Futurism, Brooklyn, New York. Covering the latest scientific breakthroughs and technological innovations.
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Category: 3D printing – Page 103
Samuel Sia, a professor of biomedical engineering at New York City’s Columbia University, has developed a 3D printed biobot that can be implanted in the body to release controlled doses of drugs. The amazing device can be controlled from outside the body using only magnets.
For patients who have been diagnosed with cancer, treatment options are often few and far between, and in many serious cases, starting an intense course of chemotherapy becomes a necessity rather than a choice. But despite being a powerful weapon against cancer, chemotherapy takes its toll on the body in a number of ways: chronic pain, nausea, fatigue, hair loss, and the chance of infertility are just some of the adverse effects that chemotherapy can present. Fortunately, scientists are working hard to develop more effective ways of delivering chemotherapy drugs, including a new 3D printing method that involves fabricating squishy, “clockwork” micromachines that deliver precise drug doses from within the body.
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Speculation on 3D printed tissue coming to humans sooner than we think is backed by new pre-clinical findings from 3D bioprinting company Organovo (NASDAQ: ONVO). Though it will still be 3 – 5 years before the U.S. based Organovo apply for clearance of their liver tissue, that is still sooner than perhaps even the FDA had in mind.
Pre-clinical trial data shows that 3D bioprinted liver tissue has been successfully planted into lab-bred mice. The human liver-cell tissue shows regular functionality and, at this stage, is being explored as a suitable patch for the organ.
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Tilt Brush example. — Pictures courtesy of HTC ViveLONDON, Dec 27 — From January 11 to 14, 2017, the Royal Academy of Art in London will present the first ever 3D-printed artworks in virtual reality, produced in collaboration with HTC Vive.
Artists from the Royal Academy and its alumni will create artwork using the virtual reality platform HTC Vive, creations that visitors to the exhibition will be able to experience in real time, “fully immersing themselves in the virtual piece.”
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Very cool; I do look forward to see where we land in the next 5 years on mobile imaging systems.
Years ago I remember developing software for a mobile blood gas analyzer to help researchers and doctors in some of the world’s most remote locations. And, the technology then did improve survival rates for so many. And, I see advances like this one doing so much for many who do not have access or the luxury of centralize labs, or hospitals, etc.
Democratizing Cellular Time-Lapses with a Cell-Phone!
A group of researchers from Uppsala University have recently developed an affordable system capable of capturing time-lapse videos of living cells under various conditions. Dubbed the affordable time-lapse imaging and incubation systm (ATLIS), the system can be constructed out of off-the-shelf electronic components and 3D-printed parts while using a standard smartphone for imaging.
While there have been other microscope adapters for smartphones to enable easy image capturing, the ATLIS is much more than microscope smartphone adapters. It is optimised in order to convert old microscopes found in abundance in Universities and hospitals into full-fledged time-lapse systems to image cell dynamics. Such a system requires strict environmental control of temperature, pH, osmolarity and light exposure in order to maintain normal cell behaviour.
There’s really no sector in the United States (or much of the world) that has been untouched by the development of advanced manufacturing technologies – and no one seems to be underestimating the importance of the further development of those technologies in order to keep the country competitive. To that end, in 2014 the government established the National Network for Manufacturing Innovation (NNMI), more commonly known as Manufacturing USA.
The program brought together the industrial, academic, nonprofit and governmental sectors to establish a network of advanced manufacturing institutes for the purpose of accelerating new manufacturing technologies. President Obama proposed that the network grow to 45 institutes over the course of 10 years, and as of today, 12 have been established. The 12th, which was just announced by the Department of Defense, will be the Advanced Tissue Biofabrication (ATB) Manufacturing USA Institute, and will be led by the Advanced Regenerative Manufacturing Institute (ARMI), based in Manchester, New Hampshire.
“The investments we are making in advanced manufacturing, including today’s announcement, will ensure that the innovations needed to develop, manufacture and commercialize cutting-edge processes and materials will happen right here, in America,” said Defense Secretary Ash Carter. “They will provide important benefits to our war fighters and will help strengthen the economy that is the bedrock of our national security.”
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Millennium Space Systems have reached a major development milestone for their ALTAIR satellite ahead of a proposed launch in March 2017. They have announced that the first satellite has completed development and been shipped. The satellite was enabled by additive manufacturing and has now gained flight qualification.
Paul Swanson, Millennium Space’s Low Earth Orbit (LEO) constellations program manager, explained the importance of reaching this target,
This flight qualification of our ALTAIR™ spacecraft represents a key milestone in providing low-risk and very high-platform performance coupled with affordability as the company transitions to full-scale manufacturing of our ALTAIR™ product line and anticipated ALTAIR™ constellations.
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NESS ZIONA, Israel, December 12, 2016 – Nano Dimension Ltd., a leader in the field of 3D Printed Electronics (NASDAQ, TASE: NNDM), will showcase its 3D printer for professional printed circuit boards (PCBs) and electric circuits in Eureka Park during CES 2017. The technology sits firmly at the intersection of 3D printing and printed electronics, and sets new standards for accuracy, complexity and multi-materiality in the fields of 3D printing and electronics prototyping.
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For makers, 3D printed circuit boards are no longer a mere dream. 3D printers. which can do DIY PCB printing, will become commercially available soon.
The making of DIY circuit boards is a complex task. First, you’ll have to plan the PCB, make a 2D print of the layout, cut a copper plate, transfer the PCB layout to the copper plate, iron the circuit, go through the process of etching, cleaning, disposing… and after some hours of manual labor, you should be ready.
There must be a way to do this more efficiently, right? Wouldn’t a 3D printer be perfect for that job? Fortunately, the first PCB 3D printers will become available soon. Currently, these machines are able to 3D print electronics.
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