Additive Manufacturing Trends 2024

Additive Manufacturing Trends 2024

Additive Manufacturing Trends 2024

Additive Manufacturing Trends 2024

Guy Menchik, Chief Technology Officer, Stratasys
Guy Menchik, Chief Technology Officer, Stratasys

How does Guy Menchik, CTO of Stratasys, see additive manufacturing trends in 2024, with a focus on artificial intelligence, automation, and sustainable innovation?

As a global leader in additive manufacturing (AM), Stratasys is well-positioned to identify the most important trends in the industrial AM market and the industries it serves. As we enter a new year, it’s natural to look back at what we’ve learned from the past year and look ahead. Below, I’ll highlight some of the key trends that have impacted the AM industry over the past year and are likely to continue to have a strong presence in 2024.

2023 was a transformative year for the world in many ways. One thing is certain: the industry continued to be innovative and thriving, with the global manufacturing industry continuing to experience positive growth. Additive manufacturing continues to play a role in this growth, and some of the key trends we have identified are contributing to this growth.

Automation

Automation is a global trend affecting all sectors, and its impact on the AM industry was significant in 2023.

Automation is actually an umbrella term – it is actually multifaceted and encompasses a wide range of additional trends and specific areas of innovation and development that have and will have a direct impact on additive manufacturing technologies.

In a general sense, automation enables process optimization, whereby the AM process itself and/or the entire workflow becomes more efficient. In this way, automation technologies enable additive manufacturing processes to be made more efficient, increasing productivity and reducing manufacturing times and overall costs, including the all-important cost per part. Automation also impacts pre- and post-processing processes. Thus, automation proves to be a key factor in the entire AM workflow to ensure better repeatability, tighter process control and higher production capacity.

Add intelligence: Artificial intelligence (AI) and machine learning, two of the main drivers of additive manufacturing automation,  have advanced throughout 2023. Some key AI and machine learning developments can be applied in a variety of ways to AM processes, enabling the optimization of intelligent machines and parts.

For parts, increased computing power and AI-based algorithms generate more accurate simulations, which can help predict (and thus avoid) failures more effectivelyThese technologies also support more effective predictive maintenance for additive manufacturing systems themselves , significantly reducing machine downtime and improving overall productivity. As we move forward into 2024, AI will likely continue to advance to improve AM applications and contribute to making additive manufacturing systems more flexible, better able to handle variation and geometric complexity.

Transition from prototyping to production

In the nearly four decades since its inception, 3D printing has traditionally been used for prototyping, which by definition means that the quantity of parts was low, often just a single piece. The  additive manufacturing ever-increasing development of In 2023, we could see this evolution continue and accelerate even further, to the point where additive manufacturing technologies and AM-specific materials (filament/resin/powder) are now also available for much higher volume manufacturing.

Key factors driving this transformation include higher-performance raw materials; end-to-end optimization of processes, including post-processing; increased productivity and efficiency; and improved yield, process reliability, and repeatability.

Application performance is a critical issue for end-user components. the increased growth in 2023 compared to previous years of manufacturing applications .

Personalization

We are obviously aware that “personalization” has been a typical benefit of additive manufacturing since the beginning of additive technologies. And this continues to be the case in terms of providing customized parts tailored to the needs of the end user, whether it is a personalized healthcare approach or personal preferences for a wide range of consumer products. It is difficult to imaginewhere this will not be the case. At the same time, on the industrial front, a clear trend has emerged towards a smart AM customer approach for applications that require personalized AM technologies. This trend is increasingly observed in the dental and medical industries, and is also driving the development and adoption of customized systems in other key industries.

Paying attention to the industry, collaborating with them, understanding their unique requirements, and developing and integrating technology solutions into a customized system is one way Stratasys stays ahead.

Sustainability

Sustainability is integral to Stratasys’ mission, as we recognize the unique value that additive manufacturing.We are dedicated to redesigning products, processes, and parts to benefit people and the planet – we call it Mindful Manufacturing™. This approach to research, design, and manufacturing requires a shift in mindset as the value of AM with our customers and share a commitment to innovation with a reduced ecological footprint. We are working internally to improve our own operations, focusing on redesigning our machines, and  for implementing additive manufacturing to help them determine the value they achieve when for their business they choose Stratasys equipment

Additive manufacturing can contribute to sustainable strategies, support optimized manufacturing processes, and improve supply chains. As a global company, Stratasys is proactively committed to responsible business conduct. Four of the United Nations Sustainable Development Goals are directly linked to our ability to make a significant impact on sustainability under the banner of Mindful Manufacturing™.

We are implementing an ESG strategy that goes beyond compliance, driven by the belief that “doing good” is good for healthy, long-term business growth. Our technologies, materials and software enable manufacturing that is less dependent on natural resources, produces less waste and improves supply chains. We are now preparing to gather data with our customers to demonstrate the value AM brings to their business.

This value proposition is realized at different points in the manufacturing and product lifecycle, depending on the use case. For example, in the aerospace industry, unique geometries of printing result in parts that are durable and high-quality at a fraction of their previous weight; and when applied to aircraft, they significantly reduce fuel consumption. In the fashion industry, we reduce unnecessary inventory and optimize supply chains by printing on-site and on-demand. This is simply not possible with traditional manufacturing methods. Our patient-specific healthcare products improve surgical outcomes and save lives. Is there anything more sustainable than that?

Manufacturing is resource-intensive, that’s for sure, but there are ways to reduce and/or mitigate resource use. A recent project we were involved in in late 2023 illustrates how AM can make a difference. Reeves Insight was commissioned by the Additive Manufacturing Green Trade Association (AMGTA) to conduct a life cycle analysis report. The report, titled “Comparative Analysis: Material Jetting vs. Traditional Methods for Designer Luxury Goods,” details the results of a year-long study that examined the transition from traditional manufacturing methods to industrial AM for a given application. Key findings from the study include a 24.8% reduction in CO2e emissions compared to traditional processes; a 49.9% reduction in inventory in the supply chain, which also reduces and streamlines associated transportation needs; and 50.0% less material in the 3D printed logo component. The study also showed that over 300,000 liters of water were saved for the 16,000 units and electricity consumption was reduced by 64%. We are working to move forward with our internal efforts. We are not “going green”, but reducing our footprint through renewable energy and continuous improvements. However, sustainability is a path we have embarked on and we know that “what cannot be measured cannot be improved”, which is why we work to support our customers, humanity and our planet.

Summary

In summary, it is impossible to accurately predict what the next 12 months will hold in early 2024. Yet, at Stratasys, we are confident that our advanced additive manufacturing technologies will continue to provide innovative opportunities for an ever-expanding range of manufacturing applications. We do not take our industry leadership for granted, and in 2024, we will continue to build on our decades of success with our customers, listening to them, and collaborating with them to grow their businesses.

Did you know that the most reliable and popular solution for additive manufacturing is Stratasys FDM technology, and within it, carbon fiber reinforced materials? 
Did you know that you can replace your metal parts with lightweight and extra-strong carbon fiber composite 3D printed parts?

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Sustainability in the fashion industry - with additive manufacturing

Press release: Sustainability in the fashion industry with additive manufacturing

Press release

Sustainability in the fashion industry with 3D printing

Study proves that additive manufacturing saves resources and reduces emissions in the fashion industry

AMGTA Lifecycle Research report highlights the collaboration between Stratasys and Dyloan Bond Factory, part of the Pattern Group, to compare additive manufacturing to traditional manufacturing processes. The study found that Stratasys’ PolyJet™ process can reduce CO2e emissions by 24.8% compared to injection molding and achieve 48% inventory savings across the supply chain.

Stratasys has shared the results of a study commissioned by the Additive Manufacturer Green Trade Association (AMGTA) that demonstrates the environmental benefits of additive manufacturing for the fashion industry.

The report, “Comparative Analysis: 3D Material Jetting vs Traditional Methods for Designer Luxury Goods,” presents the results of a year-long collaboration between AMGTA, Stratasys, and DYLOAN Bond Factory, a member of the Pattern Group, the leading Italian center for luxury fashion design and manufacturing. The English summary is available at https://www.stratasys.com/en/about-us/sustainability/.

The use case study examined the transition from traditional manufacturing methods to advanced additive manufacturing: the goal was to create 16,000 logo appliqués for 8,000 pairs of luxury designer shoes, printed on fabric, produced using the innovative Stratasys J850™ Fashion TechStyle™ printer.

The results of the study revealed the following: Additive Manufacturing (AM) with Print-to-textile technology reduces CO2e emissions by 24.8% compared to the customer’s traditional processes.
Considering the customer’s production volume (16,000 printed logos for 8,000 pairs of shoes), additive manufacturing can save almost one ton of CO2e.
AM Print-to-textile technology can save 49.9% of inventory across the entire supply chain, reducing and streamlining transportation needs.
Direct-to-textile printing with the J850™ TechStyle™ 3D printer is a water-free process across the entire measured supply chain, saving over 300,000 liters of water.
Additive manufacturing reduces electricity consumption by over 64%.
The transition to additive manufacturing reduces supply chain dependency from 4 technologies to 1: with a single additive workflow, transportation and logistics are eliminated for 3 processes.
The transition to additive manufacturing simplifies production and logistics “stages” from 12 to 2.

The research was conducted by Reeves Insight and reviewed by experts from the ACAM Aachen Center for Additive Manufacturing GmbH.

“Sustainable production is becoming increasingly important for designers in the luxury world, and this is particularly important for Pattern Group’s Dyloan Bond Factory,” said Loreto Di Rienzo, Director of Research and Development at Pattern Group. “Stratasys’ innovation in 3D printing, particularly with TechStyle™ technology, allows us to offer revolutionary solutions by reducing waste, minimizing our dependence on natural resources, and optimizing the environmental impact of our entire supply chain.”

"As revealed in the report 'Comparative Analysis: 3D Material Jetting vs Traditional Methods for Designer Luxury Goods', a collaboration between Stratasys and Dyloan Bond Factory, we can confirm and demonstrate that additive technology truly improves environmental impact while expanding design freedom without compromising the quality of the final result."
Loreto Di Rienzo
Director of Research and Development at Pattern Group

Sherri Monroe, Executive Director of AMGTA, said: “We are pleased to release the third research paper in a series of papers designed to explore the environmental benefits of implementing additive manufacturing. We are committed to creating research and publications that help us better understand the sustainability value of AM technologies in manufacturing processes. The Stratasys-Dyloan Bond Factory Fashion LifeCycle Analysis (LCA), which analyzes the impact of print-to-textile technology, is our first polymer study. It provides important data that supports the value of AM in influencing one of the world’s most polluting industries.”

This report demonstrates Stratasys’ commitment to Mindful Manufacturing™, an approach that advocates for sustainability, efficiency, and innovation to 3D Print a Better Tomorrow™. Environmental considerations are paramount and can have a real impact on business outcomes. Together with its customers, Stratasys is rethinking how things are made; redesigning processes, products, and components; and optimizing operations for the benefit of people and the planet.

"Our Mindful Manufacturing™ approach is our commitment to our customers. By embracing sustainable practices and innovative AM technologies, we work to reduce the global ecological footprint – our own and that of our users. This paper demonstrates how the introduction of our advanced AM offering enables our customers to deliver manufacturing solutions that improve environmental impact while giving them a competitive advantage through innovation in design-driven manufacturing."
Dr. Yoav Zeif
CEO of Stratasys

Stratasys invites its customers, partners, and those interested in 3D Printing for a Better Tomorrow™ to join the company on its journey towards more sustainable manufacturing. For more information about Stratasys and its commitment to Mindful Manufacturing™, https://www.stratasys.com/en/about-us/sustainability/ visit

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Stratasys J850 Techstyle 3D printed textile
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Comparison of Stratasys FDM and FFF technology

An overview of the key differences between Stratasys FDM and FFF 3D printing

FDM vs FFF comparison: differences and impacts on the industry

Understanding the Key Differences Between Stratasys FDM and FFF 3D Printing

Glossary and Origin:
FDM is, or FusedDepositiona patented technology developed by Stratasys that has received 1,820 patent applications over the past 30 years, of which 1,380 are active, and Stratasys has trademarked the term. Fused Filament Fabrication (FFF) is also a technology based on melting plastic filaments, but does not use the innovations that Stratasys has patented. 

3D Printing Equipment:
Despite the differences in names, the basic concept behind FDM and FFF is the same. Both methods use a nozzle to spray molten thermoplastic onto a surface to build up objects layer by layer. The primary difference lies in the equipment used for printing and their technological sophistication. Stratasys FDM technology 3D printers specifically designed and manufactured by Stratasys , which are built around providing the environmental parameters necessary for processing plastic, while FFF technology is open source, allowing different manufacturers to produce compatible 3D printers, primarily for processing materials that do not require special environmental parameters.

Material selection:
Another significant difference between Stratasys FDM and FFF lies in the technological quality of the material processing. Stratasys FDM printers support a wider range of high-performance and engineering-grade thermoplastics, including Antero (PEKK) and ULTEM™ (PEI). These materials have excellent mechanical properties, heat resistance and chemical resistance, thus meeting strict aerospace, automotive and healthcare regulations. In contrast, FFF printers typically offer a narrower selection of engineering and high-temperature materials, most suitable for printing PLA, PETG, but even this does not guarantee successful production and repeatability, i.e. the ability to repeatedly produce a given part with the same quality.

Print Quality and Accuracy:
Stratasys FDM 3D printers are known for their high accuracy and print quality thanks to their controlled manufacturing process and advanced technology. These 3D printers have at least two print heads, which allows the use of support material to print complex geometries. The result is ready-to-use products that require minimal post-processing, quickly, on time, and with repeatability that meets industry demands. FFF printers show a wide variation in print quality and accuracy.

Costs and Affordability:
Stratasys targets industries where production line uptime is a top priority, as well as industries that may require high-end solutions. Stratasys and VARINEX are recognized for their commitment to quality and product support. In contrast, FFF 3D printers are popular with hobbyists, educators, and small businesses due to their lower price, for whom we recommend https://makerbotshop.hu , where they can choose from high-quality UltiMaker FFF 3D printers.

Summary:
Stratasys FDM technology usually brings tens of thousands of euros in monthly returns to companies interested in manufacturing, because it is suitable for applications that FFF technology does not, or only to a very limited extent. At the same time, FFF offers a more accessible and affordable entry point into the world of 3D printing, which appeals to a wider range of users. Regardless, it is not possible to judge based on the experience gained with FFF technology what application possibilities a Stratasys FDM 3D printer has for a given company, because the basic principle of the two technologies is the same, but the possibilities for their use are completely different. Undoubtedly, both FDM and FFF played a significant role in the development of the world of additive manufacturing.

carbon fiber 3D printing in the manufacturing plant
carbon fiber 3D printed drilling template

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