MakerBot rolls out new glow-in-the-dark filament and more

MakerBot rolls out new glow-in-the-dark filament and extra

Some of the most interesting and affordable 3D printers come from MakerBot. The company also has a cool 3D desktop scanner that can take just about anything that fits on it and make a digital copy of it that you can use to print your own 3D version. MakerBot has announced that it is shipping some new filaments that will bring new colors and artistic possibilities to the owners of the 3D printers.

MakerBot has announced three new filaments that will be available online and in the Makerbot Store in New York. One of the filaments consists of a special phosphor dye and is called MakerBot Glow-In-The-Dark PLA filament. How intensely the new filament glows depends on the intensity of the light with which it is charged.

MakerBot says the brighter the light, the brighter the glow the filament creates. Any light source can be used to load the filament. Charging takes 2 to 3 minutes, depending on the intensity of the light source. Items printed with the new glow-in-the-dark filament can be recharged repeatedly by placing them in front of a light source for a few minutes.

MakerBot is also launching new Warm Gray and Cool Gray PLA filaments. These colors are aimed at professionals using the Replicator 2 Desktop 3D printer. The glow-in-the-dark filament costs $ 130 for a 1kg spool. Both gray colors are available in 1kg spools for $ 48 each.

SOURCE: MakerBot

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Distant quasar illuminates a filament of the cosmic web

Distant quasar illuminates a filament of the cosmic internet

This deep image shows the nebula (cyan) spanning 2 million light years and discovered around the bright quasar UM287 (in the center of the image). The energetic radiation of the quasar makes the surrounding intergalactic gas glow and reveals the morphology and physical properties of a cosmic web filament. The picture was taken at the WM Keck observatory. Photo credit: S. Cantalupo, UC Santa Cruz

Astronomers have discovered a distant quasar that illuminates a giant nebula of diffuse gas, revealing, for the first time, part of the filament network believed to connect galaxies in a cosmic web. Researchers from the University of California at Santa Cruz led the study, published January 19 in Nature.

Using the 10-meter Keck-I telescope at the WM Keck Observatory in Hawaii, the researchers discovered a very large, glowing gas nebula that extends over 2 million light years across intergalactic space.

“This is a very extraordinary object: it is huge, at least twice the size of any previously discovered nebula, and extends far beyond the galactic environment of the quasar,” said first author Sebastiano Cantalupo, a postdoctoral fellow at UC Santa Cruz.

The standard cosmological model of structure formation in the universe predicts that galaxies are embedded in a cosmic web of matter, most of which (about 84 percent) is invisible dark matter. This web can be seen in the results of computer simulations of structural evolution in the universe, showing the distribution of dark matter on a large scale, including the dark matter halos in which galaxies form and the cosmic web of filaments connecting them. Because of gravity, ordinary matter follows the distribution of dark matter, so filaments of diffuse, ionized gas are expected to follow a pattern similar to that in simulations of dark matter.

However, these filaments have never been seen before. Intergalactic gas has been detected by absorbing light from bright background sources, but these results do not show how the gas is distributed. In this study, the researchers discovered the fluorescent glow of hydrogen gas that results from its illumination by intense radiation from the quasar.

Distant quasar illuminates a filament of the cosmic web

Computer simulations suggest that matter in the universe is distributed in a “cosmic web” of filaments, as can be seen in the picture above from a large-scale simulation of dark matter (Bolshoi simulation by Anatoly Klypin and Joel Primack). The inset is an enlarged, high-resolution image of a smaller portion of the cosmic web, 10 million light years in diameter, from a simulation that contains both gas and dark matter (Photo credit: S. Cantalupo). The intense radiation of a quasar can illuminate part of the surrounding cosmic web (highlighted in the picture) like a flashlight and light up a gas filament, as was observed in the case of the UM287 quasar. Photo credits: Background image: A. Klypin and J. Primack; Inset: S. Cantalupo

“This quasar illuminates diffuse gas on scales that go far beyond the previous ones and gives us the first picture of an extended gas between galaxies. It offers an excellent insight into the overall structure of our universe,” said co-author J. Xavier Prochaska. Professor of Astronomy and Astrophysics at UC Santa Cruz.

The hydrogen gas illuminated by the quasar emits ultraviolet light known as Lyman Alpha radiation. The distance to the quasar is so great (about 10 billion light years) that the expansion of the universe “stretches” the emitted light from an invisible ultraviolet wavelength to a visible shade of purple when it reaches the Keck telescope. Knowing the distance to the quasar, the researchers calculated the wavelength for Lyman alpha radiation from that distance and built a special filter for the telescope’s LRIS spectrometer to get an image at that wavelength.

“We examined other quasars this way without discovering such extensive gas,” said Cantalupo. “The light from the quasar is like a flashlight beam, and in this case we were fortunate enough to have the flashlight pointing at the nebula and lighting the gas. We think this is part of a filament that may be even longer than this . but we only see the part of the filament that is illuminated by the beam emission of the quasar. “

A quasar is a type of active galactic nucleus that emits intense radiation powered by a supermassive black hole in the center of the galaxy. In an earlier study of distant quasars, using the same technique to search for glowing gas, Cantalupo and other so-called “dark galaxies” discovered the densest gas nodes in the cosmic web. It is believed that these dark galaxies are either too small or too young to form stars.

“The dark galaxies are much denser and smaller parts of the cosmic web. In this new image we see dark galaxies as well as the much more diffuse and extensive nebulae,” said Cantalupo. “Some of this gas will fall into galaxies, but most of it will remain diffuse and never form stars.”

The researchers estimated the amount of gas in the fog to be at least ten times the expected results from computer simulations. “We believe that there may be more gas in small, dense clumps in the cosmic web than in our models. These observations challenge our understanding of intergalactic gas and give us a new laboratory to test and refine our models,” said Cantalupo.

Dark galaxies of the early universe were discovered for the first time

More information:
Article: dx.doi.org/10.1038/nature12898 Provided by the University of California – Santa Cruz

Quote: Distant quasar illuminates a filament of the cosmic web (2014, January 19), retrieved from https://phys.org/news/2014-01-distant-quasar-illuminates-filament-cosmic.html on December 25, 2020 has been

This document is subject to copyright. Except for fair trade for the purpose of private study or research, no part may be reproduced without written permission. The content is provided for informational purposes only.

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Terminator skeleton

Cyrus 3D printers Releases New 3D Printing Filament Vary

3D printed terminator skeleton

A good print really depends on the quality of the filament and not just the machine and software

Cyrus printers based in the Netherlands are best known for their printers. This Dutch startup has now released a whole range of new filaments that are cheaper compared to the rest of the market while keeping the quality high.

The process of making the new range of filaments took some time to make them affordable to the public.

“We all know that quality prints depend on three things. A rigid and good machine, proper cutting software and high-quality filaments.” says Sasan Seyedi of Cyrus printers. “We knew we needed good filaments to get the full potential of the Cyrus printer. We tested over 20 filament companies and each time the problem became more obvious. Either the quality was low and the price was good, or the quality was good enough , but the price was just too high to justify in our eyes. “

You worked closely with a Dutch company specializing in bioplastics. This new filament series will be available in 25 colors in PLA and ABS. Other materials that are also available are PVA, nylon and flexible filaments, as well as bamboofill. At the moment the filament is only available in 1.75mm, but they are considering offering 3mm in the future.

“The tolerance of the filament is less than 0.05mm, which is nothing compared to what the market currently offers.” Seyedi states. “Cheap filament usually has a greater tolerance, which is between 0.1mm and 0.25mm. This large difference is critical to printing at 150 microns and less. If you try to print at 100 microns, your machine believes that it is pushing 1.75mm when in reality it is pushing 1.9mm filament or 1.6mm filament which ruins the print. “

One interesting note is that they are working on new polymers and test materials for printing that will exceed the printing temperatures of most printers. Most printers print at a maximum of 280 degrees Celsius. You have successfully managed to print Teflon at 420 degrees and are in the very early stages of trying PEEK. In recent years, the market has been full of plastic-based filaments. If you move away from this way of thinking, you may be able to open up new features to FDM printers in the future that other 3D printing technologies in this price range cannot match.

Cyrus’ core business is not selling filaments, but providing an open spool of filament that anyone can use, whether they have a Cyrus printer or not. This allows them to lower the final selling price, as the sale of filaments is not a form of a money machine, but an added service for anyone who, according to the company, wants high quality filaments. The price for the PLA / ABS is 19.99 euros for a reel of 750 grams. The PVA flexible filaments that glow in the dark cost more due to the additional labor and material costs.

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MakerBot 3D Printers and Filament now available at Fry

MakerBot Expands 3D Printer and Filament Gross sales with Retailer Fry’s Electronics

BROOKLYN, NY & SAN JOSE, California – (BUSINESS WIRE) – MakerBot and Fry’s Electronics today announced the availability of MakerBot® Replicator® 3D Printers and MakerBot Filaments in select Fry’s Electronics stores in the United States and on frys.com. Fry’s Electronics is a one-stop shopping environment for high-tech professionals. With this national rollout, MakerBot is positioning itself as a leading partner of Fry’s Electronics in the field of 3D printing and is offering MakerBot Replicator 3D printers and MakerBot filaments in Fry’s Electronics stores.

Visitors to Fry’s Electronic Stores in 32 locations in Arizona, California, Georgia, Illinois, Indiana, Nevada, Texas, and Washington can purchase MakerBot Replicator 3D printers and MakerBot PLA filament directly in-store. Visitors to Fry stores in Sunnyvale, California and Wilsonville, Oregon can see MakerBot Replicator 3D printers in action. Frys.com will also offer the full line of MakerBot Replicator 3D Printers including the award-winning MakerBot Replicator Desktop 3D Printer, MakerBot Replicator Mini Compact 3D Printer, MakerBot Replicator Z18 3D Printer, and MakerBot Replicator 2X Experimental 3D Printer.

“We are excited to be working with Fry’s Electronics to bring MakerBot Replicator 3D printers and filaments directly to high-tech professionals in more retail stores across the US,” said Jenny Lawton, Acting CEO of MakerBot. “It’s also a great experience to visit Fry’s and purchase multiple colors of MakerBot Filament when you’re working on a 3D printing project.”

MakerBot filaments are displayed in specially designed MakerBot kiosks at Fry’s. Visitors can experience the magic of 3D printing on a MakerBot Replicator 3D printer at two stores in Sunnyvale, Calif. And Wilsonville, Oregon, where MakerBot Replicator 3D printers are sold in addition to filament.

On the filament side, MakerBot offers more than 20 colors of its popular MakerBot PLA filament, including specialty colors like Translucent and Glow in the Dark. MakerBot PLA Filament is what MakerBot considers to be the best and most durable filament for the MakerBot Replicator range of 3D printers and is made from the purist resin quality available on the market. Every MakerBot PLA Filament color is extensively tested, easy to use, and works well with most 3D prints.

MakerBot is a global leader in the desktop 3D printing industry, founded in 2009. The company is characterized by a complete MakerBot 3D ecosystem that makes 3D printing easy and accessible for everyone. The MakerBot 3D ecosystem includes its 3D printers and scanners. its website, Thingiverse.com, the world’s largest 3D print design community for discovering, creating, and sharing 3D print files; its software and apps such as MakerBot Mobile and MakerBot PrintShop ™; MakerBot Support and the MakerBot MakerCare® Protection Plan, a service and parts program; MakerBot Learning; and the MakerBot Digital Store and partnerships with leading companies and proprietary retail stores in New York, Boston and Greenwich, Connecticut. MakerBot’s products include the award-winning MakerBot Replicator line of 3D printers, which include the MakerBot Replicator desktop 3D printer, the MakerBot Replicator mini compact 3D printer, the MakerBot Replicator Z18 3D printer, and the experimental 3D -Printer include MakerBot Replicator 2X. the MakerBot Digitizer ™ desktop 3D scanner; and an extensive range of MakerBot PLA and ABS filaments and accessories.

MakerBot 3D printers and filaments are available from the following locations:

Northern California

Texas

600 E. Hamilton Ave., Campbell

102 E. I-20, Arlington

550 E. Brokaw Rd., San Jose

2488 Market Place Blvd., Irving

43800 Osgood Rd., Fremont

12707 N. Mopac Expy., Austin

340 Portage Ave., Palo Alto

12710 Executive Dr., Dallas

180 N. Sunrise Ave., Roseville

10241 N. Fwy. I-45, Houston

4100 Northgate Blvd., Sacramento

700 E. Plano Pkwy., Plano

1695 Willow Pass Rd., Concord

11565 SW Fwy. 59, South Houston

1077 Arques Ave., Sunnyvale

21300 Gulf Fwy., Webster

Southern California

AZ, GA, IL, IN, NV, OR, WA

3370 E. La Palma, Anaheim

3035 W. Thunderbird Rd., Phoenix, AZ

13401 N. Crossroads Pkwy., City of Industries

2300 W. Baseline Rd., Tempe, AZ

1901 E. Ventura Blvd., Oxnard

3296 NW Commerce Ave., Duluth, GA

9825 Stonecrest Blvd., San Diego

3065 Webb Rd., Milton, GA

150 Bent Ave., San Marcos

3300 Finley Rd., Downers Grove, IL

6100 Canoga Ave., Woodland Hills

9820 Kincaid Drive, Fishers, IN

6845 S. Las Vegas Blvd., Las Vegas, NV

800 Garden Ave. N., Renton, WA

29400 SW Town Center Loop, Wilsonville, OR

“3D printing is an emerging area that leading electronics retailers like Fry’s need to consider,” said Randy Fry, president of Fry’s Electronics. “We see that the 3D printer is developing similarly to the personal computer 20 years ago. Once you start using one, you can’t imagine your life without one. The versatility and imaginative use of a 3D printer are very exciting for us. The fact that you can turn a digital file into a physical object is a fairly transformative process. We are excited to offer MakerBot 3D printing products to our customers both in stores and online. ”

To learn more about the Fry’s Electronics and MakerBot partnership and product availability, visit makerbot.com or frys.com. To find a Fry’s Electronics store near you that sells MakerBot 3D printed products, visit makerbot.com/locator.

About MakerBot

MakerBot, a subsidiary of Stratasys Ltd. (Nasdaq: SSYS), is leading the next industrial revolution by setting the standard for reliable and affordable desktop 3D printing. Founded in 2009, MakerBot has built the largest installed base of desktop 3D printers sold to innovative and industry-leading customers worldwide, including engineers, architects, designers, educators and consumers. To learn more about MakerBot, visit makerbot.com.

About Fry’s Electronics

Based in San Jose, California, Fry’s was founded as an electronics store in Silicon Valley to provide a one-stop shopping environment for the high-tech professional. Fry’s continues to provide high tech professionals with products that reflect the latest technological trends and advances in the personal computer market. Fry’s sells over 50,000 electronics in each store for a total of 34 stores. There are currently 8 stores in Northern California, 9 stores in Southern California, 8 stores in Texas, 2 stores each in Arizona and Georgia, and 1 store each in Oregon, Nevada, Washington, Illinois, and Indiana. The stores are between 50,000 and over 180,000 square feet. Fry’s also offers customers additional shopping options at frys.com/deals.

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3ders.org -Portuguese engineer 3D prints attractive rotating DNA Helix Lamp utilizing glow-in-the-dark filament

June 10, 2015 | From Alec

While there are dozens of fun and unusual filaments out there to add some spice to your 3D printing projects, the vast majority of us still stick with boring old PLA or ABS. While I’m not in favor of a boycott, it’s just good to know what can be done if a little variety is added. Why not have fun with PLA filaments in the dark, for example, as the Portuguese engineer João Duarte did? He used it to create a very inspiring lava lamp-like creation that consists of an absolutely inspirational rotating and glowing in the dark DNA helix lamp.

As João 3ders.org explains, he is a young electrical and electronics engineer from Algarve, Portugal who absolutely loves technology. ‘I am a member and also one of the founders of eLab Hackerspace in Faro. I recently entered the world of 3D printing building my own Prusa i3 and so far I’ve learned a lot and developed myself further, ”he says. He also holds one personal blog of his fun 3D printed creations, but its DNA Helix lamp absolutely takes the cake.

As he explains, this lamp was inspired by the traditional lava lamps we all had in the nineties, but João wanted to turn them a little differently and PLA in the dark was a perfect solution. “I was looking for 3D objects online to test my 3D printer when I found some strands of DNA. They looked cool so I tried looking at them from different angles and I found that while rotating the piece they created an amazing and mesmerizing effect up and down. So I thought about designing a lamp that was also a bit inspired by the lava lamps, ”he says. I thought about using glow in the dark filaments to highlight the DNA helix when the lights were off. I also thought it would be cool to fade the LEDs on and off for a cool visual effect on the DNA. They go from bright white to green, giving her the strange feeling of a mysterious evil experience or that she is somehow alive. ‘

Well, this would be a challenging project even for the best of us, but João had only just started the 3D printing hobby. “So I didn’t have a lot of experience with 3D design, but I also wanted to get this project done quickly because I noticed that there was a teaching competition on 3D printing and I wanted to take part,” he says. With that in mind, he relied entirely on Autodesk’s Tinkercad web app for the design, which is simple and intuitive to use but doesn’t reflect the end result of this project at all. It just shows how much can be done with a little creativity.

And we have some good news for those of you looking to recreate this amazing project, as João wrote a very detailed Instructables tutorial. But be careful: it’s a fairly complex setup with lots of electronics and dozens of parts, so it may not be suitable for the beginner. As he explains, the entire structure essentially revolves around an electric motor that supports and rotates the DNA helix in an acrylic tube. ‘It has LEDs on the top and bottom of the tube that create a fading effect. Then it has a microcontroller (Arduino) that controls the rotation of the motor and the LEDs. I also added a push button on the front of the lamp that allows the user to switch between different modes of operation of the lamp, e.g. B. turn the rotary motor on or off and let the LEDs fade or always leave it at full brightness or completely off, says João. If you want to do this yourself, you can You can find the tutorial here.

However, you will find that the 3D printing phase of the project is quite straightforward. It took João about seven hours to design all of the pieces, even though he made all of his designs available for us to copy. He relied on his self-made Prusa I3 3D printer and a LulzBot TAZ 4 in his local hackerspace and 3D printed most of the parts in the black PLA that he had lying around, which, by the way, works great in combination with glow-in-the-dark filament. “For the DNA helix, I wanted to have a strange effect when the LEDs were turned off. So I thought it would be very cool to use the PLA filament“ Glow in the Dark ”. This is why it glows green when there is no light is. ” 3D printing took about 14 hours with two printers running at the same time. The print settings were pretty simple for an average quality with 20% fill, 0.2 mm layer height and a speed of 50 to 70 mm / s.

Now most of these parts are relatively easy to 3D print, although the DNA helix deserves special attention as the centerpiece: “It’s probably the hardest part because it’s very fragile, has many bridges, and requires a lot of retreats during the printing process. I designed it with 4 vertical support columns (already in the 3D model). This part should be printed as resiliently as possible, so I increased the shell thickness and the top / bottom layers, ”says João. However, the 3D printing results are definitely satisfactory. After a nice cleaning with a scalpel and a small pair of pliers, the carrier material was gone. For the DNA strand, this must be done very carefully. Cutting the support columns could force and break the DNA structure so I had a lot more success by melting them with the metal head of the hot glue gun and then removing the rest with the scalpel. Because the DNA has a lot of retractions and bridges, there can be a lot of threads (as you can see in the images above), but these can also be removed with a scalpel, ”he explains.

After the easy part is done, assembly and electronics are waiting for you. This is a very complicated phase that requires dozens of parts. Most you might have lying around or can save from another project; João even took the AC motor (usually the most expensive part of a project) off the rotating platform of an old microwave. However, be sure to follow the tutorial to install it. “We will be dealing with AC mains voltage, which is extremely dangerous and must be handled with extreme care!” João rightly warns us.

However, the result is definitely worth the effort as you can see for yourself in the following clip. “But since it’s a lamp, it will look a lot cooler in the dark, especially if the DNA helix is ​​glowing in the dark. The UV LEDs make for that amazing mesmerizing blue and purple, perfect for this project! It looks exactly as I imagined, ”says João. And there is nothing we can do but be absolutely in agreement; Have you ever seen a more impressive 3D printed lamp? João is already working on his follow-up project, which is also a lamp. We will no doubt hear more from him in the near future.

Posted in 3D Printing Applications

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Joao Duarte wrote on 08/02/2015 11:57:16 pm:

Thank you Hugo! 😉

Hugo wrote on June 10th, 2015 2:05:15 pm:

Great project, congratulations 🙂

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3ders.org – Create a 3D printed versatile LED glove with Ninjaflex and glow-in-the-dark conductive filament

August 8, 2015 | From Simon

When it comes to new and exciting things to do with the latest and greatest 3D printing materials, many projects simply involve different mindsets or assemblies of existing concepts.

To highlight what is possible with conductive filament and glow-in-the-dark ninjaflex, the famous Ruiz brothers at Adafruit recently released a new project that teaches users how to make their own custom flexible led portable – Especially a glove.

Among other things, the brothers wanted to start the project and experiment to find out how well Ninjaflex can adhere to conductive PLA filaments. The two materials already combine well and their unique properties complement each other.

The finished semi-flexible integrated circuit glove design uses a coin cell battery to power 5 Adafruit LED sequins. However, in order to create their own glove, users need to have access to a 3D printer with a twin extruder.

“We believe the concepts in this project can be used to create really cool items for cosplay props and costumes,” said the brothers.

“By incorporating conductive filament into your designs, you can create embedded circuits. The conductive filament can also be used for capacitive touch sensors! “

After sourcing the parts, which include NinjaFlex Glow-in-the-Dark Filament, ProtoPasta Conductive Filament, Bare Conductive Paint, a Lithium Coin Cell, and Adafruit LED Sequins, the design process begins with users tracing their own hand to order ensure that the finished product fits as intended.

After tracing a hand with pencil and paper, the drawing can be imported into a program that allows vector tracing, e.g. B. Adobe Illustrator. Using the traced hand image in a 1: 1 scale background image, a vector path is used to create an outline that is imported into a CAD program to create a 3D extrusion of the traced line.

Additionally, ground and power traces for each finger are created and extruded at this stage to ensure all parts and paths fit as intended. As for the coin cell case, a simple cylinder can be created and peeled in the middle of the hand (think Iron Man) – which ultimately powers the conductive strips that lead to each finger after the final glove is printed.

Once the glove and parts have been optimized for 3D printing using a twin extruder 3D printer, the hand is printed in Ninjaflex while the handprints are printed in conductive PLA filament. Because these parts are printed as a single piece, they are fused together during the printing process. The Ruiz Brothers used a Flashforge Creator Pro for their project.

Before connecting any LEDs with conductive paint, the conductor tracks are tested to make sure they can actually flow electrons by inserting the button cell into the battery holder and using a piece of copper foil tape to connect the ground, followed by connecting a bare LED to each conductive pad.

Finally, the finger straps can be added to the finished glove and tested for flexibility. At this stage, the conductive paint can fix all parts that peel off in dry places – such as B. the LEDs.

“The bare conductive paint adheres pretty well to the materials, but you can remove it with a lot of force and movement,” add the brothers.

“If you feel stressed, small touch-ups can be made. Be careful not to touch or bend yourself until the conductive paint has dried. You can also use UV / black light to amplify the light when using NinjaFlex in the dark! “

Of course, the project doesn’t just have to end with the glove – the same technique can be easily applied to any number of Cosplay or Halloween costumes.

To read the build process in full, go to Adafruit.

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Graphene 3D Lab Introduces New, Highly effective Magnetic Filament – 3DPrint.com

It’s been a couple of weeks since we wrote about Graphene 3D Lab, which is pretty unusual. Since their founding in 2014, they have been pumping out new products after new products, patent applications after patent applications. The 3D printing industry, and the technology industry in general, rave about graphene as a “wonder material,” and the Graphene 3D Lab has stood out above all others in the print race. They haven’t developed a pure graphene filament yet, but they have incorporated the material into several of their products, including a conductive graphene / PLA composite filament.

BM3D-175-MAG-4TIn addition to working with graphene, the company has developed a number of filaments made from various specialty materials, including wood, glow in the dark, and of course conductive. The latest product is a magnetic filament, which is available now in the Graphene 3D Lab’s Filament Store, BlackMagic3D, and on Amazon. The iron-based filament made from a ferro-magnetic PLA material is described as ideal for 3D printing industrial components such as sensors, motors and mechanical actuators.

“It has always been the goal of Graphene 3D to create new possibilities for 3D printing. With every functional filament we bring to market, the types of 3D projects that can be successfully printed expand exponentially, ”he said Elena Polyakova, Co-CEO of Graphene 3D. “Since this filament is ideal for switches, sensors and actuators, we also expect this new functionality to challenge more traditional manufacturers to consider integrating more 3D printing technology into their manufacturing processes.”

The magnetic filament is available 1.75mm in diameter in 350 grams for $ 39.99. The color is flat black and gives printed objects a cast iron look. Due to the iron content, the filament is more brittle and abrasive than standard PLA. So expect increased wear and tear on your nozzle. Graphene 3D Labs suggests setting the first stage and using a larger or more wear-resistant nozzle for longer prints. However, unlike other iron products, it is unlikely to rust.

GIF magnetic demonstration full screen

The filament really carries a strong magnetic charge; For best results, Graphene 3D Labs recommends using magnets made of neodymium iron boron (NdFeB) or samarium cobalt (SmCo). The filament prints at a temperature of 215 to 225 ° Celsius; A heated bed can be used at 60 ° but is not required. The printing speed is approx. 60 to 80 mm / s.

BM3D-175-MAG-2TIn addition to the numerous industrial applications for which the filament is expected to be suitable, it has great potential in education. Magnets are fun in and of themselves, but having kids 3D printing their own magnets is another great way to incorporate 3D printing into science classes. And Graphene 3D Labs isn’t done yet.

“We expect 2016 will be a significant year for Graphene 3D in introducing new functional filaments,” he said Daniel Stolyarov, Co-CEO. “We have several new functional filaments in the development pipeline and expect several new filaments to hit the market over the course of the year. The availability of a wide range of functional 3D printing materials expands the possibilities of additive manufacturing and allows you to print projects only limited by your imagination. “

Let us know what you think about these new filaments in the Graphene 3D 3D Printing Filament forum on 3DPB.com.

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3ders.org – Extrudr unveils new Inexperienced TEC 3D printer filament constructed from renewable and pure supplies

March 9, 2016 | From Alec

With the 3D printing community consuming huge amounts of plastic (and how many of those prints fail?), It’s always good to use 3D printer filaments that are biodegradable or can be recycled. PLA is a good start, but is only fully biodegradable in bioreactors and under certain laboratory conditions. Grinding units are another option: machines that can be used to recycle faulty prints into new 3D printer filaments, although unfortunately these are still very expensive. Fortunately, a third option has just appeared: Extrudr Green-TEC from Austrian 3D printer filament manufacturers Extrudr. In contrast to PLA, it can be 100% broken down in natural cycles.

If you’ve never heard of Extrudr, it’s probably because they haven’t been around long. Although they have popped up here and there at some 3D printing and event events, they are actually a very young manufacturer from Austria who has been working on their products since February 2014. Although deciding on a new manufacturer can be a bit daunting since you don’t know what you’re going to get, co-founder Johannes Früh previously told 3ders.org that they have a high quality production line. “We can guarantee high quality standards such as diameter, resin, roundness, printability, etc.,” he told us.

While very young, they have already developed a diverse line of 3D printable filaments, including various brightly colored (and multicolored) PLA and ABS options, a range of PETG filaments, and some biopolymers. At the beginning of the year they also let shine in the dark, woody and pearl-like 3D printer filaments.

They are now adding Green-TEC in four colors to this line: black, blue, red and white. As they explain, it is made entirely from biological compounds and pure raw materials. “The material has a bio-organic composition and compost mixtures in contrast to PLA,” they say. “Green-TEC is therefore CO2-neutral and absolutely harmless from an ecological point of view.” It is an excellent alternative to the more conventional ABS or PLA filaments, and not just because it is environmentally friendly. It is also non-toxic and has superior temperature resistance, hardness, and elongation compared to ABS or PLA.

It is also easy to use – unlike ABS, Green-TEC 3D printer filament hardly suffers from shrinkage or warping. This makes it very suitable for larger and more complex prints with a large surface area. It doesn’t even need a heated print bed. And because it meets all EU regulations for plastics that come into contact with food, you can also use it on a wide variety of 3D printed products. While it’s slightly more expensive than other filaments at € 56 per kilo (or around $ 61), its eco-friendly properties are particularly attractive. It is also available in 1.75 and 2.85mm options.

Specifications for Green-TEC filaments:

  • Heat resistant up to 110-120 ° C, 248 Fahrenheit,
  • Low temperature of 170-200 C.
  • High mechanical resistance, which leads to lighter components
  • Very little warping (<0.5%)
  • Food safe
  • Biodegradable
  • High layer adhesion and good optical properties
  • Print parameters
  • Printed bed: 0-60 ° C.
  • Adhesion: Bluetabe, Kapton, Carbon, Glass
  • Print speed: up to 120 mm / s

Weight:

  • 1.75 mm – 2.4 g / m
  • 2.85 mm – 7.6 g / m

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Thanks to Filamet, metal printing is now in your hand

New filament means you may print steel on any 3D printer

You may want to sit down because this one is exciting. The virtual foundry has just launched Filamet ™, a new metal infused filament that turns any FDM 3D printer into a metal 3D printer!

Really…

We have just gotten used to the fact that only high-end printers can handle metal and most mortals have to get by with simple plastics. That just changed. You can now print copper and bronze on any 3D printer.

This new filament from the Wisconsin-based company could literally be a game changer and disrupt the current course of 3D Printed Metal. They came out with copper and bronze, but you can expect more metals to be seen in the near future.

More than just metal.

The patented process of the virtual foundry not only works with metal, but will also be equipped with 3D-printable glass and ceramic products over the next 6 months. Maybe you don’t need to upgrade your 3D printer after all, and thanks to this quantum leap in materials science, even the simplest desktop unit could turn into a complete manufacturing facility.

How does it work? It’s basically a heavily infused plastic, just enough plastic to get through your current printer. Currently this is only 11.5%, an amount that was below the theoretical limit a year ago. The remaining 88.5 mass% are high-purity metal powder. The prints can then simply be buffed or, interestingly, post-processed to remove the small amount of plastic. The resulting product is 99 +% pure metal that is as pure as many of us will ever need. The virtual foundry says they keep improving the process and expect future versions to be closer to just 8% plastic.

Another great Kickstarter success story?

This project showed up on Kickstarter last year and raised 135% of target funding. However, the virtual foundry had a mission to bring metal production to our desktops before 3D printing was even an option. It used to work with cold casting and electroforming, but now technology has caught up and 3D printing seems to have given them the answer.

We don’t have the finished product in our hands yet. However, the big start at the Hubble Auditorium in Lockheed-Martin suggests the team really cracked the code.

“Printer manufacturers have struggled for years to get metal printing within the price range of the average sole proprietorship or small business,” said Bradley Woods, the man behind this technical breakthrough. “Filamet ™ has the opposite strategy. Instead of impairing the high-end, only the functions of current 3D printers are expanded. “

“We expect materials to be a big part of near-term product innovation in the 3D printing market. Our company offers an instant solution for creating real and useful metal prints on the desktop 3D printer you already own. “

Professionalize your home printer

This filament could make your desktop printer a rival to the reputable commercial machines, and even turn out to be better. That’s because metal printers are notoriously slow, and a large printer can actually take 48 hours to make a single print.

While the end result may be spectacular, even if you could afford to have one in your home workshop, it might not fit your workflow.

Consumer printers are designed for the average user and therefore offer a realistic tradeoff between price, resolution and speed. With this metal filament, your home 3D printer could become a real manufacturing weapon. We can suddenly make statues and parts out of copper and bronze without having access to a furnace, and that could be a revolution in itself.

Prints can take less than five hours with a consumer printer, and this new material is big news even for large businesses.

Print on any printer with Filamet Metall

Companies are in this too

The technology has attracted big names like Calvin Klein and a company looking to license the consumable parts manufacturing technology for its facility that 3D prints uranium fuel cells for nuclear reactors. The technology works with any 3D printer, meaning that even commercial companies with multiple printer scans are now using their simpler units for faster, cheaper production.

This opens up so many new opportunities and science itself could be a launch pad for other companies to develop their own innovations. We have often said that the biggest step forward will come from materials, but even we haven’t seen any company turn today’s printers into complete production lines for metals, glass and ceramics.
We can’t wait to see the products in action and test this filament for ourselves. If it turns out to be half what the claims are, it can change everything.

http://www.theVirtualFoundry.com & [email protected]

More pictures under http://www.thevirtualfoundry.com/showcase/

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