Enhanced high temperature heavy duty gas hot air convection walk-in batch oven

October 31, 2022
Source: ASM International

Enhanced high temperature heavy duty gas hot air convection walk-in batch oven

David Weisman LLC, Stamford, Conn., has introduced its latest enhanced high temperature heavy duty gas fired or electrically heated batch oven systems designed for customers to heat, dry, and/or cure liquid and powder coatings on small, medium, and large three-dimensional products.

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NSF award will help UAB researchers develop and understand high-temperature-resistant materials

July 20, 2022
Source: ASM International

NSF award will help UAB researchers develop and understand high-temperature-resistant materials

Shane Aaron Catledge, Ph.D., associate professor in the University of Alabama at Birmingham Department of Physics, was awarded a three-year Division of Materials grant from the National Science Foundation for his project “New frontiers in synthesis of high-entropy transition metal borides enabled by microwave-induced plasma.”

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Constellium and Morf3D enter a joint additive manufacturing development program

May 31, 2022
Source: ASM International

Constellium and Morf3D enter a joint additive manufacturing development program

Constellium, Paris, is entering into an agreement to provide Aheadd CP1, one of its proprietary additive manufacturing (AM) powder solutions, to Morf3D Inc., a subsidiary of Nikon Corp., specializing in AM optimization and engineering for the aviation, space, and defense industries.

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ASM Appoints New Managing Director

September 13, 2016
Source: ASM International

ASM Appoints New Managing Director

The ASM International Board of Trustees announces the appointment of William T. (Bill) Mahoney as Managing Director effective immediately.

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Winners of Head Health Challenge III announced

December 18, 2015
Source:

The National Football League (NFL), Under Armour, General Electric , and the U.S. Department of Commerce's National Institute of Standards and Technology (NIST), recently announced the five winners of Head Health Challenge III, an open innovation competition to support the discovery, design, and development of advanced materials that better absorb or dissipate impact. The new materials have the potential to improve the performance of protective gear, playing surfaces, and equipment for athletes, members of the military, and others.

Each of the winners will receive $250,000 to advance their work in developing state-of-the-art materials. A panel of leading experts in the field of materials science selected these five winners from 125 entries because they met the challenge's technical criteria to maximize energy absorption and minimize momentum transfer. One overall Head Health Challenge III winner will be selected from the five awardees to receive a $500,000 grand prize.

The Challenge III award winners are:

  • Alba Technic LLC (Winthrop, Maine) has developed a patented, shock-absorbent honeycomb material with an outer layer that diverts the energy from a fall or hit. The material is normally soft and compliant, but upon impact, the outer layer changes into a hard shell to spread the energy and protect the user from injury.
  • Charles Owen Inc. (Lincolnton, Ga.) made cellular structures that use a stacked, origami-like design to optimize energy absorption. The essential building block of this winning material is a double corrugated sheet of the material, whose ability to fold efficiently was originally developed for applications in areas such as solar array packing in the space industry.
  • Corsair Innovations (Plymouth, Mass.) has developed a textile that uses tiny, spring-like fibers to repel rotational and linear impacts, thereby reducing potential damage. Unlike foam materials, this textile is washable, breathable, wicks sweat and can be easily engineered to meet impact performance requirements.
  • Dynamic Research Inc. (Torrance, Calif.) and 6D Helmets LLC are collaborating to evolve 6D's single-impact suspension technology for use in repeated impact conditions. The suspension technology consists of a multi-layer, suspended internal liner system that allows the outer layer to move independently of the inner layer in order to reduce the effect of both angular and linear impact forces.
  • University of Michigan (Ann Arbor, Mich.) researchers designed a lightweight, multi-layered composite that includes a viscoelastic material. This material can be uniquely utilized to help limit the force of multiple and repeated impact events.
     

The finalists will work with the HHC III partners to optimize their materials over the coming year.

The Challenge III judges were:

  • Jeff Crandall, professor in Engineering and Applied Sciences at the University of Virginia. Crandall's research focuses on mechanisms of injury under impact loading.
  • Sharon Glotzer, Ph.D., professor of Chemical Engineering at the University of Michigan. Glotzer's research focuses on the ability to manipulate matter at the molecular, nanoparticle, and colloidal level to create "designer" structures.
  • Heinrich Jaeger, Ph.D., professor of Physics at the University of Chicago. Jaeger's team at the University of Chicago is involved in projects ranging from the assembly of next-generation nanostructures to investigations of the complex nonlinear behavior of granular materials, including grain, gravel, pharmaceutical pills and ultrafine powders.
  • Michael Maher, program manager for the Defense Sciences Offices at the Defense Advanced Research Projects Agency (DARPA). Maher's current interests include development of new technologies to reduce the manufacturing cycle time and novel lightweight multifunctional material systems.
  • Tresa Pollock, Ph.D., chair of the Materials Department at the University of California – Santa Barbara. Pollock's current interests include the mechanical and environmental performance of materials in extreme environments, unique high temperature materials processing paths, ultrafast laser-material interactions, alloy design and 3-D materials characterization.
  • Alton D. Romig, Ph.D., former vice president and general manager of Advanced Development Programs Engineering and Advanced Systems, known as Skunk Works, for Lockheed Martin Aeronautics. In this role, Romig focused on generating breakthrough technologies and designs for aircrafts and is known as the leader in aerospace innovation. Romig now serves as executive officer of the National Academy of Engineering.
  • Alan Taub, Ph.D., professor of Materials Science and Engineering at the University of Michigan. Taub is pursuing research in advanced materials and processing and leading an initiative to establish a new center within the U-M College of Engineering that will focus on advanced manufacturing of lightweight material structures for automotive and aerospace applications.
     

Head Health Challenge III, part of the larger Head Health Initiative, a four-year, $60 million collaboration between GE and the NFL, is one of three open innovation challenges to invest up to $20 million in research and technology development to better understand, identify and protect against brain injury. Challenge I focused on discovering imaging and methods for diagnosis and prognosis of mild traumatic brain injuries, and in July 2015, six grand prize winners were awarded $500,000 to further their revolutionary research. Challenge II focused on new technologies to monitor, identify and protect against mild traumatic brain injury, and in December 2015, three grand prize winners were announced. The winners could receive up to $1 million over the next year to continue to advance their innovations.

The Head Health Challenge III collaboration helps implement a pledge by NIST and the Department of Commerce to invest resources to accelerate the development of materials that can protect against concussions, made at the White House's Healthy Kids and Safe Sports Concussion Summit in May 2014.

Winners of Head Health Challenge III announced

The National Football League (NFL), Under Armour, General Electric , and the U.S. Department of Commerce’s National Institute of Standards and Technology (NIST), recently announced the five winners of Head Health Challenge III, an open innovation competition to support the discovery, design, and development of advanced materials that better absorb or dissipate impact.

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Nomination deadline for the 2016 Class of Fellows is fast approaching

November 5, 2015
Source:

The honor of Fellow of the Society was established to provide recognition to members for distinguished contributions in the field of materials science and engineering, and to develop a broadly based forum for technical and professional leaders to serve as advisors to the Society.

If you are interested in nominating someone for this prestigious award, please contact Christine Hoover, for a unique nomination link.  This link will be exclusive to you, as the nominator, and will provide you the ability to work through the nomination at different times to add content and attachments until you submit the final nomination.

  • The ASM Fellow Award is first and foremost an award for technical achievement and not intended to exclusively award contributions to ASM International. To the extent possible, the selection committee shall select a diverse slate of nominees from all the constituencies of ASM.
  • Five years of current, continuous membership in ASM International as an individual is required at the time of nomination.
  • Candidates for the award may be proposed by Chapters through their Executive Committee, Affiliate Societies, Regional Councils, Committees/Councils, Award Selection Committee, Awards Policy Committee, ASM Fellow or any five members of the Society.
  • Please be aware that the nominee, and nominator(s), must be current ASM members in good standing, or the nomination will not be accepted.  If you have any question regarding the status of membership, please contact me.
  • The nomination is limited to ten pages, plus up to five letters of support for a total of 15 pages (this is in addition to the nomination form).

 

Please refer to our website to view the rules and lists of past recipients. The deadline for submission is November 30.

Nomination deadline for the 2016 Class of Fellows is fast approaching

The honor of Fellow of the Society was established to provide recognition to members for distinguished contributions in the field of materials science and engineering, and to develop a broadly based forum for technical and professional leaders to serve as advisors to the Society. The deadline for submission is November 30.

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VIDEO: Additive manufacturing: 3D printing beyond plastic

July 30, 2015
Source:

At Virginia Polytechnic Institute and State University (VT), Christopher Williams heads the effort to further advance 3D printing—known among engineers as additive manufacturing—with copper, a widely used conductor in electronics. Williams is using a process called binder jetting in which an inkjet printer selectively jets glue into a bed of copper powder, layer-by-layer. The printed copper product is then taken to a furnace to fuse the particles together.

With support from the National Science Foundation (NSF), Williams is addressing a major challenge in the 3D copper printing process, which is to eliminate the porosity that develops in the part during the process. These microscopic pockets of air weaken the finished product. Williams's goal is to create an additive manufacturing process for copper that would be practical for widespread use. If successful, the results gleaned from this project can also be used to educate future engineers in designing systems with 3D printing.

 

 

Beyond the already functioning "3-D printing vending machine" available to students at VT, researchers hope to integrate their findings into an undergraduate/graduate additive manufacturing course, as well as summer workshops for K-12 science, technology, engineering and mathematics (STEM) teachers. These proposed programs will not only instruct students through inquiry-based learning methods but also study how teacher/student perceptions of manufacturing evolve. The research is this episode was supported by NSF award #1254287, Additive Manufacture of Copper Cellular Materials, made through NSF's CAREER (Faculty Early Career Development) program.

Miles O'Brien, Science Nation Correspondent

Ann Kellan, Science Nation Producer

VIDEO: Additive manufacturing: 3D printing beyond plastic

Engineers turn to copper, but must first overcome a major challenge

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Transforming waste into a resource

July 30, 2014
Source:

Essentium Materials, College Station, Tex., converts coconut husk fibers into materials for cars and homes.

When Elisa Teipel, and her collaborators began their research several years ago, their goal was to take an agricultural waste product of little value—in this case, fibers extracted from coconut husks—and turn it into an environmentally-friendly, valuable commodity. Equally important, Teipel, along with colleagues Ryan Vano, husband Blake Teipel, and Matt Kirby wanted the project to help the local economies where they obtained the raw materials.

Today their company, Essentium Materials, is turning out automotive trunk liners, load floors (battery pack covers in electric cars), and living wall planters, among other things, with technology they developed that produces a composite material made of coconut husks combined with recycled plastics.

The result is greener and cost neutral, as well as stronger and stiffer, than the traditional all-synthetic plastic fibers, and with natural anti-microbial properties due to a high lignin content. "The coolest part is seeing something that was once just waste become a new resource," Teipel says. "Also, it is benefitting both the environment and the communities in developing nations where the coconuts are grown."

The researchers estimate that replacing synthetic polyester fibers with coconut husk fibers, known as coir, will reduce petroleum consumption by 2-4 million barrels and carbon dioxide emissions by 450,000 tons annually. Also, the improved performance and lower weight of these materials will lead to cost savings through increased fuel economy, saving up to 3 million gallons of gasoline per year in the U.S., according to Teipel.

Roughly 95% of the 50 billion coconuts grown worldwide are owned by 10 million coconut farmers whose average income is less than $2 a day, she says. Moreover, about 85% of the coconut husks currently create pollution when they are treated like trash. "The successful adoption of these new composite materials within North American markets would in many cases double the annual income for these farmers," she says.

Essentium's work is supported by a $1,018,475 grant from the National Science Foundation (NSF) through its small business innovation research program (SBIR) in the directorate for engineering.

"Projects that use waste materials as a feedstock to create value-added products are a perfect fit for NSF SBIR because we look to support entrepreneurs who can 'do good by doing well,"' says Ben Schrag, the project's program director at NSF. "We believe that small businesses with innovative technology hold the key to solving many of the broader societal and environmental problems faced by the country and the world.

"New material concepts that incorporate waste materials are also becoming increasingly attractive to many consumers and businesses," he adds. "This is creating significant opportunities for shrewd and dedicated technologists and entrepreneurs."

The idea to use coconut husk material originated about seven years ago when Teipel was in graduate school. "We were really interested in seeing how we could help people in other parts of the world with economic development work," she says. "Initially, we were looking in Papua New Guinea. A former professor of mine, Walter Bradley, who has since retired from Baylor University, suggested we look at available materials and what we could do with them, initially to produce electricity.

"Coconut was one of the most readily available materials that farmers and people in the community had access to," she adds. "So we took a look and wondered whether coconut was a viable engineering material, and what we could do with it."

At the time, farmers harvested coconuts only to produce coconut milk and coconut oil, while the husks and fiber were considered waste. Yet the students believed they could take the fibers and convert them into a usable product while "elevating both the dignity of the people and the dignity of the resources," she says.

It was a process of trial and error to develop the material in the lab, then try it in a production setting. "The initial phase of the research was to try to understand the inherent properties of these waste materials to determine viable applications," Teipel says. "We discovered that coconut fiber, for example, is a large, stiff fiber with a very high elongation (25-40%), making it a natural choice for molded automotive products."

The team then worked with several manufacturing companies to develop different material blends and densities, testing out material blends, such as experimenting with different binder fibers, and processing techniques. "During the commercial development phase, it was important to ensure that these materials with natural content could pass the strict automotive standards such as odor and flammability in order to be approved for use in vehicles," she says.

Today Essentium works in the Philippines with local community development groups to extract the fibers from the husks and shells, work conducted close to the plants where the coconut milk and meat processing occurs.

The fibers are separated from the husk then packed and shipped to the United States where they are combined with other fibers, often recycled and reclaimed fibers, and turned into a material that resembles felt. This nonwoven felt can then be molded or formed into parts that can go into a vehicle.

"The coconut fiber nonwoven material, the first product from the EssenTexâ„¢ line, was launched in the Ford Focus Electric vehicle in the load floor," Teipel says. "There are other parts that should be released in the next 12 months. Outside of automotive, the EssenTexâ„¢ line has found a home as a moisture mat absorber in the BrightGreen living wall planter available at Williams Sonoma and Home Depot nation-wide."

Essentium also has coconut waste products from the coconut shell in a bio-recycled part on the Ford F-250 Super Duty, and in a kitchen cutting board called "Coco-poly" available at Bed, Bath & Beyond, she adds. "Our company was built from the idea that you can turn waste into resource," she says. "New materials provide opportunities for engineering applications worldwide and more importantly for farmers abroad waste can be new found treasure.

"As materials people, we understand the importance of selecting and developing the right materials for the job, and recognize that there are many waste streams that can be utilized to create new and better materials and products that have more benefits than just better performance," she adds. "Ultimately, our company is about transforming waste in order to transform people's lives. We want our engineering decisions to improve people's lives and make the world a better place."

Image caption — Pile of discarded coconut husks. Approximately 50 billion coconuts fall from trees annually worldwide. The husk and shell, which are by-products of the coconut oil and water industries, are typically discarded or burned. Courtesy of Essentium Materials LLC.

Transforming waste into a resource

Essentium Materials, College Station, Tex., converts coconut husk fibers into materials for cars and homes.

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Ametek acquires VTI Instruments for its high-accuracy test/measurement solutions

February 12, 2014
Source:

Ametek Inc., Berwyn, Pa., announces that it has acquired VTI Instruments, Irvine, Calif., which manufactures a wide range of signal conditioning and switching instruments, data acquisition solutions, and integrated test systems for demanding electrical and structural testing applications where high measurement accuracy is critical. It joins Ametek as part of its Electronic Instruments Group (EIG), which produces advanced monitoring, testing, calibrating, and display instruments with 2013 sales of $2.0 billion.

VTI, acquired from an investor group led by Merit Capital Partners and Alerion Capital Group, has annual sales of approximately $38 million. "VTI is an excellent acquisition for Ametek.  It is a market leader in high end data acquisition and precision instrumentation with deep technical expertise and applications knowledge," comments Frank S. Hermance, AMETEK Chairman and Chief Executive Officer.  "The acquisition of VTI broadens our capabilities in the high end test and measurement market and provides us with additional technology differentiation, especially in the high-precision segment of the Aerospace market."

VTI has operations in Irvine,  and additional facilities in Cleveland, Ohio, and Bangalore, India.

www.ametek.com

 

Ametek acquires VTI Instruments for its high-accuracy test/measurement solutions

Ametek Inc., Berwyn, Pa., announces that it has acquired VTI Instruments, Irvine, Calif., which manufactures a wide range of signal conditioning and switching instruments, data acquisition solutions, and integrated test systems.

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