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Conventional optical components including lenses based on refraction suffer from functional degradation as the device size decreases as well as other limitations. Metasurfaces consisting of subwavelength optical antenna arrays have emerged as planar optical devices that can overcome many of the limitations of conventional lenses. Such metasurfaces enable many promising applications in lenses, holograms, and optical cloaks. These metasurfaces have been developed for their specific functionalities by exploiting new materials and design algorithms. Various optical properties such as amplitude, phase, and even frequency can be tuned by adjusting the physical shape of individual antennas and their arrangement.
The articles in the March issue of MRS Bulletin overview recent progress in and the state-of-the-art of metasurfaces and their novel applications in optics and photonics.
This webinar featured three talks from experts in the field. A Q&A session was held with each speaker at the conclusion of their talks.
Talk Presentations:
Sponsored by American Elements
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Co-presented with SFB, the Society for Biomaterials
The spread of COVID-19 throughout the globe highlights the need for improved solutions in the fight against infectious diseases. As always, materials research plays an immense role in finding these solutions. Prevention and protection, diagnostics, therapeutics and vaccines – materials science plays a key role in each of these key components.
In this live 90-minute panel discussion, we spoke with five researchers on the frontlines of this critical battle, applying biomaterials, nanotechnology, and other tools of materials research to accelerate a solution.
This webinar brought an overwhelming amount of questions, and we are continuing the conversation on LinkedIn @COVID-19 (Coronavirus) and Materials Science. We encourage you to join the group as we resume the discussion with materials researchers at the forefront of this battle.
Host: Kara Spiller, Drexel University and Chair of the Society for Biomaterials Immune Engineering Special Interest Group
Panelists:
Sponsored by Gatan, MilliporeSigma and Goodfellow
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New technology now makes it possible to research low-mobility materials on a tabletop Hall measurement system without the use of AC field. Join this webinar and see a hands-on demonstration. Presented by Lake Shore Cryotronics.
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Three-dimensional (3D) tomographic imaging, using x-rays or electrons, of the structural, chemical, and physical properties of a material provides key knowledge that links the structure of a material to its processing, which is central to studies across a broad spectrum of materials. For decades, tomography using x-rays or electrons has proven to be an essential 3D characterization tool. In recent years, advances in technology have enabled new imaging capabilities at the nanometer or atomic scale for 3D reconstruction.
The April 2020 issue of MRS Bulletin discusses developments, techniques, and future directions for 3D tomographic imaging. This webinar expanded upon and complemented the MRS Bulletin issue with talks from leading experts in the field. An interactive Q&A session followed each of the talks.
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Sponsored by American Elements
This webinar was presented in conjunction with the Journal of Materials Research Focus Issue on Atomic Layer Deposition for Emerging Thin-film Materials and Applications. The webinar featured three presentations from authors from the Focus Issue, and each talk was followed by an interactive Q&A session with those authors.
Atomic layer deposition (ALD) is a powerful and elegant technique for depositing atomically controllable thin film materials. ALD proceeds with a unique growth mechanism relying on alternately sequential surface-controlled self-saturation reactions, which enables the atomic-scale layer-by-layer deposition of the uniformly conformal films over virtually any topologies.
Since the 2000s, ALD has greatly widened its variety of applications from semiconductors to catalysis, biomedicine, gas sensing, anti-corrosion coating, clean-energy technologies (batteries, fuel cells, supercapacitors, solar cells, etc.), and nano- and micro-electromechanical systems (N/MEMS). The characteristic merits of ALD include not only its superior controllability over film thickness, composition, and crystallinity, but also its unique capability for constructing conformal thin-film coatings on complex structures. These merits underlie the fast expansion of ALD into new areas over the past decades, such as metal-organic frameworks, two-dimensional layered materials, single-atom catalysis, solid-state batteries, and so forth.
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Learn everything you need to know about the U.S. immigration system and how to maximize your chances of winning a green card in the EB-1/NIW categories.
Speaker bio: Brian Getson is a graduate of the University of Pennsylvania Law School with 20 years of experience. He is a leading U.S. immigration lawyer who represents scientific researchers in applying for green cards and leads his immigration law firm based in Philadelphia. Mr. Getson has given presentations on "Green Cards for Scientific Researchers" at numerous major scientific conferences, the Wistar Institute, and at Universities. Mr. Getson often provides a money back guarantee to qualified applicants giving clients confidence that they will get results. See his website, researchergreencard.com for more information.
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The properties of quantum materials are principally defined by quantum mechanical effects at macroscopic length scales. These materials exhibit phenomena and functionalities not expected or predicted from classical physics. While the field of quantum materials has been a topical area of modern materials science for decades, today it is at the center stage of technologies ranging from electronics, photonics, energy, defense, and sensing to environmental and biomedical applications, and in particular, quantum information science and technology. The May issue of MRS Bulletin presented important developments in emergent quantum materials at the intersection of materials science and condensed-matter physics.
This webinar expanded upon and complemented the articles in this MRS Bulletin issue with talks from leading experts in the field. An interactive Q&A session will follow each of the talks.
Talk Presentations:
Sponsored by American Elements
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The application of halide perovskites for photovoltaic solar cells and light-emitting diodes has rapidly expanded recently and is now being extended into nanoelectronics, including in thermoelectric, memory, and artificial synapse applications. Halide perovskites provide an excellent platform for optoelectronics and nanoelectronics with interesting optical, electrical, and magnetic properties. The articles in the June, 2020 issue of MRS Bulletin overview halogen perovskites and devices for optoelectronic and nanoelectronics applications.
This webinar expanded upon and complemented the articles in this MRS Bulletin issue with talks from leading experts in the field. An interactive Q&A session followed each of the talks.
Talk Presentations:
Sponsored by American Elements, Angstrom Engineering and Lake Shore Cryotronics, Inc.
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Co-presented by MRS and ACerS, the American Ceramic Society
Ceramics and glasses are at the forefront of advanced materials and will continue to bring new solutions to global challenges in energy, the environment, healthcare, and information/communication technology. To meet the accelerated pace of modern technology delivery, a more sophisticated approach to the design of advanced ceramics and glass materials must be developed to enable faster, cheaper, and better research and development of new materials compositions for future applications.
In this Webinar, we will discuss application of data science tools toward the design, understanding, and optimization of ceramic and glass materials.
Talk presentations:
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This webinar provides a fundamental introduction to atom probe tomography (APT) and 3D nanoscale imaging mass spectrometry, with a focus on interpreting the resultant data. Further, we explore how APT can create more efficient energy-producing materials, and how the technique can be applied to new applications. An overview of applications in metals, semiconductors, and insulators, with examples of how atom probe tomography has been applied to solve real-world problems, is provided. This introduction to the technology and applications provides insight into how you can use APT in your research. Presented by CAMECA.
We also invite you to view the follow-up to this webinar, "New 3D Nanoscale Research Breakthroughs via Atom Probe Tomography" which was presented on July 28, 2021.