Intel to launch 3D printed Robot, soon…

Intel showed off its totally customizable, 3D printed Robotic kit – Jimmy, at the Code Conference on Wednesday. Intel says it plans to bring Jimmy to the plug by the tip of the year, with a price tag beginning around 1,600 USD.

Intel’s futurist Brian David Johnson debuted the 3D printed robot Jimmy at the Maker Faire in the NY, USA last year. According to Brian D Johnson, Intel started the project around 10 years ago. “Imagine if you may produce your own robot with the help of 3D printing. What would it not look like? What would it not do? This project aims to let anyone produce robots, and alter them and share them in on-line communities, sanctioning them to be 3D printed in varied styles.

Intel will supply schematics and AI code free on-line, so folks can 3D print their own robots. The kit includes everything that cannot be written, like motors, wires, battery, processor etc and can be bought on-line at 21stCenturyRobot.com.

The consumer model runs on Intel Edison, an inexpensive laptop on a chip, in line with Re/Code. If it were to be equipped with an Intel Core i5 processor, it might amp the price to somewhere near 16,000 USD. Intel hopes that eventually buyers are able to build custom robots for fewer than 1,000 USD in about 5 years from now. Also the robots are open source, thus users will be able to alter the code according to his or her own functions. Developers can also build programs and apps, creating artificial intelligence accessible and fun. These Robots are able to walk, dance, sing and do things like tweeting, translating languages or even serving cold brew.

Johnson explains that it’s not totally different from a smartphone with customizable apps. “It’s sort of a smartphone with legs,” he said. “Your robots are utterly and totally different from mine; you customise it and program the substitute intelligence, not by having a PhD in artificial intelligence, however by downloading apps.”

The company eventually plans to supply alternative robotic kits, and launch an app marketplace at 21stCenturyRobot.com.

US Army and NASA come together, to use 3D printing for missile development

The U.S. Army wants to expand the usability of 3D printing by partnering with NASA and the University of Alabama in Huntsville to harness this rising technology.

May 2014: Leaders from the U.S. Army “Aviation and Missile Research Development and Engineering Center “(AMRDEC) and NASA’s “Marshall Space Flight Center” (MSFC) formally established a 3D printing and Additive Manufacturing ” Integrated Product Team” (IPT) to interact in analysis and development of additive producing.

AMRDEC is presently reviewing uses of Additive Manufacturing, to attenuate value and optimized performance of missile structures, mistreatment topology improvement routines to reinforce style and analysis of additively designed structures, and characterizing materials and processes for specific missile applications.

“Teaming with NASA MSFC and different partners, AMRDEC can investigate procurements of 3D printing machines to support our analysis wants, build a cadre of engineers and scientists savvy on this technology, fabricate and optimize performance of quality parts for ground and flight usage,” said acting AMRDEC Director James Lackey.

Additive producing, or 3D printing, had a high level of interest for AMRDEC and NASA. The U.S. Army’s Rapid Equipping Force (REF) deployed several mobile laboratories in the combat areas of Afghanistan back in 2012/2013. The science lab’s , each costing around $2.8 million includes a 3D Printer and a CNC machine for manufacturing elements and parts from steel and aluminum. The science lab permits troopers at the combat area to style, modify and manufacture elements themselves. Researchers at Picatinny Arsenal in NJ, USA, a military analysis and producing facility, are utilizing additive producing and 3D printing to print electronic gadgets, weapon parts, and coach models.

Meanwhile, NASA is getting ready to launch the first 3D printer to an International space laboratory in 2014. If in, the “3D printing in Zero G Experiment” will the primary device to manufacture elements in space. Moreover, researchers at NASA and the University of Alabama are trying to 3D print cellular clusters of non-living structural biomaterials like bone minerals, solid body substances and wood.

Strooder, 1st Consumer 3D Printing Filament Extruder by OmniDynamics

David Graves and Greg Gruszecki, founding father of OmniDynamics, are preparing to launch Strooder, a user friendly 3D printing filament extruder on Kickstarter today (27th May, 2014). A bonus of constructing your own filament from pellets is that pellets can be bought at solely a fraction of the price of ancient pre-made filament (up to five times less expensive), additionally, an extruder would doubtlessly supply better skillfulness, in material and color.

The overall aim for Strooder was to form a product that not solely performs higher than the rest on the market, but also additionally incorporates a style that matches in every multitude of environment, starting from workshops, to home offices and even faculties.OmniDynamics said. “A key distinction of Strooder compared to alternative filament extruders, aside from its gorgeous appearance, is its user friendliness.”

The strooder comes with a completely integrated 2.4 Inch Touch screen display, preloaded with all the relevant extrusion settings for a spread of various plastics. This allows folks without any expertise and technical background to control Strooder. For the layman user, all of those preloaded settings will be adjusted and saved, and there’s additionally a manual setting for extruding with non-preloaded materials.

OmniDynamics team will launch the Kickstarter campaign for Strooder today (in few hours) so as to boost funds to buy all the components in bulk. It offers ten complete and absolutely assembled Strooder’s with a critic 100g of pellets (UK shipping included) for simply £149. Another one hundred early backers will get a completely assembled Strooder for £169. The earliest delivery time is Sep. 2014.

SLM Solutions@NAMC: Beginning of next generation 3D printing

Doctors in Singapore shall soon be able to produce custom knee and bone implants, to suit individual patients, with the help of 3D printers. Nanyang Technological University (NTU) has undraped its new S$30 million 3D printing Centre on Monday. The new 3D printing Centre will feature the latest 3D printing machines, like laser-aided machines for building metal elements and objects for business, and bioprinters that are ready to print human tissues. At the launch, NTU conjointly signed a $5 million joint laboratory agreement with German 3D printer maker SLM Solutions, one of the world’s leading makers of 3D printers.

Named SLM Solutions@NAMC, the workplace aims to develop next-generation 3D printers which shall print abundantly larger dimensions than today’s 3D printers and also new kinds of materials. It’ll conjointly develop platforms that may print multiple materials in one single build.

“Our new additive manufacturing Centre not only aims to collaborate with industry to develop innovative, practical solutions but also brings together the best talents in the field.” said NTU President and Professor Bertil Andersson. NTU’s new additive producing Centre aims to put Singapore at the forefront of 3D printing technologies and is supported by the Singapore Economic Development Board.

In conjunction with NAMC’s official launch, NTU conjointly opened Singapore’s first International Conference on Progress in Additive producing, which is able to see almost 100 scientific papers from over twenty countries being shared and bestowed among lecturers and business players.

QU-BD introduces a new version of the One Up 3D printer

QU-BD a Little Rock, Arkansas-based company had successfully raised over $400,000 from almost 1,200+ supporters, with the help of their Kickstarter campaign for their $199 One Up 3D printer in Nov 2013.

This year the Little Rock, Arkansas-based company had unveiled a number of new versions of its 3D printer at the Bay space Maker Faire in California last weekend, Gizmag reports. The 3D printer looked just about an equivalent of the One Up 3D printer, however in bright Neon inspired colours. A QU-BD corporation rep told Gizmag reporter, Eric – “We are currently operating at full capacity to provide printers to all or any the Kickstarter backers, however were additionally taking new orders and hope to be ready to begin delivering those orders next month.”

The success of its Kickstarter campaign has made QU-BD busy for fulfilling the orders of over 1,200+ backers that was fifty times larger than what they needed for their $9,000 initial goal. Fulfilling a project that’s not well ready may be a disaster. Several of these backers have left bitter and frustrated comments on our earlier post. The most hyped grievance was lack of communication: no printer, and no emails.

QU-BD says it’s still operating to satisfy orders placed through Kickstarter, therefore hopeful that all backers will get their printer as early as it becomes feasible.

For additional information please visit their Website.

Corrie Van Sice to speak about 3D printing at the Chattanooga Spirit Series

Corrie Van Sice, a national thought leader in 3D printing, biotechnology and innovation culture, is going to share her views at Chattanooga on 3rd June at The Church on Main, between 12 P.M – 9 P.M. Her discussion will highlight the intellectual trade grounds rising around 3D printing, moreover because of the dynamical landscape of engineering innovation associated with it. The event is the 1st installment of the Chattanooga Spirit Series, a string of speaking engagements which will feature national voices on topics that highlight rising innovation opportunities in Chattanooga. Sponsored by the Benwood Foundation, the Chattanooga Spirit Series is supposed to inspire shared exploration into areas of growing potential for the community.

Ms. Van Sice, is widely-recognized for mixing 3D printing with applications in materials engineering, biotechnology and therefore the arts. She frequently partners with researchers, engineers, artists and designers across the world to develop new, interdisciplinary-oriented technologies and processes. Her views on the longer terms of materials producing, the dynamical culture of creating things and therefore the role of community in analysis and innovation have distinguished her as a way sought-after voice on a variety of aborning topics in science and technology. Not only is she an important pioneer in 3D printing, she is also a creative engineer who applies new, integrated ways of thinking to the art and science of making things.

While in Chattanooga, Ms. Van Sice may pay time, mentoring the startups collaborating in CO.LAB’s GIGTANK program. As America’s 1st startup accelerator for the 3D printing trade, GIGTANK is presently supporting seven groups of entrepreneurs who are developing new applications of 3D printing.

“We’re delighted to have an innovator of Corrie’s caliber join us in Chattanooga for our first session of the Chattanooga Spirit Series,” commented Mike Bradshaw, executive director of CO.LAB.

To join the Chattanooga Spirit Series Event – >>Click Here<<

Lockheed Martin is 3D printing Satellites

Lockheed Martin, the Pentagon’s biggest provider, is implementing 3D printing and 3D scanning and simulation technology to boost affordability of manufacturing national security satellites. The company expects to finalize the 3D printing of a government contract for 2 new missile-warning satellites at a forty % reduced expense, than at first calculated by Pentagon, attributable to new additive producing ways, plant closures and layoffs.

We’re attempting to seek out new ways of doing things.” Said Mark Valerio, VP and Chief of military development for Lockheed Martin; to Reuters in an interview at the company’s facility south of Mile-High City.

Most of the military satellites value over $1 billion to make; as a result of it’s troublesome to realize the economies of scale with massive volumes. Lockheed executives expect additive producing, or 3D printing may facilitate to scale back value, cycle time and material waste. Sixty % of its satellites depend on outside suppliers; Lockheed says its engineers are evaluating the possibilities of satellite elements being 3D printed in-house.

Lockheed Martin is utilizing 3D printing to print metallic element satellite components. Within this method, the metallic element is heated and applied in sequent layers to make nearly any form. Once a product is written with additive producing, waste is reduced and cycle time is drastically reduced. Lockheed Martin is presently using this method to develop 3D printed satellite components and plans to continue increasing the method within the future to complicated components and perhaps even full satellites, also the light-weighted satellite would permit the govt. to gain additional sensors, or launch satellites on smaller, less costly rockets.

3D printed satellite components have currently been used on Lockheed’s celestial body – Juno craft – launched in 2011, and also the company’s revamped A2100 industrial satellites. Valerio said – “We are going to fully modify the method a satellite is intended to be used and designed, we are going to print a satellite !

You may read more about this recent development @ 3ders.org.

3D printing complete houses is the latest buzz…

This month, architects in Amsterdam started work on the world’s initial fully 3D-printed house. It’s going to take 3 years and quite a little bit of cash to end. Meanwhile, in Shanghai, an organization claims to have already 3D printed 10 homes with cheap industrial scraps, so what is the difference?

It depends on your definition of 3D printing…

Each of our scientists are using large 3D printers; in Shanghai, it’s 490 feet long, thirty three feet wide, and twenty feet deep, instead of costly plastic, though, the Chinese company WinSun Engineering Co is printing with a concrete mixture “made partially from recycled construction waste, industrial waste, and tailings,” as per the Architect’s Newspaper, each of those homes will cost a minimum of $5,000.

But the largest distinction is that WinSun is printing its homes in items, and then totally assembling them on site, as per with 3Ders.org’s recent report. Whereas in Amsterdam each single detail and piece of furniture will emerge 3D printed. This can be why some commenter’s are correct to argue that WinSun’s project is not really 3D-printed.

But let’s not quibble over syntax here. If these claims are true, WinSun is printing a cheap, durable house in mere hours for a little bit of cash. The corporate says the method would be excellent for fabricating homes for the impoverished and displaced—a major issue in some Chinese cities. In our eyes, that is way nearer to the first dream of sturdy 3D printing buildings: To harness speedy prototyping to create housing that is low-cost, fast, and within the words of WinSun, “dignified.” The thought of paying 3 years and several bucks to print a 13-room home out of plastic, by comparison, looks like nothing over a gimmick.

According to 3Ders.org, WinSun has plans to create one hundred factories in China to “collect and transform” construction waste into mixture for its machines.

Scientists 3D printed Shark Skin Denticles to achieve faster swimming speeds

Scientists have used a 3D-printed model of shark skin to indicate however tooth-like scales facilitate the predators to cruise expeditiously. Engineers have tried to mimic the roughness of shark skin once planning swim suits and even sport cars. Viewed close, a shark’s skin bristles with small teeth or “denticles” that aid swimming, however those denticles haven’t been reproduced before, says a report within the Journal of Experimental Biology. Maybe counter-intuitively, making turbulence close to the sting of a moving object will scale back drag. During this approach, the denticles act just like the dimples on a golf equipment. Now, researchers have conjointly seen them alter specific currents that facilitate propel the shark through water.

George Lauder and his colleagues took a close scan of a little sq. inch of skin from a Mako – Shark, and designed a 3D model of one tooth simply .15mm long. The challenge was then to manufacture an artificial skin, with thousands of those denticles embedded during a sleek, versatile membrane. “It took us a couple of years,” said Professor Lauder, of Harvard.

3D printing builds up new objects layer-by-layer, following a computer-generated style. To print the shark skin, the scientists had to use 2 totally different materials for the exhausting, tooth-like structures and for the versatile base – very similar to the various colored inks needed to print an image.

The particular form of the denticles, conjointly posed difficulties: “Because they are overhung, the 3D printers ought to print a supporting material, that you then ought to take away,” Professor Lauder told the BBC. “It took a jiffy to figure out all the tricks.” Because the resolution of even the most recent 3D printers is proscribed, the factitious denticles area unit regarding ten times larger than the important ones seen on the skin of a Mako – Shark.

Nonetheless, once the team stuck the new covering onto a little, versatile paddle and studied it by rowing in a storage tank, they were ready to see the profit sharks collect from their uncommon scales. A paddle with the new, toothed skin delivered a lift of up to Six % in swimming speed, compared to a single coated normal material, due to the graceful membrane alone. The factitious denticles conjointly allowed the paddle to travel identical simulated distance whereas utilizing Five – Six % less energy.

You can read more about this innovative new approach and credits here.

Get a MASTER’s DEGREE in BIOPRINTING or BIOFABRICATION

Biofabrication is a process by which scientists can regrow most types of human tissue using 3D printers. The Queensland University of Technology’s (QUT) biofabrication research is well-advanced in printing 3D custom-made scaffolds using bio-ink infused with the patient’s stem cells to enable the body to grow a new breast after mastectomy. They have recently joined hands with 3 other leaders in the field to provide a detailed and comprehensive Master’s Degree in Bioprinting or BioFabrication.

The four universities offering the two-year, two-degree master’s program are: QUT in Queensland, the University of Wollongong in NSW, the University Medical Center Utrecht in the Netherlands and the University of Würzburg in Germany.

The two year program provides students one Master’s degree in Regenerative medication & Technology from all the universities. The University of Wollongong has created headlines for the utilization of alga and 3D printing to repair broken tissue. Each of the universities, along with their European counterparts, can fulfill the anticipated demand for bioprinting researchers, further as drawing students to the individual countries for the exciting and growing field of 3D written tissues and implants.

Professor Dietmar W. Hutmacher, leader of QUT’s biofabrication analysis, explains the new program can profit Australia and also the students themselves, “This degree could be a very important step in guaranteeing Australia could be a high-value, sophisticated manufacturer within the future. Graduates are going to be at the forefront of a trade which will perpetually be in high demand given the ageing of populations round the world and that cannot be simply replicated by the other country. Each of the four universities has established documentation in key areas of biofabrication, as well as chemical compound chemistry, cell biology and clinical implant

Australian students can study for 9 to 12 months at one in every of the European faculties, whereas European students can do vice versa at the Australian universities. Hutmacher adds, “Graduates of the new Master’s degree can gain a global career and have the power to steer this exciting medical revolution that grows to be notably necessary for our ageing populations.”