Fashion and technology converged earlier this week at the Metropolitan Museum of Art’s 2016 Gala.
At the event Monday night, actress Claire Danes wore a gown that had 30 mini-battery packs sewn into layers of fiber optic woven organza that made the dress glow in the dark (see below).
Another highlight, a “cognitive dress,” was the creation of the fashion house Marchesa and IBM’s Watson. It analyzed tweets for the emotion of fans watching the Gala’s red carpet show on social media, and lit up embedded LED lights in corresponding colors.
These and other fashion statements embraced this year’s theme and the title of an exhibit that continues through August 14 at The Met: “Manus x Machina: Fashion in an Age of Technology.”
The so-called “cognitive dress,” created by designer Marchesa and IBM technology. Photo: Getty Images
The Met’s Costume Institute exhibit explores how fashion designers are reconciling the handmade and the machine-made in the creation of haute couture and avant-garde ready to wear.
More than 170 items, dating from the early 20th century to the present, will feature handmade elements of fashion such as embroidery, pleating, lacework and leather work, alongside versions that incorporate innovative processes, such as 3D printing, computer modeling, bonding and laminating, laser cutting and ultrasonic welding. Continue reading
We have a saying here at Proto Labs, “Materials Matter.”
To learn more about selecting the right material for 3D printing, download our free white paper.
Indeed, material properties are an especially key piece to consider in the case of industrial 3D printing, or additive manufacturing, which is different from traditional manufacturing methods.
To help you sort through the properties — from tensile strength to yield strength, elongation at break to hardness — we’ve published a comprehensive new white paper, “Selecting the Right Material for 3D Printing.” The paper explores recent improvements and advancements in materials used in 3D printing, and then goes in depth to cover materials that work best for three frequently used technologies: direct metal laser sintering, selective laser sintering and stereolithography.
This new white paper is part of a range of resources in our online library of 3D printing content that includes design tips, case studies, videos and other white papers. We also have a staff of experienced customer service engineers who can discuss design questions that may arise. Find us at protolabs.com or call us at 877-479-3680.
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Companies in automotive, aerospace, med tech, lighting and a range of other industries are using digital manufacturers for their prototyping and low-volume production supply partners.
Here are five reasons why:
Speed to Market
Depending on the supplier you use, you should be able to get short turnaround times that support multiple design iterations, which is crucial in those early, prototyping stages of a product’s development.
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Automated Quoting Systems
Partner with a manufacturer that offers a helpful quoting system. Our interactive quoting system at Proto Labs provides free, automated design for manufacturability (DFM) analysis, typically in an hour or two. Miguel Perez, a designer with Lockheed Martin, recently commented on our DFM feedback: “The auto-quoting system is amazing. Within a day, you get an answer as to whether you can make the part, whether you need to make changes, etc.” Continue reading
The growth of our country’s aging population is perhaps the most powerful force shaping today’s economy and the outlook for medical device companies in particular. For instance, the bulk of baby boomers now are 70 or older, while the U.S. Census Bureau projects the 65-and-over U.S. population to double to nearly 84 million by 2050.
The ways that rapid manufacturing companies such as Proto Labs can help med tech companies serve this aging population is the focus of a column by Rob Bodor, Proto Labs’ VP and GM of the Americas, in Med Device Online. Bodor’s column is the first in a four-part series, “Building Better Prototypes,” for the med tech website.
Bodor’s current column covers factors that drive rapid manufacturing’s viability in the med tech space, and explores the various processes and materials that med-device companies should consider.
You can read the entire column here.
3D printing and other rapid manufacturing methods continue to transform the med tech industry, as illustrated recently by an Australian neurosurgeon who, in late 2015, removed cancerous vertebrae in a patient and implanted, in their place, printed vertebrae.
The 3D-printed part that would replace the patient’s cancer-ridden vertebrae. Photo: Dailymail.co.uk and ABC News.
Dr. Ralph Mobbs, a neurosurgeon at the Prince of Wales Hospital in Sydney, called the procedure a “world first.” The surgery was performed on a patient with chordoma, a rare form of cancer that occurs in the bone of the skull and spine. As Wired UK reports, the 60-year-old patient was affected in the two vertebrae responsible for turning the head — meaning that, if the 15-hour surgery had failed, he would have been left paralyzed.
Because of the position and function of these vertebrae, however, they’re extremely hard to replace — they must be an exact fit. Mobbs decided to 3D print the replacements instead, and worked with Anatomics, an Australian medical device manufacturer, to design and build the implants, which were made from titanium. The company also printed exact anatomical models of the patient’s head for Mobbs to practice on before the surgery. Continue reading