transfer.

Chinese bicycle maker Hanglun said it wouldIncrease investment in titanium 3D printing in 2024. The company said: “We plan to use 3D printing technology to produce titanium bicycle frames and parts, with an annual output of more than 50 000 pieces. These parts will be applied to several bicycle models, with the aim of providing customers with stronger and lighter parts. » and more durable bikes. Durable titanium bicycle products.

There are a large number of bicycles on the market3D printed titanium alloy parts:

Silca launched its latest range of 3D printed products earlier this year, which includes a range of titanium transmission mounts.

Verve Cycling and Metron Additive Manufacturing have launched a 3D printed titanium crank called InfoCrank 3D Ti.

Moots has launched new 3D printed titanium forks and accessories for its new Routt CRD gravel bike.

Cane Creek has unveiled new 3D-printed titanium Electric Wings cranksets that are as light as a carbon fiber crankset but as durable as an aluminum crankset, the company says.

1729509589 536 Decryption of 3D printed titanium metal 1

picture8:Japanese golf brandTitanium golf clubs 3D printed by the designer (Source: Farsoon)

Japanese golf brandDesigner launched a 3D-printed titanium golf club earlier this year that it says will offer golfers greater distance, greater accuracy, greater stability and greater forgiveness. The titanium club head is manufactured using Farsoon Technologies’ dual-laser powder bed fusion 3D printer.

Four,manufacturing

semiconductor manufacturerASML turned to 3D printing titanium for completely different reasons and now its titanium support tray preforms (used in wafer production) are 3D printed rather than forged, saving 64 % of raw materials and speed up delivery. Metal additive manufacturing company Norsk Titanium is using a directed energy deposition (DED) platform to print 80 kilograms (about 176 pounds) of near-net shape preforms – used in the production of semiconductor wafers – with Ti64.

Norsk worked with its Dutch partner Hittech Group to develop the preform, which Norsk says is used in ASML’s lithography systems. ASML, also based in the Netherlands, has been one of the most talked about companies in the world due to the chip shortage in recent years. Specifically, ASML is known for producing the world’s only extreme ultraviolet (EUV) lithography machines.

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picture9:Made at the University of Washington3D printed titanium alloy wheel carrier (Source: University of Washington)

Even the US Navy started using it3D print titanium to save time and money and eliminate dependence on foreign supply chains. Without domestic capabilities to manufacture the large titanium castings needed for high-performance centrifugal pumps, the Navy faces long lead times and a supply chain that uses expensive, carbon-intensive titanium raw materials. But soon, with the emergence of new domestic partners IperionX Recycling Titanium Powder and Carver Pump Additive Manufacturing, the Navy will be able to significantly reduce delivery times for critical components, increase equipment availability and sustainably restore the critical US titanium metal supply chain.

five,Precision products, electronics and jewelry

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picture10:3D printed titanium alloy hinge cover used in Honor Magic V2 2023 foldable smartphone (Source: Honor)

3D printing can create complex, very thin-walled titanium parts, which is why it is used to make watch cases, such as Panerai and Holthinrichs watches (pictured above).

In 2023, smartphone maker Honor launched its new Magic V2 foldable phone, which uses a 3D-printed titanium alloy hinge cover that is lighter and 150% stronger than the previous aluminum version. The company says this small piece of titanium, which can be 3D printed tens of thousands of times, is key to the product’s durability and smooth folding and unfolding.


Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

luentech has been shortlisted for the third group of specialist

Luentech has been shortlisted for the third group of specialist and new “Little Giants” assessment companies.

List of enterprises that have successfully passed the examination of the third batch of specialized and new “small giants” (partial list)

uniontech_xiaojuren_list

This revision work aims to fully implement General Secretary Xi Jinping’s important instructions on “cultivating a group of ‘specialized, special and innovative’ small and medium-sized enterprises.” The “Decision of the Central Committee of the Communist Party of China on Comprehensively Deepening Reform and Promoting Modernization with Chinese Characteristics” adopted by the Third Plenary Session of the 20th Central Committee of the Communist Party of China emphasized that a mechanism should be established to promote the development and growth of small and medium-sized specialist, specialist and new businesses. “Specialized, specialized, special and innovative” small and medium-sized enterprises refer to small and medium-sized enterprises with the characteristics of “specialization, refinement, particularity and novelty” while “specialized, specialized, special and innovative” are “little giants”; “Enterprises refer to “specialized, specialized, special and innovative” small and medium-sized enterprises. The best of them are pioneering enterprises that focus on market segments, have strong innovation capabilities, a share of high market, key core technologies and excellent quality and efficiency Specialized and innovative small and medium-sized enterprises must acquire expertise through concentration, strengthen industries with supporting facilities and conquer the market through l. innovation; these companies constitute a key link to improve the resilience and competitiveness of the industrial chain and the supply chain, and are the key to solving the “stuck” problem of key core technologies. of significant strength and solid support for the development of new productive forces and the construction of a new development model.

uniontech_xiaojurenLuentech intelligent production workshop

In 2019, the “Guiding Opinions on Promoting the Healthy Development of Small and Medium Enterprises” issued by the General Office of the CPC Central Committee and the State Council proposed the decision-making and deployment of ” cultivate a group of new specialized “small giant enterprises” with outstanding core businesses, strong competitiveness and good growth potential”, and work will be carried out to improve the upgrading of the industrial base and modernization of the industrial chain . Until 2021, the concept of “specialization, specialization and innovation” has become popular.Luentech Technology was selected as the third batch of specialized and new “small giants” by the Ministry of Industry and Information Technology in 2021.; In September this year, Luen Thai Technology successfully passed the examination of the third group of specialized and new enterprises “Little Giant”.

uniontech_xiaojuren_2

About Luen Thai

Founded in 2000, Luentech is a world-renowned leading company in the field of industrial 3D printing and a major pioneer in the field of additive manufacturing in China. Luentech currently has five major marketing regions worldwide: China, Europe, North America, Asia Pacific and the Middle East. Its products are exported to more than 50 countries and regions around the world, covering more than 8,000 customers. Luentech has the largest user base in the field of photopolymerization technology in China, and its technology is widely used in aerospace, electronic devices, dental care, cultural creativity, education, footwear, construction and other industries.

uniontech_2

In recent years, Luentech has always adhered to independent innovation.In the non-metallic field, 6 new equipment, including D, Matrix and E series, have been launched successively, and the technology covers LCD, DLP and other equipment.specific equipment includes D300, Matrix520, Matrix300, E128, E230, U One, etc.Luentech Technology quickly captures the industry trend, actively explores the metal 3D printing market, and successively launches the Muees series of industrial-grade SLM metal 3D printers: Muees310, Muees430.. In addition to equipment innovation and iteration, Luen Thai Technology has launched a variety of new dental materials model V6.6, high temperature resistant material Temp-R220, self-extinguishing flame retardant material FR-42 of quality V-0, etc. for hardware applications. Continuous technological innovation is a true reflection of Luentech’s practice of “specialization, specialization and innovation” and also constitutes the fundamental competitiveness of its sustainable development.

Uniontech productFamily portrait of Luen Thai Technology’s new products and equipment

uniontech 2 productNew hardware applications of Luen Thai Technology products

In an ever-changing market environment, only continuous innovation and pioneering spirit can keep pace with the times and seize the opportunities of the times. How to move from high-speed development to high-quality development in a highly saturated market demand environment is a major challenge facing all specialized and new companies. In the future, Luen Thai Technology will also actively adjust its strategic configuration according to its own development needs, optimize its own technical barriers, and promote the rapid development of new productivity with professional power.


Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

connected to world skills l luen thai technology, as an

Connected to World Skills l Luen Thai Technology, as an official partner of worldskills, helped the additive manufacturing project of the 47th World Skills Competition to reach a successful conclusion.

Among them, in the additive manufacturing project that was included in the World Championships for the first time, Chinese player Luo Xiaojiao from Guangdong Mechanical Technician College won the silver medal with an excellent score of 720 points.

world skills_1 world skills_2

Additive manufacturing project Chinese actor Luo Xiaojiao

The Global Skills Competition takes place every two years. Today, it is the most prestigious, largest and most influential professional skills competition in the world. It is known as the “Global Skills Olympics” and represents the advanced level of professional skills development in the world. It is the most influential professional skills competition in the world. An important platform for members of organizations to present and exchange their professional skills. A total of 1,400 candidates from nearly 70 countries and regions participated in this competition. It is also the competition with the largest number of participating projects and candidates since my country joined the WorldSkills Organization in 2010.

Among them, Luentech Technology, as an official partner of the competition, offers a professional guarantee for the development of additive manufacturing projects with its high-performance industrial-grade stereolithography 3D printer – AME RH2500.

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Luentech high performance industrial grade stereolithography 3D printer – AME RH2500As the designated equipment for many competitions, it has strong basic performance and excellent casting quality. While meeting the personalized and high-quality printing needs of candidates, its super stability can minimize the printing failure rate, providing sufficient guarantee for the smooth running of the event.

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· Using light-curing molding technology, the printing precision reaches 65μm. Combined with the self-developed 20x anti-aliasing function, it can ensure that the edges of the finished product are sharper and the structure is clearer.

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· 250 × 140 × 240mm forming format, equipped with micron-level liquid level control system, which can adjust the liquid level at high speed according to the actual printing situation, and design automated printing greatly improves printing efficiency.

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· Equipped with industrial-grade AI intelligent algorithms and built-in multi-channel detection systems, the user-friendly design can effectively reduce learning costs and optimize players’ operational experience.

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· Built-in industrial-grade 4K lighting engine, the LED light source has a service life of up to 20,000 hours, the equipment maintenance rate is low, and the service life has been improved again.

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In the report of the 20th National Congress of the Communist Party of China, it was clearly stated that we should “adhere to the priority development of education and accelerate the construction of educational power.” So far, more than ten universities, including Nanjing University of Technology and Hebei University of Science and Technology, have successfully opened additive manufacturing specializations. Since its establishment in 2000, Luentech has always adhered to the strategy of skill-based talent development and continued to optimize the education organization. It has exported mature industrial application solutions focusing on the two major educational directions of higher and undergraduate professional education, including intelligent software (UnionTech ONE), multi-materials, professional equipment and other dimensions . It has been used successfully in the fields of education and engineering competitions. . , training practice, auxiliary teaching and other real-life scenarios have played a vital role in strengthening the professionalism of subject teaching, deepening the cultivation of technical talents, and promoting the transformation and improving educational models.

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Build dreams with ingenuity and shine with your skills. Luentech is very honored to participate and witness the successful conduct of the 47th WorldSkills Competition. In this competition, the outstanding performance of the Chinese delegation fully proved that qualified talents constitute an important part of our country’s talent team and an important force supporting Made in China and Created in China. In the future, Luentech will also encourage the training of qualified talents in the new era with the spirit of continuous innovation.


Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

[post title]

Avoiding involution, Elon Musk’s SpaceX leverages 3D printing

SpaceX_1▲ Accelerate the technical development of Raptor3
© SpaceX

Elon Musk’s view on additive manufacturing is that it is not only the future of manufacturing, but also a key technology to realize his vision of space exploration. With this technology, SpaceX continues to push the boundaries of design to create more efficient, reliable and cost-effective products. ”

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block Intellectual property licenses
is part of the company’s competitive advantage

Recently, SpaceX and Velo3D entered into a major intellectual property licensing and support services agreement worth a total of US$8 million. As part of the agreement, SpaceX will receive a non-exclusive license to Velo3D additive manufacturing technology, as well as a range of engineering and support services. This technology plays a key role for SpaceX in building its advanced Raptor engines, particularly the recently tested Raptor 3 engine.

Velo3D technology allows SpaceX to manufacture complex rocket engine parts that are highly complex in design and functionality. Through this agreement, SpaceX will not only be able to use Velo3D technology, but also modify and develop it to meet the needs of its internal operations. This includes applications in the manufacturing process of rocket and spacecraft components. Velo3D will retain ownership of its technology and continue to control external distribution of the technology, while SpaceX will retain ownership of improvements made to the technology during its use.

According to 3D Science Valley market analyses, this cooperation agreement includes several key points:

  • License fees:SpaceX will pay $5 million for a perpetual, non-exclusive, royalty-free license to Velo3D technology.
  • Technical improvements:SpaceX reserves the right to modify and improve Velo3D technology, but only for internal use.
  • intellectual property:Velo3D retains ownership of its intellectual property rights, including any improvements made during the 12 months following the date the Agreement comes into force.
  • Sublicense rights:SpaceX may sublicense Velo3D technology to affiliates or non-competing third parties under certain conditions.
  • Support Services:Velo3D will provide technical support services to SpaceX to help it effectively integrate Velo3D technology.
  • Additional service fees:In addition to the licensing fee, SpaceX will pay $3 million for support services provided by Velo3D.

The agreement also gives SpaceX the right to sublicense Velo3D technology under certain conditions. Specifically, SpaceX may sublicense the technology to affiliates or third parties, provided that such third parties are not competitors of Velo3D. The sublicense must be limited to providing services to SpaceX itself, meaning that the entity receiving the sublicense cannot use the technology for independent purposes outside of SpaceX’s business.

Additionally, Velo3D will provide necessary support services to SpaceX to help SpaceX effectively integrate and utilize Velo3D technology. These services may include technical assistance and technical advice to ensure that SpaceX can fully utilize Velo3D technology. In exchange, SpaceX will pay Velo3D a total of $8 million, of which $5 million will be a technology licensing fee and an additional $3 million will be used to purchase support services.

block More mutually beneficial cooperation

In business competition, Party A often tightens Party B’s prices and payment terms, leading to a continuous decline in Party B’s profits and cash flow dilemmas, such as demolishing a thing for pay the other. There is no winner at the end of involution when fishing in a dry lake. So, is there some sort of cooperation? It is not that Party A corners Party B in a corner in one dimension, but through in-depth cooperation between Party A and Party B, Party A can achieve faster and more personalized technical advantages, while Party B can further improve its technology and guarantee its cash flow?

In this regard, SpaceX has set an example for the industry.

This cooperation is not only of great significance for SpaceX in the manufacturing of rocket engines, but also shows Velo3D’s technical strength and market position in the field of additive manufacturing. Through this collaboration, both companies will be able to drive the development and application of technology in their respective fields.

According to market information from 3D Science Valley, the cooperation model between Velo3D and SpaceX could have many positive impacts on the long-term development of Velo3D:

  • Financial stability:Through its partnership agreement with SpaceX, Velo3D received a significant capital infusion, which helped the company maintain its operational and financial stability in the face of market challenges. This financial support could allow the company to continue to invest in R&D and develop its production capacities.
  • Technological improvement and innovation:Under the terms of the agreement, SpaceX can modify and improve Velo3D’s technology, which could promote Velo3D’s technological advancement in the field of metal additive manufacturing. At the same time, Velo3D retains ownership of its intellectual property rights, including any improvements made to its technology within 12 months of the agreement taking effect, which helps Velo3D maintain its technological leadership.
  • Improved market position:The cooperation with SpaceX has improved Velo3D’s visibility and market position in the additive manufacturing industry. This partnership could attract other potential customers or partners, thereby increasing Velo3D’s market share.
  • Validation of the economic model:Velo3D verified the effectiveness of its business model and market strategy through its cooperation with SpaceX. This collaboration provides the company with a platform to showcase its technological prowess and manufacturing capabilities, thereby helping to build confidence among investors and other stakeholders.
  • Long-term strategic planning:Velo3D can use this collaboration as a springboard to further plan its long-term strategy, including product development, market expansion and possible strategic collaborations. This forward planning is essential to its continued growth and success.

Of course, while cooperation brings many positive effects, it can also present some potential challenges, such as increased dependence on a single client, the risk of technology leakage, and intellectual property disputes that can arise during the cooperation.

According to market information from 3D Science Valley, the cooperation between Velo3D and SpaceX will bring multiple technical improvements to Velo3D in the foreseeable future:

  • Touchless Powder Spreading Technology Improvements:Velo3D is known for its innovative non-contact powder coating technology, essential for achieving high-quality builds, especially supportless metal 3D printing. Depending on the design needs of SpaceX’s new products, this technology could be further improved for SpaceX in the manufacturing process of its rocket and spacecraft components.
  • Part performance improvements:Velo3D’s technology can help SpaceX optimize part designs to meet the high standards of the space exploration industry. Additionally, Velo3D has deployed a catalog of next-generation alloys to improve part performance by optimizing materials based on SpaceX’s real-world needs.
  • Enhanced AI Simulation Capabilities:Velo3D’s collaboration with PhysicsX provides Velo3D customers with an AI simulation workflow based on real-world SpaceX application scenarios to accelerate simulation cycles, improve simulation fidelity, and algorithmically explore design spaces complex to unlock new levels of performance.

3D Science Valley believes that the cooperation between Velo3D and SpaceX will have a positive impact on its long-term development and will also bring new ideas to the overall competition in the 3D printing industry, putting the thinking on the ecological cooperation of the industry on the agenda, and move from blind involution to more cooperation. A healthy development path created through co-creation.

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Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

Infinity Turbine launches 3D printed seawater batteries and electrocatalytic electrodes

Infinity Turbine has introduced an innovative electrode manufacturing technology that combines fiber laser heat treatment, additive manufacturing and laser-induced carbonization. The new technology is capable of converting carbon-rich materials, such as sugar and wood fibers, into hard carbon or graphene-like structures. The resulting 3D printed electrodes are expected to improve the Salgenx seawater flow battery manufacturing process, gas processing and electrocatalyst applications.

Promoting the development of seawater flow batteries with 3D printed electrodes

Salgenx seawater flow batteries are known for their safe and environmentally friendly method of storing grid-scale energy. Infinite Turbine’s 3D printed carbon electrodes significantly improve battery performance by providing a highly conductive, high surface area electrode structure. The combination of laser-induced graphene and custom 3D printed geometries enables faster ion exchange, higher energy density and longer battery life, all while using sustainable materials. Additionally, this manufacturing method reduces production time and complexity through the use of just-in-time (JIT) technology, thereby further reducing inventory costs.

This new electrode technology has several advanced features that help improve efficiency. Infinity Turbine uses fiber lasers to induce carbonization of organic materials such as sugar, converting them into graphene-like carbon structures with excellent electrical conductivity and structural integrity. The process takes place in a carbon dioxide-laden environment, improving carbonization efficiency by preventing combustion and ensuring the production of high-purity carbon. The 3D additive manufacturing process builds electrodes layer by layer, creating custom structures with improved surface area and mechanical strength, key to improving energy storage. Additionally, the technology quickly and efficiently integrates various battery materials via JIT manufacturing, enabling rapid development of components such as metal powders and insulators. The combination of carbonization, 3D printing and material flexibility enables the creation of highly efficient electrodes that meet the needs of energy storage and processing applications. The process can also incorporate layers of mixed materials, which is useful in gas processing and electrocatalysis applications.

These 3D printed electrodes will significantly improve the performance of Salgenx seawater batteries, which are already attracting attention for their safety, cost-effectiveness and environmental benefits. This new technology promises to enable higher performance in renewable energy storage systems by improving battery charging times, energy density and longevity.

Develop R&D and production applications

The introduction of 3D printed electrodes with optional powder materials opens up new research and development opportunities. It enables rapid implementation from concept to reality, thereby simplifying product marketing. The 3D manufacturing process also paves the way for the development of machines specifically for the production of electrodes and electrocatalysts. This process could reinvent manufacturing methods in a manner similar to the Tesla Gigapress, enabling the creation of 3D printed anodes and cathodes that would form complete electrolyzer units.

Other applications: gas treatment and electrocatalysis

Infinity Turbine’s 3D printed carbon structures have versatility that goes beyond energy storage. In gas processing, these carbon structures could be applied to in situ processes, potentially making carbon capture and conversion systems more efficient. The high surface area and electrical conductivity of graphene-like materials are particularly beneficial for these applications, including electrical desalination systems that convert seawater into freshwater.

The 3D building concept is also well suited to electrocatalytic applications. Infinity Turbine’s systems can integrate advanced electrocatalytic technology to facilitate the conversion of carbon dioxide and water to generate valuable carbon-based products such as methylglyoxal (C3) and 2,3-furandiol with efficiency greater than 99% of alcohol (C4). These materials hold great promise for sustainable manufacturing, opening the possibility of non-toxic alternatives such as methylglyoxal for formaldehyde, used in industrial products such as plastics and adhesives.

Advances in energy solutions

The 3D printed carbon electrode developed by Infinity Turbine marks a major advancement in energy storage and electrocatalysis technology. These carbon-based materials promise to improve the efficiency of Salgenx seawater batteries and transform gas processing applications. Using sustainable organic materials such as sugar and wood fiber, Infinity Turbine reaffirms its commitment to environmentally responsible manufacturing and clean energy innovation.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

catalyze the potential of high throughput 3d printing on the r&d

Catalyze the potential of high-throughput 3D printing on the R&D side! Dyndrite joins the community at the ACAM Additive Manufacturing Center in Aachen, Germany

Dyndrite_ACAM▲ Dyndrite joins the ACAM community
© ACAM Additive Manufacturing Center Aachen

Generally speaking, 3D printing companies around the world have not made very good profits. A key point is that from the perspective of application industrialization, the manufacturing model that can achieve profitability should be digitally driven, end-to-end manufacturing with economic benefits. The process chain is at the heart of the process, but currently 3D printing faces a dilemma. Often, as scale expands, the resulting production costs increase at an exponential level, making it very difficult to be profitable. Additive manufacturing will evolve into a self-scaling intelligent manufacturing technology driven by software and data. The application of intelligent simulation and artificial intelligence will enable hardware to have smarter brains, more sensitive nerves and more precise hands, making treatment more effective.

ACAM Additive Manufacturing Center Aachen

Valley_FutureAM▲ futurAM
© 3D Science Valley white paper

block For large-scale digital manufacturing
Open up new possibilities

Dyndrite’s software has gained a competitive edge in laser beam powder bed fusion (PBF-LB) additive manufacturing, helping manufacturers solve complex geometries and production challenges while reducing costs and improving productivity. quality of parts. This is in line with ACAM’s goal of promoting the development of the additive manufacturing industry.

Dyndrite_1© Dyndrite

As an innovative R&D network, ACAM welcomes Dyndrite’s membership and looks forward to the two parties working together to promote the advancement of automation and materials development and open up new possibilities for digital manufacturing on a large scale.

Dyndrite’s software supports high-throughput data processing, which is important for all aspects of the additive manufacturing process chain, including modeling and simulation, digital twin technology, development and process control.

Overall, this collaboration will help propel additive manufacturing technology to new heights, enabling scientific and industrial partners to more efficiently develop and implement advanced manufacturing solutions.

According to market information provided by 3D Science Valley, Dyndrite’s software has achieved a series of market developments, including:

Laser powder bed fusion (LPBF):Dyndrite’s LPBF Pro software provides metal additive manufacturing companies with advanced capabilities and is compatible with several major manufacturers, including Aconity3D, EOS, Nikon SLM Solutions, Renishaw and Xact Metal. The software enables the creation of complex parts, helping to accelerate construction strategies and automate the construction preparation process.

Industrial inkjet and binderjet 3D printing technology:Dyndrite has partnered with Meteor to launch Meteoryte, a 3D software tool that simplifies the development and adoption of inkjet technology for additive manufacturing applications. Dyndrite is also working with Xaar and Meteor to deliver new developments in industrial inkjet capabilities for binder jet additive manufacturing applications, driving the adaptability and growth of binder jet technology in applications. industrial.

Composite 3D printing:Dyndrite has partnered with Impossible Objects to automate its composite additive manufacturing process, CBAM, using GPUs to automate the CAD printing process, increasing productivity and significantly reducing operating costs.

block Improve robustness

According to market information from 3D Science Valley, Aachen attaches great importance to the end-to-end manufacturing process chain to enable 3D printing, and recently launched the cutting-edge project AdHoPe, aiming to optimize laser powder bed fusion (L-PBF). To change the world of additive manufacturing, the project plans to introduce an intelligent process control system that optimizes parameters in real time, avoids overheating and guarantees consistent quality of parts. The AdHoPe project’s research is key to advancing the development of additive manufacturing technology, as it not only improves production efficiency but also ensures higher quality products. By monitoring and adjusting process parameters in real time, waste and production defects can be significantly reduced, thereby reducing costs and improving competitiveness.

AdHoPe aims not only to improve existing methods, but also to set new standards. By developing a vector simulation model, temperature values ​​during powder coating processes can be quickly calculated. This real-time information allows subsequent coatings to be adjusted, reducing the risk of defects and improving the overall robustness of the process.

But that’s not all. The project also focuses on optimizing the vector design of the laser to maintain a uniform thermal environment and reduce the risk of overheating.

By strengthening close cooperation with the Additive Manufacturing Center Aachen (ACAM), 3D Science Valley believes that this could promote the advancement of the Aachen AdHoPe project in the short term and that in the long term the cooperation will help build a more powerful innovation ecosystem. Promote the transformation and commercialization of scientific research results. 3D Science Valley believes that the cooperation with Dyndrite will have the following specific impacts on ACAM’s scientific research work:

Integration of software tools:Dyndrite’s LBPF Pros software will be integrated into the ACAM scientific research network, enabling researchers to more effectively manage complex geometries and production challenges. Using Dyndrite’s software, ACAM researchers can more efficiently optimize the entire additive manufacturing process chain, from design to production.

Process automation:The collaboration will automate the additive manufacturing process, reduce manual workload and improve production efficiency and quality control. Dyndrite’s software can be used in ACAM research projects to help researchers achieve new breakthroughs in the field of additive manufacturing.

Hardware development:Through the collaboration, researchers are exploring and developing new custom materials based on data captured by the software, which will further expand the scope of materials applications for additive manufacturing. This will promote the development of digital manufacturing technology, particularly in process automation and digital twin technology. ACAM can also leverage Dyndrite’s software tools to enhance its education and training programs, providing students and industry professionals with the latest knowledge in additive manufacturing technologies.

Standardization of data formats:Dyndrite supports the OVF open vector format file format developed by ACAM research member RWTH Aachen University, which will help standardize the data format of the 3D printing process chain, simplify the volume of data and improve the efficiency of data transmission.

Aachen Center for Additive Manufacturing (ACAM), Germany

The Additive Manufacturing Center Aachen (ACAM) in Germany is a consortium of leading scientific research institutions located in Germany. Aachen is the birthplace of metal 3D printing. The founding patent for selective laser fusion comes from Fraunhofer laser technology. Fraunhofer Institute in Germany. Research Institute, ACAM Germany The Aachen Additive Manufacturing Center is based on the Aachen campus where RWTH Aachen University is located, bringing together the best resources of Aachen R&D and promoting industry access to RWTH Aachen University and the additive manufacturing expertise of the Fraunhofer IPT and associated leading scientific institutions at the Fraunhofer ILT. ACAM provides one-stop services for enterprises, including the entire process chain from design to quality control, ACAM covers the entire process chain from the design phase to quality control, focusing on automating the process chain, developing custom materials, improving productivity and reducing lead times. , etc. The theme of research and development in additive manufacturing for mass production objectives.

Domestically, in 2024, Shanghai Electric officially joined the Aachen Additive Manufacturing Center (ACAM) in Germany, becoming the first Chinese partner company of this joint research and development organization. In the future, Shanghai Electric will partner with more international leading scientists. Research institutions, which continuously encourage scientific and technological innovation and open cooperation, bring more wisdom and strength to the development of new productive forces.

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global additive manufacturing elites prepare for annual additive manufacturing event

Global additive manufacturing elites prepare for annual additive manufacturing event – Frankfurt Formnext 2024

Next form 2024_1

“The large number of exhibitors at Formnext reflects the importance of additive manufacturing for the entire industrial sector,” said Sascha F. Wenzler, vice president of Messe Frankfurt GmbH, organizer of the exhibition. responds to current challenges and unlocks new economic potential. “At the same time, Formnext also demonstrates how dynamic the global additive manufacturing industry is, with countless innovations and applications paving the way for the future of industrial development every year. »

Next form 2024_2

So far, 61% of registered exhibitors come from countries outside Germany, with the main countries being the USA, China, the UK, France, the Netherlands, Italy and Spain. The additive manufacturing (AM) industry has a tradition of letting the most important innovations throughout the year be published and exhibited at the Formnext exhibition, which allows visitors to experience the latest additive manufacturing technologies up close and to interact directly with experts and exhibitors. This year’s exhibitors will not only showcase their new applications, but also plan to highlight how manufacturers can integrate additive manufacturing technology into their production lines more cost-effectively and efficiently.

block Formnext Price
The perfect scene to progress

Activities supporting Formnext 2024 will include some existing activities and exciting new highlights. The Formnext trade show and conference has refined its awards ceremony concept over the years and is launching the Formnext Awards this year as a new way to put more emphasis on exceptional talents and their innovative ideas. The awards will be presented in six different categories, including innovative start-ups, sustainable business ideas and pioneering technologies. This year, the entire additive manufacturing community can participate in the selection process and vote for their favorite winners, whether they are in Frankfurt or not. In addition to visiting the Formnext trade fair to experience the products and technologies in person, everyone can also find out about the situation in advance on the Formnext website (www.formnext.com) from mid-October . Voting in all categories will close at noon on November 21, 2024 and public votes will be taken into account as additional jury votes.

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At the same time, Formnext will continue its extensive presentation content (open to all participants) to promote high-level discussions on the most recent topics. This means that in 2024, current and future applications, technologies and general trends in the additive manufacturing and production industry will once again be at the top of the agenda. Key topics in applications, industry and technology will include artificial intelligence in additive manufacturing, medical and dental technology, robotics, automation and much more. The special “Provider Marketplace” exhibit space will also return after its debut last year, showing companies how to benefit from revolutionary additive manufacturing technology without having their own in-house production operations. Corresponding exhibitions will showcase innovations in areas such as medical technology, dentistry and packaging.

Next form 2024_4

During the “Startup Zone” and “Pitchnext” events, young innovative companies in the manufacturing industry will have the opportunity to present themselves to potential investors and partners. Those interested in working in the additive manufacturing industry will also have the opportunity to view current job opportunities during Career Day (the third day of the show). As in previous years, companies looking to enter the additive manufacturing industry will find excellent advice and information at the Discover3Dprinting seminars, co-hosted by the organizers and ACAM and held each day of the show. ACAM will also partner with Formnext to host four in-depth workshops on topics including AM industrialization, AM design, surface treatments and materials.

At Formnext 2024, the VDMA Additive Manufacturing Working Group will present, together with its members, practical applications of additive manufacturing in the field of mechanical engineering in the Additive4industry exhibition area. The BE-AM seminar and accompanying exhibition space will showcase advanced developments in 3D printing technology in the construction sector, which is growing in importance. The day before the official start of this year’s Formnext Exhibition and Conference, VDMA and ASTM International will jointly host the Formnext Additive Manufacturing Innovation and Standardization Summit. Finally, in another special exhibition space, the finalists likely to win the Hessian Design Award will be awarded and the final winners will be announced during the awards ceremony.

Next form 2024_5

Formnext is delighted to have Australia as a partner country for 2024! This diverse continent has impressed for many years with its vibrant additive manufacturing community and successful system suppliers around the world, as well as its service providers and other highly specialized companies in the additive manufacturing sector. A deep impression. The basis of it all is an exceptional university and a unique environment that attracts talented people from all over the world.

Next form 2024_6

November 19-22, 2024
See you in Frankfurt, Germany!


Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

from challenges to solutions: additive manufacturing for the hydrogen economy

From challenges to solutions: additive manufacturing for the hydrogen economy

IGNITER▲ 3D printing is used to optimize key elements of the IGNITER hydrogen energy equipment project
© RWTH DAP Institute for Digital Additive Manufacturing Production at RWTH Aachen University

“Additive manufacturing technology offers multiple solutions to the challenges of the hydrogen economy, including:

Resource-saving components:Produce lightweight, optimally designed components to reduce material usage and increase energy efficiency.

Materials adapted to the request:Material properties are tailored to the needs of specific applications to improve performance and durability.

Environmentally friendly component surface:Improve the environmental performance of components through coatings and other surface treatment technologies, such as reducing hydrogen penetration and improving corrosion resistance. ”

valley fuel injector

Decarbonization and sustainable energy are topics at the heart of social and political discussions. We need clean alternatives to the fossil fuels that drive climate change and pollute the environment. Hydrogen is a possible alternative.

However, hydrogen poses a challenge to businesses and the energy sector: existing infrastructure must be converted from fossil feedstocks and energy sources, requiring significant investments. Furthermore, the efficiency and profitability of hydrogen production, especially green hydrogen, is currently limited. Hydrogen also has different combustion and corrosion properties. This changes requirements for materials used in combustion and transportation components, requiring new materials and improved designs.

Additive manufacturing for the hydrogen economy is one of the key technologies to achieve a sustainable energy transition and reduce greenhouse gas emissions. Several projects of RWTH Aachen University, IGNITER, H2MAT3D, HyInnoBurn, promote the development of hydrogen-based combustion systems through additive manufacturing technology to achieve energy utilization more efficient and more environmentally friendly.

block IGNITER Project

The objective of this project is to develop and apply a simulation-based design process for flexible fuel burners for use with hydrogen-based fuels. Additive manufacturing technology plays an important role in this process, as it enables the design and manufacturing of complex geometries that can be difficult to achieve with traditional manufacturing methods. Through a combination of simulation and additive manufacturing, researchers can optimize combustion chamber designs to meet strict emissions and performance standards. This includes:
Fuel flexibility: Burners designed to accommodate different fuel types, including natural gas and hydrogen.

Emissions control:Optimize the combustion process to reduce harmful emissions such as nitrogen oxides (NOx).

Performance optimization:Ensure the burner remains efficient and stable under various operating conditions.

block H2MAT3D project

H2MAT3D – (Analysis of the interaction between hydrogen-based combustion systems, high temperature materials and laser additive manufacturing)

RWTH Aachen University collaborates with the Institute of Technical Thermodynamics at the Karlsruhe Institute of Technology (KIT) and TU Berlin MfAM to study the complex interaction between hydrogen combustion systems and materials produced by additive manufacturing. The research focuses on identifying high-temperature materials that can improve the efficiency and stability of hydrogen combustion while pushing the boundaries of 3D printing technology.

These projects are key to advancing the understanding of hydrogen-based combustion systems and additive manufacturing, paving the way for the development of future carbon-free energy technologies.

The H2MAT3D project focuses on analyzing the interaction between hydrogen-based combustion systems, high-temperature materials and laser additive manufacturing. The research focuses on identifying and developing high-temperature materials that can improve the efficiency and stability of hydrogen combustion. This implies:

Material selection:Develop high-performance, durable and efficient materials adapted to hydrogen environments.

Multi-material additive manufacturing:By optimizing the combination of materials layer by layer, customized material properties are achieved, combining wear resistance, corrosion resistance and functionality.

Surface functionalization:Using ultra-fast coating technology, pipes and others are provided with environmentally friendly internal and external surfaces for optimal corrosion protection and reduced hydrogen penetration.

RWTH DAP▲ Understand the relevance of additive manufacturing process materials
© RWTH DAP Institute for Digital Additive Manufacturing Production at RWTH Aachen University

As part of H2MAT3D, the RWTH DAP Institute for Digital Additive Manufacturing at RWTH Aachen University and its research partners experimentally and numerically investigated the interaction between fuel-based combustion systems. hydrogen and additive manufacturing materials. This will bridge the gap between AM burner design and process-material interactions during combustion.

To achieve this, high temperature resistant materials separated from nickel-based superalloys by thermodynamically alloy selection can also be processed by additive manufacturing AM, in particular by laser powder bed fusion (LPBF) and by ultra-high laser applications. -high speed (EHLA). ) to produce materials processed by additive manufacturing processes, enabling the development of high-throughput alloys. This work relies on microstructural simulations that will provide insights into the factors influencing high temperature strength, degradation behavior and crack formation during additive manufacturing. The researchers studied samples produced during hydrogen combustion experiments and characterized them before and after operation to reveal degradation mechanisms. Experimental combustion work is complemented by combustion simulations aimed at understanding the influence of materials on flames due to thermal conductivity and surface reactions. The fundamental understanding gained in H2MAT3D will be used to coordinate additive manufacturing process conditions and high-temperature materials to achieve a more efficient combustion process. The results of this study could be used in additively manufactured combustion systems, where custom alloys and complex geometries help increase efficiency and reduce the environmental impact of the combustion process.

block HyInnoBurn Project

Developed with partners from the RWTH DAP of the Additive Manufacturing Center ACAM Aachen, the HyInnoBurn project focuses on the development of industrial gas burners optimized for safe and flexible operation with natural gas and hydrogen. Since hydrogen flames behave differently from natural gas flames, the project will develop burner geometries optimized to meet specific burner requirements, such as low emissions or safe operation in harsh environments such as steelworks. The burner must also be scalable to meet the specific requirements of different end users. Additive manufacturing is becoming the key production technology to give the burner design the greatest possible freedom as well as easy scalability.

RWTH DAP_HyInnoBurn▲HylnnoBurn Project
© ACAM Additive Manufacturing Center Aachen

Members of the HyInnoBurn project combined process analysis from the Institute of Power Plant, Steam and Gas Turbine Technology and focused on the development of a universal industrial burner for flexible operation with a mixture of fuel composed of natural gas (EG) and hydrogen.

Kueppers_SMS© Kueppers Solutions (left) and SMS-group (right)

A preliminary study of currently used burner configurations forms the basis for the development of suitable numerical and geometric models for H2 burner systems that represent the phenomenology of combustion and emission formation of different gas compositions. Through simulation and experimental analysis of the burner, flexible optimization of the hydrogen content of the fuel gas is achieved. Among them, it is crucial to realize a large number of optimization options by producing the engraver via a 3D printing additive manufacturing process.

Through these projects, RWTH Aachen University demonstrates the potential of additive manufacturing technologies to boost the hydrogen economy and enable a sustainable energy transition. These studies not only help develop more efficient hydrogen-based combustion systems, but also pave the way for the development of future carbon-free energy technologies. As technology develops and costs fall, hydrogen is expected to become a significant part of future energy supplies.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

from challenges to solutions: additive manufacturing for the hydrogen economy

From challenges to solutions: additive manufacturing for the hydrogen economy

IGNITER▲ 3D printing is used to optimize key elements of the IGNITER hydrogen energy equipment project
© RWTH DAP Institute for Digital Additive Manufacturing Production at RWTH Aachen University

“Additive manufacturing technology offers multiple solutions to the challenges of the hydrogen economy, including:

Resource-saving components:Produce lightweight, optimally designed components to reduce material usage and increase energy efficiency.

Materials adapted to the request:Material properties are tailored to the needs of specific applications to improve performance and durability.

Environmentally friendly component surface:Improve the environmental performance of components through coatings and other surface treatment technologies, such as reducing hydrogen penetration and improving corrosion resistance. “

valley fuel injector

Decarbonization and sustainable energy are topics at the heart of social and political discussions. We need clean alternatives to the fossil fuels that drive climate change and pollute the environment. Hydrogen is a possible alternative.

However, hydrogen poses a challenge to businesses and the energy sector: existing infrastructure must be converted from fossil feedstocks and energy sources, requiring significant investments. Furthermore, the efficiency and profitability of hydrogen production, especially green hydrogen, is currently limited. Hydrogen also has different combustion and corrosion properties. This changes requirements for materials used in combustion and transportation components, requiring new materials and improved designs.

Additive manufacturing for the hydrogen economy is one of the key technologies to achieve a sustainable energy transition and reduce greenhouse gas emissions. Several projects of RWTH Aachen University, IGNITER, H2MAT3D, HyInnoBurn, promote the development of hydrogen-based combustion systems through additive manufacturing technology to achieve energy utilization more efficient and more environmentally friendly.

block IGNITER Project

The objective of this project is to develop and apply a simulation-based design process for flexible fuel burners for use with hydrogen-based fuels. Additive manufacturing technology plays an important role in this process, as it enables the design and manufacturing of complex geometries that can be difficult to achieve with traditional manufacturing methods. Through a combination of simulation and additive manufacturing, researchers can optimize combustion chamber designs to meet strict emissions and performance standards. This includes:
Fuel flexibility: Burners designed to accommodate different fuel types, including natural gas and hydrogen.

Emissions control:Optimize the combustion process to reduce harmful emissions such as nitrogen oxides (NOx).

Performance optimization:Ensure the burner remains efficient and stable under various operating conditions.

block H2MAT3D project

H2MAT3D – (Analysis of the interaction between hydrogen-based combustion systems, high temperature materials and laser additive manufacturing)

RWTH Aachen University collaborates with the Institute of Technical Thermodynamics at the Karlsruhe Institute of Technology (KIT) and TU Berlin MfAM to study the complex interaction between hydrogen combustion systems and materials produced by additive manufacturing. The research focuses on identifying high-temperature materials that can improve the efficiency and stability of hydrogen combustion while pushing the boundaries of 3D printing technology.

These projects are key to advancing the understanding of hydrogen-based combustion systems and additive manufacturing, paving the way for the development of future carbon-free energy technologies.

The H2MAT3D project focuses on analyzing the interaction between hydrogen-based combustion systems, high-temperature materials and laser additive manufacturing. The research focuses on identifying and developing high-temperature materials that can improve the efficiency and stability of hydrogen combustion. This implies:

Material selection:Develop high-performance, durable and efficient materials adapted to hydrogen environments.

Multi-material additive manufacturing:By optimizing the combination of materials layer by layer, customized material properties are achieved, combining wear resistance, corrosion resistance and functionality.

Surface functionalization:Using ultra-fast coating technology, pipes and others are provided with environmentally friendly internal and external surfaces for optimal corrosion protection and reduced hydrogen penetration.

RWTH DAP▲ Understand the relevance of additive manufacturing process materials
© RWTH DAP Institute for Digital Additive Manufacturing Production at RWTH Aachen University

As part of H2MAT3D, the RWTH DAP Institute for Digital Additive Manufacturing at RWTH Aachen University and its research partners experimentally and numerically investigated the interaction between fuel-based combustion systems. hydrogen and additive manufacturing materials. This will bridge the gap between AM burner design and process-material interactions during combustion.

To achieve this, high temperature resistant materials separated from nickel-based superalloys by thermodynamically alloy selection can also be processed by additive manufacturing AM, in particular by laser powder bed fusion (LPBF) and by ultra-high laser applications. -high speed (EHLA). ) to produce materials processed by additive manufacturing processes, enabling the development of high-throughput alloys. This work relies on microstructural simulations that will provide insights into the factors influencing high temperature strength, degradation behavior and crack formation during additive manufacturing. The researchers studied samples produced during hydrogen combustion experiments and characterized them before and after operation to reveal degradation mechanisms. Experimental combustion work is complemented by combustion simulations aimed at understanding the influence of materials on flames due to thermal conductivity and surface reactions. The fundamental understanding gained in H2MAT3D will be used to coordinate additive manufacturing process conditions and high-temperature materials to achieve a more efficient combustion process. The results of this study could be used in additively manufactured combustion systems, where custom alloys and complex geometries help increase efficiency and reduce the environmental impact of the combustion process.

block HyInnoBurn Project

Developed with partners from the RWTH DAP of the Additive Manufacturing Center ACAM Aachen, the HyInnoBurn project focuses on the development of industrial gas burners optimized for safe and flexible operation with natural gas and hydrogen. Since hydrogen flames behave differently from natural gas flames, the project will develop burner geometries optimized to meet specific burner requirements, such as low emissions or safe operation in harsh environments such as steelworks. The burner must also be scalable to meet the specific requirements of different end users. Additive manufacturing is becoming the key production technology to give the burner design the greatest possible freedom as well as easy scalability.

RWTH DAP_HyInnoBurn▲HylnnoBurn Project
© ACAM Additive Manufacturing Center Aachen

Members of the HyInnoBurn project combined process analysis from the Institute of Power Plant, Steam and Gas Turbine Technology and focused on the development of a universal industrial burner for flexible operation with a mixture of fuel composed of natural gas (EG) and hydrogen.

Kueppers_SMS© Kueppers Solutions (left) and SMS-group (right)

A preliminary study of currently used burner configurations forms the basis for the development of suitable numerical and geometric models for H2 burner systems that represent the phenomenology of combustion and emission formation of different gas compositions. Through simulation and experimental analysis of the burner, flexible optimization of the hydrogen content of the fuel gas is achieved. Among them, it is crucial to realize a large number of optimization options by producing the engraver via a 3D printing additive manufacturing process.

Through these projects, RWTH Aachen University demonstrates the potential of additive manufacturing technologies to boost the hydrogen economy and enable a sustainable energy transition. These studies not only help develop more efficient hydrogen-based combustion systems, but also pave the way for the development of future carbon-free energy technologies. As technology develops and costs fall, hydrogen is expected to become a significant part of future energy supplies.

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application of 3d printing in automobile industry expected to grow

Application of 3D printing in automobile industry expected to grow rapidly

At present, the automobile industry is already the vertical industry with the largest number of 3D printing applications, and judging from the trend, the application of 3D printing in the automobile field will open up also the path to favorable development conditions.

The first is the question of the industrial chain. Under the trend of global economicization and the influence of capital’s pursuit of profit, the industrial chain of the automobile industry has expanded to many countries around the world. However, under the influence of the epidemic, some sectors of the automobile industry have faced shortages and increased transportation times.

Established automotive powers such as the United States, Germany and Japan all face a broken industrial chain. Except for some high-precision parts produced by their own companies, many other accessories need to be purchased from other countries. Additionally, through the impact of labor costs and production costs (a certain amount is needed to spread the costs), they are also able to re-establish their own supply chains. Therefore, they are currently focusing on research on 3D printing technology, hoping to produce some parts through 3D printing technology.

The rapid development of electric vehicles also promotes the application of 3D printing technology in the automobile industry. It is expected that by 2035, more than half of new cars sold will be electric vehicles and, in some countries, this proportion could reach 80%. In order to capture the market, more than 400 electric vehicles could be launched in the next eight years. This makes the development cycle very tight and 3D printing has the advantage of quickly manufacturing various prototypes during the research and development phase.

1729506612 860 Application of 3D printing in automobile industry expected to grow

Additionally, 3D printed parts can be fully topologically optimized or directly use parametric generative design to create higher performing, lighter parts. Multiple parts can also be combined into a single integrated component, reducing installation steps. Especially for electric vehicles, the weight reduction is even greater in order to increase their cruising range. Therefore, for some parts, 3D printing may cost more than parts manufactured by traditional processes, but if we take into account the costs of subsequent use, the overall cost will be lower.

In practical applications, engineers also use clever designs to offset the benefits of 3D printing. Due to casting technology, 3D printed objects will have layers on their surface, which affects their appearance. However, by designing different surface shapes, this shortcoming can be well compensated and the options can be enriched. For example, most of today’s car interiors have leather textures. 3D printing allows you to obtain different textures.

1729506612 953 Application of 3D printing in automobile industry expected to grow

Generally speaking, 3D printing will therefore have good development prospects in the automotive industry.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

how to process 304 and 316 stainless steel, and what

How to process 304 and 316 stainless steel, and what are the differences in processing techniques?

Stainless steel is widely used due to its good corrosion resistance. Currently, stainless steel is available in many grades, varying in formability, strength and workability. Among them, 304 stainless steel and 316 stainless steel are two very commonly used stainless steels.

Grade 304 stainless steel, also called A2 stainless steel, contains 18-20% chromium and 8-10% nickel. Grade 316 stainless steel, also called A4 stainless steel, contains approximately 16% chromium, 10% nickel and 2-3% molybdenum. This means that one of the biggest differences between 304 and 316 stainless steel is the presence of molybdenum in 316, while there is no added molybdenum in 304.

Molybdenum is added to resist chloride corrosion. In addition, 316 grade steel also contains traces of silicon, carbon and manganese, so 316 stainless steel is more resistant to chemical corrosion, such as fatty acids and sulfuric acid at high temperature. Additionally, 316 grade stainless steel can withstand temperatures up to 871 degrees Celsius. The thermal resistance of 304 stainless steel is slightly lower. This is why 316 stainless steel is often used in ships.

Ease of processing

304 stainless steel is easier to process than 316 stainless steel. Additionally, 304 stainless steel is easier to clean, which is why it is often used to achieve various finishes. 316 stainless steel is not only difficult to process, but also requires special tools to cut it. Therefore, 316 stainless steel is used when other stainless steels cannot meet the performance of the application.

Processing method

Processing 304 stainless steel and 316 stainless steel requires the use of heavy machinery because relatively large vibrations are generated during processing. Machining tools can be carbide or high speed steel (HSS) tools. High speed steel tools are more efficient when working at lower cutting speeds.

All 300 series stainless steels exhibit some degree of work hardening, while 316 stainless steels are more susceptible to hardening and require additional measures to prevent this. For example, use sharp tools and work at lower speeds and higher feeds. Slow processing is also required when processing 304 stainless steel. When machining complex 304 stainless steel parts, deep cuts can be achieved using high feed rates to minimize work hardening.

Currently, in order to better cut 304 stainless steel and 316 stainless steel, standardization is also carried out. At the same time, coolant is used during processing.

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deciphering 3d printing in titanium (2)

Deciphering 3D printing in titanium (2)

Deciphering the uses of 3D printed titanium metal (1)

Titanium is one of the most commonly used metals in additive manufacturing and is used in aerospace, joint replacement and surgical tools, racing and bicycle frames, electronics, and other high-quality products. performance. Titanium is valued for its high mechanical strength, high strength-to-weight ratio and better corrosion resistance than stainless steel.

Titanium reduces the weight of rockets and aircraft, saving fuel and increasing payload capacity. This also makes it easier to use smartphones andThe weight of electronic products such as VR glasses; the same goes for medical implants. And when you combine the inherent qualities of titanium with its unique capabilities during 3D printing, the benefits multiply.

Deciphering 3D printing in titanium 2

3D printed titanium parts: hip joints from GE Additive, fan blades from Sciaky, rocket tips from Arcam Darker, titanium mesh components from 3D Systems, titanium stents from EOS, surgical spinal implants from Zenith Tecnica .

3D printing can make this expensive metal more efficient, reducing raw material consumption and waste. As an additive technology, metal 3D printing typically uses only the amount of material needed to manufacture the part and a relatively small amount of supporting structural material.

3D printing can also enable complex designs such as internal channels and hollow or mesh-filled parts to reduce weight. These capabilities are unattainable with any other manufacturing method, and because no molds or tools are required, titanium 3D printing can cost-effectively create unique parts, such as implants, prototypes, and specific research tools to the patient.

There are many examples of 3D printed titanium alloys promoting the development of manufacturing, healthcare, space exploration and other fields. Let’s take a look at why titanium alloys are so suitable for additive manufacturing.

Characteristics of titanium alloy for 3D printing

1729503985 76 Deciphering 3D printing in titanium 2

3D printed titanium wheels produced by Atherton Cycles (Source: Atherton)

When using titaniumWhen 3D printed, titanium retains all of its mechanical properties and may even have more advantages.

will be presented belowThere are different methods for 3D printing titanium alloys, but methods using lasers and electron beams subject titanium alloys to complex, multifaceted heat treatment cycles that affect the mechanical properties of the material. It is difficult to draw conclusions about these processes because every laser 3D printer is different, materials vary, and there are many possibilities for fine tuning. However, much research has been conducted in this area recently, most of which highlights the excellent structural integrity of 3D printed titanium parts.

For example, Materials magazineA 2020 study compared 3D printed titanium dental implants to cast components. The study found that the mechanical properties, physical properties, corrosion resistance and surface properties of the 3D printed parts were equivalent to or superior to those of the cast samples.

More recent research has concluded that the printing parameters used, such as the temperature versus time profile of a laser or electron beam delivered to the raw material, have a significant impact on the mechanical properties of the final piece. This article in the Journal of Materials Engineering and PerformanceA 2024 study found that varying laser power and scanning speed determined the overall strength and hardness of titanium parts. The corrosion resistance of parts made of Ti-6Al-4V alloy improved with increasing laser power, but deteriorated with increasing scanning speed.

MetalData released in 2021 by 3D printer manufacturer MELD Manufacturing confirms that its process, which does not use lasers or electron beams, can produce titanium meeting ASTM and AMS standards for forged materials.

1729503986 676 Deciphering 3D printing in titanium 2

Zenith Tecnica is a contract manufacturer specializing in titanium 3D printing. The company produces custom titanium parts (Source: Zenith Tecnica).

This data was obtained from the National Manufacturing Science Center(NCMS), the Army Research Laboratory (ARL), and the Advanced Manufacturing, Materials and Processes (AMMP) program and tested using the material Ti-6Al-4V (Ti64), also known as ‘ASTM Level 5. Data shows that the printed material exceeds the minimum requirements for yield strength, ultimate tensile strength, and elongation specified by ASTM standards in all axes, including the Z direction of the printed layer.

Learn more about titanium

1729503986 287 Deciphering 3D printing in titanium 2

Titanium powder (source:PyroGenesis Additive)

Pure titanium is not typically used in engineering applications, but it is common in the biomedical market, where it is used to make components such as knee and hip implants. Titanium-based alloys (mixtures of controlled metal compositions that impart specific mechanical properties) are widely used in many industries where very specific component properties must be achieved. Metal material suppliers have long supplied manufacturers with titanium for castings and now offer specially formulated titanium powders for additive manufacturing.

1729503986 576 Deciphering 3D printing in titanium 2

Metals at the University of Washington’s Center for Earth Abundant Materials Deployment and ResearchA 3D printing lab uses titanium to create parts (Source: University of Washington)

Titanium alloys for additive manufacturing

Titanium alloy grade 5 6Al-4VIt is the most commonly used titanium alloy in additive manufacturing and is ideal for prototypes and functional parts in the aerospace and automotive industries, as well as military applications. It is also an excellent material for manufacturing parts with complex geometries and precisions, as well as production tools.

Titanium grade 23 6Al-4VIs a biocompatible alloy commonly used in medical implants and prosthetics.

Titanium alloyBeta 21SThe strength is higher than traditional titanium alloys (e.g.Ti-6Al-4V) and exhibits excellent resistance to oxidation and creep compared to traditional titanium alloys such as Ti-15V-3Cr. Grade 21 titanium alloy has one of the lowest hydrogen absorption efficiencies of all titanium alloys. It is ideal for orthopedic implants and aerospace engine applications. Beta titanium is widely used in orthodontics.

Cp-Ti (pure titanium), grade 1, 2Due to the biocompatibility of titanium with the human body, it has a wide range of applications in the medical field.

TA15is a relativeAlpha titanium alloy with added aluminum and zirconium. TA15 components have high specific strength, high load capacity and high temperature resistance, and can be used as robust components in aircraft and engine manufacturing.


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establishing the automotive additive molding advisory committee to advance 3d

Establishing the Automotive Additive Molding Advisory Committee to Advance 3D Printing Technology in Collision Repair

At the CIECA CONNEX 2024 conference in Detroit, Michigan, Auto Additive announced the formation of a new advisory committee aimed at accelerating the integration of 3D printing technology into the collision repair industry. The committee, made up of industry leaders, aims to develop a roadmap to help repair shops use 3D printing technology to produce high-quality, equipment-compliant parts, tools and jigs. original (OEM). This initiative aims to increase efficiency and accuracy during the restoration process.

Establishing the Automotive Additive Molding Advisory Committee to Promote 3D Printing Technology in Collision Repair

Standardization and industrial cooperation

One of the primary goals of the advisory committee is to drive industry-wide adoption of OE-compliant parts. By working with insurance companies, training providers, original equipment manufacturers (OEMs) and repair shops, the committee aims to improve the understanding and application of 3D printed parts in the process repair. “This program is designed to streamline the remediation process, reduce costs, maintain high standards of safety and quality, while also benefiting the environment,” said committee Chairman Harold Sears.

The committee also focuses on localized 3D printing of low-volume parts. This localized production approach is designed to reduce waste and costs for OEMs and aftermarket parts suppliers. The automotive additive molding company has adopted blockchain technology to ensure intellectual property protection and transparency within its global network of 3D printing partners, who are also adopting the same technology as OEMs for their own 3D printing needs. manufacturing.

Sustainability and Innovation in Collision Repair

Automotive additive molding companies are launching a series of innovative initiatives to make the auto repair industry more sustainable. One example is the development of weldable polypropylene repair parts that allow repair shops to repair damaged headlights rather than replacing them. This reduces material waste and is in line with industry efforts to reduce the environmental footprint of repairs. The automotive additive molding company also provides additive supply chain services to customers who have their own inventory of computer-aided design (CAD) or digital parts, and the company manages their printing needs in the part of its broader services.

The company’s commitment to sustainability is also demonstrated by its membership in the Additive Manufacturing Green Trade Association (AMGTA). Automotive additive molding companies are actively participating in environmental case studies exploring the benefits of 3D printing in collision repair, with the aim of highlighting the long-term sustainability benefits this technology can provide.

Industry engagement and pilot projects

The automotive additive molding company is currently working with several pilot customers, including Canada’s Uni-Parts, US-based Phares.com, 4Plastic and Boyd Group. These partnerships are designed to test the impact of 3D printed parts, tools and jigs in real-world collision repair scenarios. The company is also in talks with key industry players to further evaluate the role of 3D printing in design, supply chain management and manufacturing processes.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

multi layer 3d printed houses in the netherlands launched with prices

Multi-layer 3D printed houses in the Netherlands launched with prices starting at 570,000 euros

The potential of 3D printed architecture continues to evolve, with new projects demonstrating increasingly complex structures. An upcoming development in the Netherlands will push the boundaries of 3D printing with homes that will be built over three floors and will be more flexible than the more common single-story 3D printed homes.

Dubbed Milestone Project, the team behind the project also built the Netherlands’ first 3D printed house in 2021, which is shaped like a rock. Like its predecessor, the new residence will have an organic rock-shaped design that harmonizes with the natural surroundings of Boschuil in Eindhoven.

Although multi-layer 3D printed houses are still rare, they are not a completely new concept. Previous examples include a concrete residence with a wooden upper story and a two-story research prototype. However, Project Milestone’s latest effort takes this concept to the next level by creating multiple 3D printed habitable floors.

Multi-layer 3D printed houses appear in the Netherlands

Construction process and specifications

To build the houses, a 3D printer will extrude a cement-like mixture through a nozzle, layer by layer, to form the multi-part structure. The sections will be prefabricated at the factory and shipped to the site, where construction workers will assemble the sections and complete the interior, doors, windows and roof. This hybrid approach demonstrates the collaboration between cutting-edge technology and traditional construction methods.

The project will consist of four residences divided into two models. The first design will span three floors with a total floor area of ​​127 m² (1,370 square feet), while the second design will have two floors and 114 m² (1,230 square feet) of floor space. Each residence will have three bedrooms, accommodating families of up to four people.

market supply

These innovative 3D printed houses are already on the market, with prices ranging from €570,000 to €655,000 (approximately US$630,000 to $730,000). Construction is expected to begin in early 2025 and be completed by mid-2025.

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Product Introduction of UM180 Metal 3D Printer

UM180

UM180Product Introduction of Metal 3D Printer

It is used in rapid prototyping of small batches of metal parts in educational and scientific research institutes, as well as for industrial applications such as medical treatments and molds.

Hardware support:Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.

Forming dimensions:180 mm × 180 mm × 165 mm (excluding substrate thickness)

Equipment overview:

  1. The UM180 series has the advantages of compact body, high integration, wide range of forming materials, fully open parameters and low operating costs. It is suitable for customer education, scientific research, R&D and continuous production. Due to the different lasers used, they are divided intoTwo series:
    The UM180-E uses domestically produced lasers and is mainly aimed at colleges and universities for practical training, teacher training and scientific research industries.
    The UM180-M, which uses imported lasers, is primarily designed for rapid prototyping of small batches of metal parts for medical, casting and other industrial applications.

Performance Settings:

Forming size

180 mm × 180 mm × 165 mm (excluding substrate thickness)

Forming speed

5-25cm³/h (related to part shape, size, material and printing parameters)

laser

RFL-500 W/IPG500 W (optional)

Layer thickness range

20-80μm

Spot diameter

50-100μm (adjustable)

Inert gas consumption

Ar or N2, ≤ 3 L/min

Scanning galvanometer

Scanning laboratory

Control of oxygen content

≤100ppm

Scan speed

Maximum 7m/s

Powder delivery method

Send powder below

Substrate heating

Maximum 200℃, control accuracy ±2℃

optional materials

Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.

Filtration system

Long-life high-efficiency external filtration system/integrated high-efficiency filtration system

Equipment size

1000 mm × 900 mm × 1900 mm (length x width x height)

Quality control

APP Remote Print Monitoring (Optional)

Power Requirements

AC 380 V ± 5%, 50 Hz, 4 kW, three-phase five-wire system

Scraper type

Rubber scraper, ceramic scraper

Equipment weight

Around 1000kg

Printing by graft

support

application software

Additive Magcis / Voxeldance 等;

Functional advantages:

(1) Multiple iterations

After a large number of application checks, the equipment works maturely and stably.

(2)Advanced flow field design

Cooperate with professional institutions to repeatedly optimize the flow field design, thereby significantly improving the forming quality.

(3) Top-notch basic components

The core components are all manufactured from leading industry brands to ensure long-term operational stability.

(4)Modular design

open layout

Operation and maintenance are more convenient

(5) High degree of open source

All process parameters are editable, giving users greater freedom of use.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

what is paht cf filament? why use it for printing?

What is PAHT-CF filament? Why use it for printing?

what isPAHT-CF? EveryoneI might think it has carbon fiber(CF) to high temperature (HT) nylon (PA), but this can be confusing. It turns out that PAHT has become a generic term for a range of polyamides.

HT means high temperature

What is PAHT CF filament Why use it for printing

picture1: A series of practical prints made using Bambu Lab’s PAHT-CF filament (Source: Bambu Lab)

One thing that manufacturers generally agree on is thatHT refers to high temperature. This shows that parts made from PAHT filaments can withstand high temperatures and maintain their mechanical properties.

From a technical point of view, you can expectTwo key areas of the PAHT datasheet have higher measurements: glass transition temperature (Tg) and thermal distortion temperature (HDT).

glass transition temperature(Tg) is the temperature at which a polymer begins to change from a rigid state to a more flexible state. Thermal deformation temperature (HDT) is the temperature at which a polymer begins to deform under a specific stress. It is also known as the deflection temperature under load (TgUL). Therefore, you will often see HDT temperatures combined with stress measurements such as 1.8 MPa.

What type of nylon does PAHT contain?

1729501220 182 What is PAHT CF filament Why use it for printing

picture2:PAHT-CF filament, like that from Bambu Lab, is ideal for high temperature applications and can reach temperatures up to 194°C, much hotter than a cup of coffee (Source: Bambu Lab)

MiscellaneousSome technical data and properties of PAHT materials vary considerably due to the wide variety of nylons on which the material is based and the wide variety of blends of nylons with other polymers.

First, let’s see what nylon is. Most filament manufacturers use the termPA refers to nylon, whether PA6, PA66, PA11 or PA12. But more specifically, PA refers to a class of polymers called polyamides. All nylon is polyamide (PA), but not all polyamides are nylon.

So when it comes toWhen it comes to PAHT, PA can be PA6, PA66, PA11, PA12, or PPA which you may not have heard of (although some may argue that PPA isn’t even nylon in the strictest sense of the term).

Polyphthalamide(PPA) is a high performance polyamide with excellent thermal stability and chemical resistance. It usually, but not always, has higher tensile strength and stiffness than nylon 6, 66, 11 or 12. Another notable characteristic of PPA is that it has a higher Tg, melting point and strength at high temperatures higher than other nylons. In fact, it was once commonly referred to as “high temperature nylon”, so people may have thought PAHT was just another term for PPA.

“The term PAHT (high temperature polyamide) has emerged in the 3D printing industry in recent years, initially referring to PPA-based filaments,” said Mark Peng, founder of filament manufacturer Siraya Tech. “It should be noted, however, that the use of this term has become somewhat vague. Some manufacturers now use PAHT to describe filaments made from other high temperature resistant polyamides, such as PA12 (nylon 12) or PA6. These filaments strictly speaking, Silk is not a PPA.

Siraya Tech will launch a new PAHT-CF based on PPA at the end of November 2024, with a carbon fiber content of 25%. The product is called Core Black ($99/kg) and the carbon fiber is more abundant in the core of the filament, hence the name.

It should be notedBambu Lab produces a PAHT-CF, where the nylon is mainly PA12, but also just released a PPA-CF with higher HDT, strength and stiffness.

Polymer composition of PAHT-CF

1729501221 190 What is PAHT CF filament Why use it for printing

picture3:

Therefore, yourPAHT can be a variety of nylons, or in the case of Bambu Lab and Luvocom, a blend of nylons, but how important is that really? Let us then examine the mechanical properties (strength, flexibility, impact resistance) of the different PAHTs.

Range of mechanical properties of PAHT

1729501221 752 What is PAHT CF filament Why use it for printing

picture4:Chinese startupsPhaetus manufactures a range of hot, extruder and engineering grade polymer filaments, including this PAHT-CF (Source: Phaetus)

The mechanical properties of PAHT-CF should be closely related to the type of nylon it is based on and the carbon fiber content. For example, the tensile strength of PA6 (45-80 MPa) is generally lower than that of PPA (80-120 MPa), but the tensile strength of Luvocom, which is based on PA blend, is higher than that of QiDi Tech. , which is based on PPA.

The PAHT-CF has the following advantages:

High strength

High toughness

High rigidity

High impact resistance

chemical resistance

heat resistance

Wear resistance

matte finish

antistatic

ExcellentPrintAdaptability

For carbon fiber infused nylon,The Bambu Lab material also exhibits unusually high flexibility (elongation at break + Young’s modulus), which TDS says can be attributed to the base material being PA12 and “other long-chain PAs.”

All these different measurements highlight the fact that filament is a mixture of materials and no two recipes are the same, which is why having a complete rangeTDS is so important.

Therefore, if different brandsPAHT-CF has different properties, so what do they have in common or why is PAHT-CF even used?

1729501221 78 What is PAHT CF filament Why use it for printing

Figure 5

Really attractive properties of PAHT-CF

1729501223 903 What is PAHT CF filament Why use it for printing

picture6:Qidi Tech’s wet and dry nylon filament comparison chart shows PAHT’s resistance to the generally harmful effects of moisture (Source: Qidi Tech)

Bambu Lab stopped production of PA-CF in 2022 and switched to PAHT-CF, which other filament manufacturers often compare to PA-CF to highlight one main attribute: extremely low moisture absorption.

If you don’t like dry materials, you probably won’t be successful with any type of nylon.

It is generally recommended to keep nylon dry and dry before use as it easily absorbs moisture from the air. Even after drying, nylon left in a humid environment is difficult to recover.PAHT is a more moisture tolerant nylon. It absorbs up to 50% less water than regular PA-CF, but that doesn’t mean you’ll never need to dry PAHT. Staying dry is always recommended.

Be careful not to overdry the nylon, however. Peng points out that if the filament is already dry, leaving it at high temperature for several hours can causeThe PPA crystallizes, as during annealing. This may make printing too difficult.

“The importance of keeping nylon/PAHT dry cannot be overstated,” says Peng. “In order to effectively remove moisture, the temperature must be kept above 100°C for several hours, but most filament dryers on the market can only reach a maximum temperature of 70°C, which is probably not suitable for drying PA filaments. Words are not enough. »

This is why if you do not have the necessary equipment to effectively eliminate humidity, keepThe dryness and tightness of the PAHT are essential.

In addition to moisture resistance, andPAHT parts can certainly withstand higher temperatures than PA-CF, but the mechanical properties will also vary depending on the type of PA used.

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l'impression 3d pour les patientes atteintes d'un cancer du sein

3D printing for breast cancer patients

Being a woman is the main risk factor for breast cancer. Although men are also affected (accounting for about 1% of cases each year) 1%), by 2022, breast cancer will remain the most common cancer in women. On average, one in 12 women will develop breast cancer in her lifetime, with mortality rates higher in developing countries than in industrialized regions, according to the World Health Organization. In 2022, 2.3 million women will be diagnosed worldwide and 670,000 will die from it. Breast cancer is characterized by the uncontrolled growth of abnormal cells that can spread if left untreated.

Therefore, early detection and information about available treatments are essential to reduce these numbers. That is why October is designated Breast Cancer Awareness Month and October 19 is World Breast Cancer Day. During this period, awareness, prevention and treatment initiatives have multiplied all over the world. In addition, a growing number of companies and research institutes are working on developing new technologies to improve the care provided to women with this cancer, including through 3D printing. Here are some examples of current projects where 3D printing is used in the treatment of breast cancer.

Regenerative implants from CollPlant and Stratasys

Many breast reconstruction surgeries often rely on limited amounts of tissue from human or animal cadavers. CollPlant’s innovative 3D bioprinting technology overcomes this limitation and offers more patients the opportunity for breast reconstruction. This year, CollPlant partnered with Stratasys to launch preclinical research into regenerative breast implants. By combining Stratasys’ Origin System with CollPlant’s rhcollagen biotin, the implants will be tested to see if they can regenerate natural breast tissue without eliciting an immune response. CollPlant noted that the 3D implants exhibit excellent vascularization and connective tissue ingrowth. Results of this collaboration will be announced in the second quarter of 2025.

Limpression 3D pour les patientes atteintes dun cancer du sein

Image source: Stratasys

France Prothèses MATTISSE

Based in Lille After six years of research, Lattice Medical has consolidated its position as a leader in innovation with 12 patents. It has developed MATTISSE, a breast bioprosthesis combining 3D printing, advanced biomaterials and tissue engineering technologies. The device not only achieves ideal volume and shape, but also facilitates the regeneration of breast tissue. MATTISSE is the result of additive manufacturing of resorbable biomaterials that promote the regeneration of autologous adipose tissue. Once implanted, the prosthesis naturally integrates into the body, allowing tissues to regenerate in six months, after which it dissolves completely without leaving any residue. To learn more about Lattice Medical’s activities and its use of 3D printing in the treatment of breast cancer, discover our exclusive interview:

healing form

Founded in Lyon in January 2020, Healshape is a biomedical start-up specializing in breast reconstruction and augmentation using bioprinting. The company’s goal is to “develop natural breast reconstruction solutions for every woman”, targeting the 40% of the 2.2 million women diagnosed with breast cancer who require a mastectomy (2020). Like Lattice Medical, it offers a fully personalized bioprosthesis called UR SHAPE, which is a “100% natural matrix composed of bio-sourced (3D printable) and resorbable materials”, which, thanks to the use of ink, promotes tissue regeneration in each woman. Once implanted, doctors can inject the patient’s own cells using fat augmentation. Only one operation is therefore necessary. The cells will then take the shape of the bioprosthesis and will be able to reconstruct the breast tissue. After several months of work, the implants will be able to resorb, leaving only the patient’s own cells, which should then be able to return to her breasts. In 2023, the company announced a partnership with the Western Cancer Research Institute in Loire, France.

Isolating invasive cancer cells

A research team from the University of Girona has managed to isolate the cells responsible for breast cancer in women. They 3D printed tiny matrices called scaffolds to reproduce the tissues and fibers of the body. They used the BCN3D Cura software and the Sigma 3D printer from the Barcelona manufacturer to test different parameters to create the best model for the study. They made 10 copies of each structure to see which geometry best isolated the stem cells that cause the relapse. By isolating the stem cells, researchers will be able to study them better, find biomarkers that contribute to tumors and target them with drugs.

1729500879 733 Limpression 3D pour les patientes atteintes dun cancer du sein

Photo credit: BCN3D

BellaSeno Launches Innovative 3D Resorbable Implant for Breast Reconstruction

BellaSeno, a German pioneer in the field of 3D printing of medical implants, is developing resorbable implants for bone and soft tissue reconstruction manufactured by 3D printing.

Cette année, organisée à San Diego, laBellaSeno a présenté les résultats préliminaires de son essai clinique lors de la 93e réunion annuelle de la Plastic Surgery Association. Les données ont montré que son échafaudage en polycaprolactone de qualité médicale (mPCL) permettait une préservation du volume mammaire deux fois supérieure à celle de la greffe de graisse seule. Ces stents ont également démontré une sécurité optimale, sans complications telles qu’infection ou nécrose. Dans cette étude, 19 patientes ont reçu des stents mammaires mPCL remplis à 50 % de greffe de graisse autologue après retrait des implants en silicone. Un suivi de 12 à 24 mois n’a révélé aucune complication majeure.

en même temps,BellaSeno prévoit d’ouvrir une usine de production entièrement automatisée en Australie en 2025. L’usine est spécialisée dans l’impression 3D d’implants médicaux et produira jusqu’à 100 000 stents mammaires personnalisés par an, offrant ainsi des solutions personnalisées.

1729500879 340 Limpression 3D pour les patientes atteintes dun cancer du sein

Crédit photo : Bella Señor

Personnalisé par l’Université de LimerickImplants mammaires imprimés en 3D

Des chercheurs de l’Université de Limerick en Irlande ont annoncé ce qu’ils pensaient être« Première au monde » : utilisation de la numérisation et de l’impression 3D pour créer des implants mammaires personnalisés pour les femmes ayant subi une mastectomie. Le service pilote, une collaboration entre le centre d’innovation rapide de l’Université de Limerick (UL), le centre de soins symptomatiques du sein de l’hôpital universitaire de Limerick (UHL) et le centre de radio-oncologie du Midwest du Private Mater Network, espère améliorer la qualité de vie des patients. Survivantes du cancer du sein. Essentiellement, les femmes ayant subi une mastectomie complète auront accès à des implants entièrement personnalisés qui seront fabriqués sur place au point de service et s’adapteront parfaitement au sein restant, quelles que soient leur forme et leur taille. Bien que les chercheurs n’aient pas précisé quelle technologie d’impression 3D était utilisée, ils ont mentionné que ce traitement espérait remédier à l’absence d’une approche « taille unique », qui est la norme actuelle. Le projet vise également à fournir des solutions prothétiques sur mesure dans toute l’Irlande.

L’équipe derrière le projet UL (de gauche à droite) : Emmajude Lyons, chercheuse doctorante, unité d’innovation rapide, Université de Limerick ; Dr Lorraine Walsh, consultante en radio-oncologie, réseau privé Mater Limerick ; M. Chwanrow Baban, consultant général du sein et du centre hospitalier universitaire de Limerick ; Chirurgien oncoplastique, Département de chirurgie mammaire ; et Dr Kevin J O’Sullivan, chercheur principal, Unité d’innovation rapide (Crédit image : Université de Limerick).

Les implants imprimés en 4D s’adaptent au corps et libèrent des médicaments

Université Queen’s de BelfastUne équipe de chercheurs du (QUB) a utilisé Tinkercad et Celllink Bio pour utiliser l’impression 4D dans des implants qui présentent non seulement l’avantage d’être esthétiques, mais également la capacité de libérer progressivement des médicaments à des endroits très précis. Ce médicament de chimiothérapie (doxorubicine ou DOX) aide les patients à prévenir la réapparition des cellules cancéreuses.

1729500879 455 Limpression 3D pour les patientes atteintes dun cancer du sein

Crédit photo :VIEUX

Un appareil à ultrasons imprimé en 3D pourrait lutter contre le cancer du sein

Une équipe de chercheurs du MIT a créé unL’équipement d’impression 3D pourrait aider à lutter contre le cancer du sein. Cet appareil à ultrasons est conçu pour permettre une détection précoce du cancer du sein. Le cancer d’intervalle est une préoccupation pour les médecins et les patients. Ces tumeurs se développent rapidement entre les mammographies régulières et sont plus agressives que les tumeurs détectées de manière conventionnelle. Canan Dagdeviren, l’auteur principal de l’étude, a expliqué que son objectif était de concevoir un dispositif permettant un dépistage plus fréquent des groupes à haut risque. Le « cUSBr-Patch » est un patch imprimé en 3D avec des ouvertures qui permettent une numérisation en profondeur et une imagerie du sein sous différents angles. Créé à partir de TPU et de PLA à l’aide d’une imprimante 3D Prusa i3 MK3S+, l’appareil se fixe à un soutien-gorge et aide à lutter contre ces cancers d’intervalle.

1729500880 474 Limpression 3D pour les patientes atteintes dun cancer du sein

Crédit photo : MIT

ONEBra et impression 3D de bonnets de soutien-gorge après un cancer du sein

ONEBra est une jeune entreprise italienne qui propose des solutions aux femmes ayant subi une mastectomie après un cancer du sein. En effet, l’asymétrie mammaire provoquée par cette chirurgie entraîne souvent des difficultés psychologiques supplémentaires pour la patiente. C’est pourquoi ONEBra a développé des bonnets de soutien-gorge personnalisables et imprimables en 3D qui s’adaptent à la physiologie de la femme. Les clients peuvent scanner leur corps à la maison et envoyer les images à l’entreprise, qui imprimera ensuite en 3D des bonnets de soutien-gorge personnalisés et les expédiera au domicile des patients. Grâce à la fabrication additive, les produits peuvent être expédiés dans des délais courts et dans le plein respect de la vie privée.

1729500880 319 Limpression 3D pour les patientes atteintes dun cancer du sein

Le bonnet imprimé en 3D de ONEBra est fabriqué avec la technologie HP MJF et le TPU (Crédit photo : ONEBra)

ReConstruct Bio fait progresser la reconstruction naturelle du sein

Fondé par le Wyss Institute de l’Université Harvard, ReConstruct Bio utilise la technologie de bio-impression 3D SWIFT développée par l’institut pour se concentrer sur la reconstruction et l’augmentation mammaires chez les femmes ayant subi une mastectomie. L’équipe a conçu des bioimplants, qui sont des tissus issus de la bio-ingénierie fabriqués à partir des propres cellules du patient. Le tissu a été imprimé selon la méthode SWIFT et présente une vascularisation qui favorise une intégration immédiate dans le réseau sanguin du patient. En utilisant les propres cellules du patient, cette approche réduit également le risque de rejet et d’autres complications. Selon ReConstruct Bio, la technologie donne de meilleurs résultats que les implants mammaires synthétiques et peut être appliquée à la reconstruction et à l’augmentation mammaire, ainsi qu’à d’autres chirurgies reconstructives ou esthétiques.

1729500880 461 Limpression 3D pour les patientes atteintes dun cancer du sein

Image microscopique des canaux vasculaires du tissu adipeux, bio-imprimés ex vivo et perfusés pendant quatre jours. Source de l’image : Université HarvardInstitut Weiss

Bioimplants imprimés par Cellbricks

De nombreuses femmes qui subissent une chirurgie du cancer du sein choisissent de se faire implanter des implants après la chirurgie. Traditionnellement, ces implants sont en silicone, mais ils risquent d’être encapsulés par l’organisme, ce qui nécessitera leur retrait au bout d’un certain temps. Pour proposer une alternative aux implants en silicone, startupCellbricks développe des implants de tissus humains. Cellbricks utilise sa technologie unique de biofabrication pour imprimer des implants avec des cellules humaines, dont certaines proviennent directement du patient. Le succès de cette approche repose sur l’utilisation de bio-encres, de processus de bio-impression par stéréolithographie multi-matériaux et de logiciels et technologies de pointe.

1729500880 397 Limpression 3D pour les patientes atteintes dun cancer du sein

Crédit photo :Briques cellulaires

L’impression 3D de microtumeurs pourrait améliorer les capacités de lutte contre le cancer

Des chercheurs du Centre universitaire de Leiden pour la recherche sur les médicaments ont réussi à reproduire des tissus humainsDes tumeurs miniatures ont été imprimées en 3D pour évaluer l’efficacité de l’immunothérapie anticancéreuse. Ces thérapies comprennent des lymphocytes T modifiés, des cellules immunitaires spécialisées qui peuvent attaquer les cellules cancéreuses et des anticorps bispécifiques qui permettent aux lymphocytes T de localiser et de tuer plus facilement les cellules tumorales.

micro tumeurL’impression 3D fournit aux chercheurs des modèles plus réalistes pour étudier les interactions en immunothérapie. Les tumeurs microscopiques intégrées dans le gel de collagène imitent mieux le comportement des tumeurs humaines. L’équipe a utilisé une bio-imprimante 3D pour injecter des cellules tumorales dans le gel, créant ainsi de petites tumeurs 3D qui se développent et envahissent leur environnement comme elles le feraient dans le corps. Les lymphocytes T sont ensuite ajoutés et surveillés à l’aide d’un microscope automatisé. Cette méthode de test a prouvé son efficacité, permettant aux chercheurs d’identifier des anticorps prometteurs. En outre, ils collaborent avec le laboratoire d’immunologie Reno Debets du centre médical Erasmus de Rotterdam pour tester de nouveaux récepteurs pour le traitement du cancer du sein triple négatif.

Université d’East Anglia et son approche de la reconstruction mammaire

Université d’East Anglia(UEA) Des recherches récentes étudient comment l’impression 3D peut être utilisée pour améliorer la chirurgie de reconstruction mammaire chez les patientes atteintes d’un cancer. Le projet vise à utiliser des scans 3D des seins de patientes pour créer des moules personnalisés avant la chirurgie, ce qui facilite les mesures des tissus et optimise la forme et le volume pendant la reconstruction. Cela améliore la qualité et la rapidité des opérations. Un autre aspect de la recherche consiste à utiliser les données IRM pour concevoir des implants personnalisés imprimés avec des polymères biodégradables. Ces implants seront utilisés pour la chirurgie mammaire conservatrice, qui consiste à retirer la tumeur tout en préservant autant que possible le tissu et la forme du sein. L’implant 3D est ensuite inséré dans le corps et se dégrade progressivement après avoir été injecté avec la propre graisse du patient.

1729500881 639 Limpression 3D pour les patientes atteintes dun cancer du sein

Source de l’image : Université d’East Anglia

Ricoh etSimBioSys combine intelligence artificielle et impression 3D pour traiter le cancer du sein

Ricoh America Inc. Becomes Leader in Personalized Medical Device Manufacturing Ricoh 3D for Healthcare has signed an agreement with SimBioSys, a technology company specializing in artificial intelligence and computational modeling, to jointly explore new technologies for the treatment of breast cancer. The collaboration focuses on evaluating the potential of artificial intelligence combined with advanced 3D printing to improve the surgical experience and personalized care for breast cancer patients. At the American Society of Breast Surgeons meeting in April 2024, Ricoh and SimBioSys demonstrated their initial advances by launching an innovative breast cancer model. While details of the technology used remain confidential, the collaboration is expected to provide innovative solutions for the treatment and management of breast cancer.

1729500881 471 Limpression 3D pour les patientes atteintes dun cancer du sein

Photo credit: SimBioSys

ZULE offers alternative to 3D printed breast implants

Last year In October, the ESPOL (Escuela Superior Politécnica del Litoral) of Ecuador launched the ZULE project, which uses 3D printing to create personalized external breast implants. This technology makes it possible to design a prosthesis that perfectly adapts to the anatomy of each patient, guaranteeing comfort and a natural appearance. A team led by Professor Gabriel Helguero developed a process combining 3D scanning and modeling to allow each prosthesis to match not only the patient’s dimensions, but also the scar. During the presentation of the project, the importance of early detection of breast cancer was highlighted. Cecilia Paredes, Rector of ESPOL, also highlighted how this research guided by additive manufacturing technology can change lives and contribute to the well-being of patients.

1729500881 663 Limpression 3D pour les patientes atteintes dun cancer du sein

Source of images: ESPOL/Higher Polytechnic School of the Coast

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

Product Introduction of UM250 Metal 3D Printer

UM250

UM250 metal 3D printer

Used in aerospace, medical, automobile, electronics, molds, scientific research institutes, etc.

Hardware support:Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.
Forming dimensions:255 mm × 255 mm × 310 mm (excluding substrate thickness)

Equipment overview:

——

The UM250 uses self-developed control software, optimized scanning paths and adheres to the open source concept. Customers can adjust the printing process parameters according to their own needs and carry out process customization development. All key components are imported high-end brands to guarantee. long-term stable operation of the equipment; It can achieve large-scale thick-film printing, greatly shortening the processing time by using a new sealing system, the chamber pressure is stable during the printing process and the oxygen content in the molding cylinder is controlled at a minimum of 100 ppm during the printing process; it supports the recycling of shielding gas, reducing gas consumption and reducing equipment operating costs; During the printing process, the equipment parameters are displayed in real time, the process parameters are traceable, and the operation is convenient.

Equipment parameters:

Forming size

255 mm × 255 mm × 310 mm (excluding substrate thickness)

laser

IPG 500W

Spot diameter

60-100μm (adjustable)

Scanning galvanometer

Scanning laboratory

Scan speed

Maximum 7m/s

Forming speed

5-25cm³/h (related to part shape, size, material and printing parameters)

Layer thickness range

20-100μm

Inert gas consumption

Ar or N2, ≤3L/min

Control of oxygen content

≤100ppm

Powder delivery method

Send powder below

Substrate heating

Maximum 200℃, control accuracy ±2℃

Scraper type

Ceramic scraper, rubber scraper, high speed steel scraper (optional)

Printing by graft

support

Quality control

Monitoring of powder spreading; remote print monitoring (optional)

optional materials

Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.

Power Requirements

AC 380 V ± 5%, 50 Hz, 6.5 kW, three-phase five-wire system

Equipment size

1930mm × 1230mm × 2070mm

Equipment weight

approximately 1600kg

application software

Additive Magcis / Voxeldance 等;

Functional advantages:

(1) Multiple iterations

After a large number of application checks, the equipment works maturely and stably.

(2)Advanced flow field design

Cooperate with professional institutions to repeatedly optimize the flow field design, thereby significantly improving the forming quality.

(3) Top-notch basic components

The core components are all manufactured from leading industry brands to ensure long-term operational stability.

(4) Three-stage filtration system

The lifespan of the filter element reaches more than 1500H

(5) Unique redundant design of oxygen sensor

Timely feedback on the printing process to ensure key parameters

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

this bike features a fully 3d printed titanium frame

This bike features a fully 3D printed titanium frame

A British bicycle manufacturer has launched aA new bike with a 3D printed titanium frame.

The Allroad Ti from Ribble Cycles is a hybrid cyclocross bike with a frame made from metal laser powder bed fusion (LPBF). This design has several advantages, the main one being that the frame tubes are more aerodynamic than those used on standard bikes.

to use3D printing also allows Ribble Cycles to control the thickness of these tubes, making them thinner or thicker for “optimal strength, rigidity and power transfer.” This also gives the frame a better strength-to-weight ratio than other, more common materials. Here, Ribble Cycles compares a titanium frame to a carbon fiber frame, albeit “stronger and more compliant.”

Weldless Allroad Ti frame from Ribble Cycles (Source: Ribble Cycles)

This technology also allowsA big contribution to the aesthetics of the Allroad Ti is that the weld lines are almost invisible. Combined with the bike’s ‘invisible cable routing’, you get a machine that is both traditional and forward-thinking, streamlined and futuristic, while remaining true to the core principles of Ribble Cycles – principles truly ingrained since the inception of the company in 1897.

Depending on the configuration,The Allroad Ti costs between $5,000 and $12,000. It can (and does seem) expensive, but it’s worth noting that the cycling media always emphasizes that this bike is relatively affordable.

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

3d printing makes hospital surgical planning easier

3D printing makes hospital surgical planning easier

3D technology is now essential for planning and carrying out complex surgical procedures, providing doctors with high precision to meet the challenges they encounter. In surgery, particularly in particularly delicate procedures such as spine surgery, 3D printing can produce precise replicas of the affected anatomical areas. This approach can facilitate more accurate planning and help reduce the risks associated with these procedures. The growing success of these technologies is pushing more and more hospitals around the world to adopt them. Recently, according to Mohou.com,The General Hospital of Jaén, Peru, takes a step forward and will3D printing is integrated into its surgical procedures.

Jaén Hospital has become used in complex surgeriesPioneer in 3D printing, first intervention of this type in the region. The patient suffered severe spinal cord trauma, resulting in severe vertebral displacement that threatened his spinal cord. This requires extremely precise intervention to avoid irreversible damage. This operation therefore highlights the importance of 3D printing in delicate surgical interventions.

The medical team was involved in the surgical procedure and its planning.

Benefits of 3D Printed Spine Models in Hospitals

3D printed spine reconstruction allows surgeons to plan and perform surgical procedures with high precision. The 3D model is designed from computed tomography (CAT) images to provide an accurate replica of the patient’s anatomy. The team, specialized in research in radiology, tomography and 3D printing, played a key role in the success of the process.

3D printing not only provides surgeons with a physical representation of spinal injuries, but also allows for precise planning of device implantation. During surgery, the model serves as a guide for the placement of screws and stabilizing devices, essential for realigning the vertebrae and minimizing the risk of complications. The advantages of this technique include shortened operating time and reduced postoperative complications. In addition, this allows the surgical technique to be adapted to the specific anatomy of each patient.

1729500710 729 3D printing makes hospital surgical planning easier

This intervention at the Jaén Hospital illustrates how the integration of new technologies can help overcome surgical challenges and make surgery safer. After surgery, the patient is transferred to the recovery room, where rehabilitation begins a few weeks later. Fifteen days after the operation, he left the hospital with a follow-up plan and regular check-ups for the next six months, demonstrating an encouraging recovery.

Source: Chinese 3D Printing Network

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

Product Introduction of UM420MT Metal 3D Printer

UM420MTMetal 3D printer

Used in aerospace, medical, automobile, electronics, molds, scientific research institutes, etc.

Hardware support:Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.
Forming dimensions:420 mm × 330 mm × 300 mm (including filter cabinet)
Laser power:500W×2

Equipment overview:

The UM420MT adopts powder loading, dual laser and dual galvanometer scanning configurations, and can intelligently distribute powder in both directions to achieve continuous and uninterrupted production, greatly improving work efficiency and production capacity. production, and helping customers achieve the industrialization of additive manufacturing.

Performance Settings:

Forming size

420 mm × 330 mm × 300 mm (excluding substrate thickness)

laser

IPG 500W × 2

Spot diameter

60-100μm (adjustable)

Scanning galvanometer

Scanlab x2

Scan speed

Maximum 7m/sx2

Forming speed

5-50cm³/h (related to part shape, size, material and printing parameters)

Layer thickness range

20-100m

Inert gas consumption

Ar or N2, ≤10L/min

Control of oxygen content

≤100ppm

Powder delivery method

Upward powder feed, two-way variable speed powder feed

Substrate heating

200℃, control accuracy ±2℃

Scraper type

Ceramic scraper, rubber scraper, high speed steel scraper (optional)

Printing by graft

support

Quality control

Powder spreading monitoring, APP remote printing monitoring

optional materials

Various high temperature alloys, stainless steel, cast steel, aluminum alloy, titanium alloy, etc.

Power Requirements

AC 380 V ± 5%, 50 Hz, 25 kW, three-phase five-wire system

Equipment size

3500 mm × 1700 mm × 2600 mm (length x width x height)

Equipment weight

approximately 2000 kg

application software

Magic, etc. ;

Functional advantages:

(1)Large forming size

Scope

(2)Advanced flow field design

Cooperate with professional institutions to repeatedly optimize the flow field design, thereby significantly improving the forming quality.

(3) Bidirectional dual laser intelligent powder spreading

Production efficiency is greatly improved

(4) Precise superposition of double laser beams

Stable overlap quality ensures consistent forming quality in every area

(5) High efficiency counter-current filtration system

The lifespan of the filter element is more than 2000H

(6) Redundant design of oxygen sensor

Real-time feedback on the printing process ensures key parameters

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

product introduction of blt s400 metal 3d printer

Product Introduction of BLT-S400 Metal 3D Printer

Product Introduction of BLT-S400 Metal 3D Printer

Material support: titanium alloy, aluminum alloy, high temperature alloy, stainless steel, high strength steel, cast steel, copper alloy.
Forming size: 400mm × 250mm × 400mm (L × D × H)
Laser power: 500W × 2; 500W × 3;

Functional advantages:

1729497285 429 Product Introduction of BLT S400 Metal 3D Printer

Auxiliary support machines:

1729497286 918 Product Introduction of BLT S400 Metal 3D Printer

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, 3D printing and rapid prototyping services.

product introduction of blt s310 metal 3d printer

Product Introduction of BLT-S310 Metal 3D Printer

Product Introduction of BLT-S310 Metal 3D Printer

Material support: titanium alloy, aluminum alloy, high temperature alloy, stainless steel, high strength steel, cast steel, copper alloy.
Forming size: 250mm × 250mm × 400mm (L × D × H)
Laser power: 500 W; 500W × 2

Functional advantages:

1729497147 287 Product Introduction of BLT S310 Metal 3D Printer

Auxiliary support machines:

1729497148 438 Product Introduction of BLT S310 Metal 3D Printer

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, and rapid prototyping services.

product introduction of um600mt metal 3d printer

Product Introduction of UM600MT Metal 3D Printer

Product Introduction of UM600MT Metal 3D Printer

Used in aerospace, medical, automobile, electronics, molds, scientific research institutes, etc.

Hardware support:Cast steel, stainless steel, high temperature alloy, aluminum alloy, titanium alloy, etc.
Forming dimensions:400 mm × 600 mm × 500 mm (excluding substrate thickness)
Laser power:500W×2

Equipment overview:

The UM600MT adopts powder loading, dual laser and dual galvanometer scanning configurations, and can intelligently distribute powder in both directions to achieve continuous and uninterrupted production, greatly improving work efficiency and production capacity. production, and helping customers achieve the industrialization of additive manufacturing.

Equipment parameters:

Forming size

400 mm × 600 mm × 500 mm (excluding substrate thickness)

laser

IPG 500W × 2

Spot diameter

80-120μm (adjustable)

Scanning galvanometer

Scanlab × 2

Scan speed

Maximum 14 m/s

Forming speed

5-50cm³/h (related to part shape, size, material and printing parameters)

Layer thickness range

20-100m

Inert gas consumption

Ar or N2, ≤10L/min

Control of oxygen content

≤100ppm

Powder delivery method

Superior powder fall, two-way variable speed powder spread

Substrate heating

200℃, control accuracy ±2℃

Scraper type

Ceramic scraper, rubber scraper, high speed steel scraper (optional)

Printing by graft

support

Quality control

CCD real-time monitoring, APP remote printing monitoring (optional)

optional materials

Various high temperature alloys, stainless steel, cast steel, aluminum alloy, titanium alloy, etc.

Power Requirements

AC 380 V ± 5%, 50 Hz, 25 kW, three-phase five-wire system

Equipment size

5350 mm × 1760 mm × 3350 mm (length x width x height)

Equipment weight

Around 9000kg

application software

Magic, etc. ;

Functional advantages:

Daguang focuses on providing solutions such as precision CNC machining services (3-axis, 4-axis, 5-axis machining), CNC milling, and rapid prototyping services.

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ISO 13485 certificate

ISO 13485 is an internationally recognized standard for Quality Management Systems (QMS) specifically tailored for the medical device industry. It outlines the requirements for organizations involved in the design, development, production, installation, and servicing of medical devices, ensuring they consistently meet regulatory requirements and customer needs. Essentially, it's a framework for medical device companies to build and maintain robust QMS processes, ultimately enhancing patient safety and device quality.

greatlight metal technology co., ltd has obtained multiple certifications (3)
greatlight metal technology co., ltd has obtained multiple certifications (4)

ISO 27001 certificate

ISO/IEC 27001 is an international standard for managing and processing information security. This standard is jointly developed by the International Organization for Standardization (ISO) and the International Electrotechnical Commission (IEC). It sets out requirements for establishing, implementing, maintaining, and continually improving an information security management system (ISMS). Ensuring the confidentiality, integrity, and availability of organizational information assets, obtaining an ISO 27001 certificate means that the enterprise has passed the audit conducted by a certification body, proving that its information security management system has met the requirements of the international standard.

greatlight metal technology co., ltd has obtained multiple certifications (1)
greatlight metal technology co., ltd has obtained multiple certifications (2)

IATF 16949 certificate

IATF 16949 is an internationally recognized Quality Management System (QMS) standard specifically for the automotive industry. It builds upon the foundation of ISO 9001 and adds specific requirements relevant to automotive production and service parts. The goal is to enhance quality, improve processes, and reduce variation and waste within the automotive supply chain.

automotive industry quality management system certification 01
automotive industry quality management system certification 00

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