We’ve got plenty of 3D printing webinars and virtual events to tell you about for this coming week, starting with nScrypt’s webinar today. 3Ding and Formlabs will each hold a webinar tomorrow, July 8th, and 3D Systems is hosting a virtual event on the 8th. There are two more webinars on July 9th, by KEX Knowledge Exchange and ASME, and Additive Industries is holding a virtual event that day. Finally, a 3D Health Hackathon will take place starting July 10th.
nScrypt’s Cutting Edge of Digital Manufacturing Webinar
On June 30th, nScrypt held the first of a two-part Cutting Edge Digital Manufacturing webinar series, and is holding the second part today, July 7th, at 1 pm ET. In part two of “Pushing the Envelope of Digital Manufacturing,” the speakers will be Eric D. Wachsman, PhD, from the University of Maryland; Eduardo Rojas, PhD, with Embry-Riddle Aeronautical University; Hjalti Sigmarsson, PhD, from Oklahoma University; and Craig Armiento, PhD, with the University of Massachusetts Lowell.
Topics of discussion in this webinar include the use of metamaterials, building radio frequency devices, systems, and the first 3D/volumetric electrical circuits and antennas, and the state of the art of 3D manufacturing. Register here.
3DIng “Let’s Talk 3D Printing” Webinar
Indian 3D printer manufacturer 3Ding recently began holding a weekly webinar about 3D printing-related topics, such as SketchUp training, different types of 3D printing, OpenSCAD, slicing, applications in rapid prototyping, and how to choose a 3D printer. Tomorrow, July 8th, the topic of the weekly webinar will be “Live Demo of FabX, Hydra Series 3D Printers & AMA.”
Surendranath Reddy, the founder, CEO, and CTO of 3Ding, is leading the remote webinar session, which will take place at 6:30 am ET and last about 45 minutes. You can join the session here.
Webinar on Formlabs’ New Materials
Formlabs recently launched two new materials, Flexible 80A and Elastic 50A resins, which allows customers to make soft, flexible parts with ease. In a webinar on July 8th at 2:00 pm ET, attendees will get to learn all about these resins with the company’s Materials Product Manager Kathy But and webinar specialist Faris Sheikh. Topics will include when to use these materials, optimal applications, 3D printing material properties like spring back, tensile strength, and shore durometer, and the Ross Flex Test.
“To make soft and flexible parts with traditional methods, such as RTV moldmaking, can be a lengthy process. If you’ve also tried directly 3D printing flexible parts, you probably know there’s not many high performing materials available. That is now changing.
“With the launch of our Flexible 80A and Elastic 50A Resins, you’ll be able to easily fabricate flexible parts that are both soft and hard.”
3D Systems’s Virtual Tradeshow
3D Systems is holding a virtual event on July 8th in order to teach attendees how to transform their manufacturing workflows. There will be a keynote address, networking opportunities, multiple live webinars, and even a virtual exhibition hall. The company will provide examples of digital manufacturing solution workflows with plastic and metal additive manufacturing, subtractive manufacturing, and on-demand services.
“Businesses are focused on lowering risk, resolving supply chain dependencies, streamlining supplier distribution and avoiding interruptions to supply access.
“Join 3D Systems at this exclusive virtual event to find out how Digital Manufacturing Solutions designed for today’s production needs, enable you to integrate additive and subtractive technologies into your manufacturing environment and workflow — providing increased agility, quicker lead times, improved productivity, and allowing you to offer new innovations to your customers.”
All presentations will be in English, and available on-demand for 30 days. Register here.
KEX Knowledge Exchange on Powder Bed Fusion
KEX Knowledge Exchange AG, a former spinoff of Fraunhofer IPT, offers technology consulting. As a service to its industrial and research partners, the company also has a web platform that offers over 7,000 profiles of AM technologies and materials, in addition to industry news, and has now launched a section devoted to webinars, with topics including post-processing and powder bed fusion (PBF) 3D printing.
“Together with one of our appreciated network partners, the ACAM Aachen Center for Additive Manufacturing, we now launched a webinar section,” Jun Kim Doering, a technical writer with KEX, told 3DPrint.com. “Due to the COVID19 situation, ACAM has shifted their focus to an online offering, including webinars on different aspects of the AM technologies and applications.”
The first, “Webinar Powder Bed Fusion (PBF) – Advanced insights into Process, Parameters & Hardware,” will take place this Thursday, July 9th, and Erik Feldbaum, ACAM Aachen Center for Additive Manufacturing, will speak. It’s free for ACAM members, and will cost €175 for non-members.
ASME on 3D Printing in Hospitals
AM Medical, powered by ASME International, will be holding a free, live webinar this Thursday, July 9th, on “Building the Business Case for 3D Printing in Hospitals.” Point-of-care manufacturing leaders will discuss necessary skills, where to find the proper resources, how to address reimbursement, and other important questions during the hourlong session, from 4-5 pm ET. Speakers are Andy Christensen, the President of Somaden; Jonathan Morris, MD, Neuroradiologist and Director of the Mayo Clinic’s 3D Printing Anatomic Modeling Lab; Beth Ripley, MD, Assistant Professor of Radiology with VA Puget Sound; Justin Ryan, Research Scientist at Rady Children’s Hospital-San Diego; and Formlabs’ Director of Healthcare Gaurav Manchanda.
“The ability to manufacture from the patient’s data (medical imaging or surface scan) has been compelling to a community always looking for ways to innovate. With improving patient care as the primary goal, 3D printing has directly impacted more than 1 million patients. More than 25 years ago, anatomical models began to be used for planning of complex surgical procedures. Today, hospitals are using the technology for surgical guides and more. With increasing numbers of hospitals looking to bring 3D printing into their facility, how are they building the business case?”
Additive Industries Hosting Digital Event
On July 9th and 10th, Additive Industries is getting the trade show season running again with what it calls “a corona-proof way to get out of the starting blocks.” At its two-day virtual event, attendees can visit the company’s digital booth, view presentations, and talk to the experts to learn more about the MetalFAB1 3D printer and how the company can help turn your ideas into reality…all without traveling or waiting in line.
“While the virtual domain has limitless possibilities, we still live in the physical world. With our exclusive industry additive manufacturing event – we are making the virtual world a reality.”
Register for the virtual event here.
3D Health Hackathon
The Jersey City Rapid Maker Response Group (JCRMRG), a volunteer collective in New Jersey, is hosting a virtual Community Health Hackathon this week in order to foster community entrepreneurship and take on sustainability, supply chain, and manufacturing challenges that are related to healthcare and PPE (personal protective equipment) during COVID-19. There are three categories: sustainable PPE, modular solution labs, and day-to-day PPE, and the deadline to register is this Friday, July 10, at 12 pm ET. Panelists will meet the nine judges during a Zoom call that night to present their ideas, and then the next two days will be spent hacking. The final submission deadline is July 13th at 9 am, and winners will be announced on July 16th.
“Throughout the COVID-19 health crisis healthcare workers faced critical shortages in PPE created by supply chain disruptions and shortages. Jersey City Rapid Maker Response Group, as well as other groups like them around the country, proved that by quickly deploying 3D-printing capabilities and then extending those capabilities through rapid manufacturing – they were able to scale from producing 1,000 face shields a week to 10,000 face shields a day, both at a fraction of traditional pricing.
“We have reached out to leaders in the tech, manufacturing and 3D-printing communities to form a community-led virtual make-athon. Our collective goal is to continue to bring bright minds together to develop 3D-printing, manufacturing and community-based engineering solutions to address the ongoing needs surrounding supply chain disruptions in emergent and healthcare settings.”
The current prize pool is valued at over $7,500, so what are you waiting for? Register for the hackathon here.
Will you attend any of these events and webinars, or have news to share about future ones? Let us know! Discuss this and other 3D printing topics at 3DPrintBoard.com or share your thoughts in the comments below.
Heresy as the standard for the future.
New footwear unbound by conventions.
Possibilities through fusing material and technology.
Processes never before challenged.
We aim for footwear capable of meeting such goals.
High-fashion is getting another boost from high-tech as Hangzhou-based Shining 3D collaborates with MAGARIMONO, a Japanese company manufacturing designer footwear. Endeavoring to send their clientele walking on clouds, Shining 3D and MAGARIMONO have teamed up to create four new designs for the MAGARIMONO ORIGINALS CLOUD Collection.
While most consumers want aesthetically pleasing shoes that are also comfortable (not always an easy ‘feat’ to pull off), the designers invoke the concept of cushiony luxury combined with allusions to the four different types of clouds: cumulus, cirrus, stratus and nimbus.
“The design incorporates an amorphous shape in which water circulates while changing shape, such as bubbles, waves and clouds,” explains the MAGARIMONO team in a recent press release sent to 3DPrint.com regarding the project.
Although most famous for manufacturing of the EinScan series of scanners and 3D printers using FDM, SLA, SLS and SLM technology, this is not Shining 3D’s first experience in working with footwear manufacturers; in fact, they have contributed to the success of other famous shoe brands in China, and continue to grow in that space through offering greater numbers of shoe soles worldwide, printed with TPU on their SLS printers.
“Digital modeling and 3D printing have enabled today´s designers to create novel objects of previously near-impossible form,” said Eric Ludlum of Core77. “Elaborate shapes have become a hallmark of the medium but thankfully form-giving as a practice has pulled back from a complete embrace of the aesthetic and now finds success with a restrained mix of those digital flourished with classic surfaces.
“Japanese brand MAGARIMONO manages this trick in their new line of shoes. What makes it an interesting launch is that they´ve taken some of the creative strangeness cut from the formal resolution, and found a place for it elsewhere in their overall creative package. It counteracts the seriousness and sterility that can build up in tight digitally-enabled product development loops.”
The advantages of 3D printing are on full display here as customized shoes are fabricated for consumers, allowing them to choose the type of cloud they would like to ‘walk on.’ Cloud pattern soles are then produced on the Shining 3D EP-C5050 Pro TPU 3D Printer, continuing with the concept of condensation in the form of ‘waterdrops,’ and the continued ‘transformation of the elements’ as imagined by the MAGARIMONO designers.
3D printing continues to serve the fashion industry, from 3D printed haute couture to dresses bordering on the 4D that morph to their environment, jewelry, and more. Many have also shown interest in 3D printing footwear, including some of the biggest brands in athletic wear: Adidas, New Balance, Under Armour, Reebok, Nike and more.
[Source / Images: Shining 3D]
The post Shining 3D & MAGARIMONO Partner for 3D Printed Shoes appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.
A team of researchers from Rice University has uncovered a promising strategy to generate vascular networks, one of the most daunting structures in the human body. Using powdered sugar and selective laser sintering, the researchers were able to build large structures from complex, branching, and intricate sugar networks that dissolve to create pathways for blood in lab-grown tissue.
This is the team’s latest effort to build complex vascular networks for engineered tissues to show that they could keep densely packed cells alive for two weeks. The findings of their study—published in the Nature Biomedical Engineering journal—prove that developing new technologies and materials to mimic and recapitulate the complex hierarchical networks of vessels gets them closer to providing oxygen and nutrients to a sufficient number of cells to get a meaningful long-term therapeutic function.
“One of the biggest hurdles to engineering clinically relevant tissues is packing a large tissue structure with hundreds of millions of living cells,” said study lead author Ian Kinstlinger, a bioengineering graduate student at Rice’s Brown School of Engineering. “Delivering enough oxygen and nutrients to all the cells across that large volume of tissue becomes a monumental challenge. Nature solved this problem through the evolution of complex vascular networks, which weave through our tissues and organs in patterns reminiscent of tree limbs. The vessels simultaneously become smaller in thickness but greater in number as they branch away from a central trunk, allowing oxygen and nutrients to be efficiently delivered to cells throughout the body.”
Overcoming the complications of 3D printing vascularization has remained a critical challenge in tissue engineering for decades, as only a handful of 3D printing processes have come close to mimic the in vivo conditions needed to generate blood vessels. Without them, the future of bioprinted organs and tissues for transplantation will remain elusive. Many organs have uniquely intricate vessels, like the kidney, which is highly vascularized and normally receives a fifth of the cardiac output, or the liver, in charge of receiving over 30% of the blood flow from the heart. By far, kidney transplantation is the most common type of organ transplantation worldwide, followed by transplants of the liver, making it crucial for regenerative medicine experts to tackle vascularization.
In the last few years, extrusion-based 3D printing techniques have been developed for vascular tissue engineering, however, the authors of this study considered that the method presented certain challenges, which led them to use a customized open-source, modified laser cutter to 3D print the sugar templates in the lab of study co-author Jordan Miller, an assistant professor of bioengineering at Rice.
Miller began work on the laser-sintering approach shortly after joining Rice in 2013. The 3D printing process fuses minute grains of powder into solid 3D objects, making possible some complex and detailed structures. In contrast to more common extrusion 3D printing, where melted strands of material are deposited through a nozzle, laser sintering works by gently melting and fusing small regions in a packed bed of dry powder. According to Miller, “both extrusion and laser sintering build 3D shapes one 2D layer at a time, but the laser method enables the generation of structures that would otherwise be prone to collapse if extruded.”
“There are certain architectures—such as overhanging structures, branched networks and multivascular networks—which you really can’t do well with extrusion printing,” said Miller, who demonstrated the concept of sugar templating with a 3D extrusion printer during his postdoctoral studies at the University of Pennsylvania. “Selective laser sintering gives us far more control in all three dimensions, allowing us to easily access complex topologies while still preserving the utility of the sugar material.”
Generating new 3D printing processes and biomaterials for vascularization is among the top priorities for the researchers at Miller’s Bioengineering Lab at Rice. The lab has a rich history of using sugar to construct vascular network templates. Miller has described in the past how sugar is biocompatible with the human body, structurally strong, and overall, a great material that could be 3D printed in the shape of blood vessel networks. His original inspiration for the project was an intricate dessert, even going as far as suggesting that “the 3D printing process we developed here is like making a very precise creme brulee.”
To make tissues, Kinstlinger chose a special blend of sugars to print the templates and then filled the volume around the printed sugar network with a mixture of cells in a liquid gel. Within minutes, the gel became semisolid and the sugar dissolved and flushed away to leave an open passageway for nutrients and oxygen. Clearly, sugar was a great choice for the team, providing an opportunity to create blood vessel templates because it is durable when dry, and it rapidly dissolves in water without damaging nearby cells.
In order to create the treelike vascular architectures in the study, the researchers developed a computational algorithm in collaboration with Nervous System, a design studio that uses computer simulation to make unique art, jewelry, and housewares that are inspired by patterns found in nature. After creating tissues patterned with these computationally generated vascular architectures, the team demonstrated the seeding of endothelial cells inside the channels and focused on studying the survival and function of cells grown in the surrounding tissue, which included rodent liver cells called hepatocytes.
The hepatocyte experiments were conducted in collaboration with the University of Washington (UW)’s bioengineer and study co-author Kelly Stevens, whose research group specializes in studying these delicate cells, which are notoriously difficult to maintain outside the body.
“This method could be used with a much wider range of material cocktails than many other bioprinting technologies. This makes it incredibly versatile,” explained Stevens, an assistant professor of bioengineering in the UW College of Engineering, assistant professor of pathology in the UW School of Medicine and an investigator at the UW Medicine Institute for Stem Cell and Regenerative Medicine.
The results from the study allowed the team to continue their work towards creating translationally relevant engineered tissue. Using sugar as a special ingredient and selective laser sintering techniques could help advance the field towards mimicking the function of vascular networks in the body, to finally deliver enough oxygen and nutrients to all the cells across a large volume of tissue.
Miller considered that along with the team they were able to prove that “perfusion through 3D vascular networks allows us to sustain these large liverlike tissues. While there are still long-standing challenges associated with maintaining hepatocyte function, the ability to both generate large volumes of tissue and sustain the cells in those volumes for sufficient time to assess their function is an exciting step forward.”
SmarTech Analysis has recently published its Q1 2020 additive manufacturing market guidance for the metal additive manufacturing industry, highlighting the first quarter in an economic universe gripped by effects of coronavirus. The question on everyone’s minds these days is, “just what will the bottom line impact be with regards to COVID 19?”
Most in the AM industry still don’t know. No AM company is able to provide firm expectations for 2020, and certainly not into 2021. And it is this lack of expectations, or at least the continual presence of uncertainty, which may end up being the key market driver for additive manufacturing in the near future.
During the first quarter of the year, the metal additive hardware market was hit hard, down about 33 percent year over year compared to 2019. It’s worth noting however that Q1 2019 was the best first quarter in terms of metal AM hardware revenue in history.
To add a little more context for Q1. Revenues were down about 28 percent versus the average quarterly market revenue from the last twelve consecutive quarters. While that paints a grim picture, during the first three months of the year, revenues from material sales of metal powders and sales of metal AM services were much less dire. Metal powder sales increased slightly year over year, though they declined compared to the previous consecutive quarter for the first time in recent history. Services revenues for metals declined just 3 percent. In this article we examine the state of play of the AM industry as it starts its planning for 2021, along with the market shares of its leading players.