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WSU to lead cybersecurity education and research institute | WSU Insider | Washington State University – WSU News

Bernie Van Wie, professor in the Gene and Linda Voiland School of Chemical Engineering and Bioengineering, is leading a $1.5 million Department of Defense effort to establish a new cybersecurity education and research program.

PULLMAN, Wash. Washington State University has been selected as a recipient of a $1.5 million Department of Defense (DOD) grant to establish a new cybersecurity education and research program.

The Northwest Virtual Institute for Cybersecurity Education and Research (CySER) program establishes a cyberoperations research and teaching center at WSU, one of the first three funded in the United States along with the University of Detroit Mercy and Mississippi State University. CySER includes a consortium of Pacific Northwest research partners from the University of Idaho (UI), Montana State University (MSU), Hispanic-serving Columbia Basin College (CBC), and Central Washington University (CWU).

The program will train ROTC and DOD-skilled civilian workers in computer science and other majors in cyber basics, operations, or defense, offering bachelors degrees as well as specialized certificates.

This is an exciting opportunity and brings together for the first time major Northwest institutions, industry and national labs to develop concerted training with cyber-related courses, summer work-shops, field trips to national labs, summer internships, research, a seminar series, and service, said Bernie Van Wie, professor in the Gene and Linda Voiland School of Chemical Engineering and Bioengineering who is leading the effort.

Training modules will be delivered with enhanced teaching methods, including studio-based learning, teamwork, technical communication, and hands-on, problem-solving approaches. Undergraduates will be mentored by CySER PhD trainee cybersecurity researchers. Graduate masters and PhD trainees will obtain advanced cyber operations certificates.

The research thrusts in CySER are centered around cyber education, networks and information security, cyber-physical systems, machine learning and artificial intelligence, software security and quality assurance.

This new multi-institutional institute addresses the critically important challenge of cybersecurity as part of our national defense, said Mary Rezac, dean of the Voiland College of Engineering and Architecture. We are so pleased to be helping to train our future leaders to be knowledgeable in this important field.

The institute will be co-led by Profs. Assefaw Gebremedhin, Noel Schulz and Ananth Kalyanaraman of the School of Electrical Engineering and Computer Science. Profs. Jim Alves-Foss and Terrence Soule at UI, Clem Izurieta at MSU, Matt Boehnke at CBC are serving as leads at their respective institutions, while Lt. Cols. Brian Balazs (WSU/UI), Michael Morris (CWU) and Lance Ratterman (MSU) and Maj. Paul Hyde (WSU/UI) are serving as ROTC leads.

Professors from electrical engineering, computer science, mechanical engineering and management information systems will also participate. Prof. Sola Adesope of the WSU Department of Kinesiology and Educational Psychology will lead the evaluation and educational research aspects of the project.

The program is funded through the DODs Air Force Military Commands Virtual Institutes for Cyber and Electromagnetic Spectrum Research and Employ (VICEROY) Virtual Cyber Institutes initiative.

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Computer Scientist Creates Hive of Ideas for Drones – Maryland Today

Except for that occasional sting, honeybees and other pollinators normally buzz unnoticed in the background, doing the vital work of pollination for about 35% of the worlds food crops. But bees arent just importanttheyre in peril, with the U.S. losing 30% to 40% of honeybee colonies yearly because of complex hazards including pesticide use, air pollution, global warming and parasitic infections.

While entomologists race to support struggling bee populations, this agricultural doomsday scenario prompted Yiannis Aloimonos, a professor of computer science with an appointment in the University of Maryland Institute for Advanced Computer Studies, to leverage his background in computer vision and machine learning to create palm-sized substitutes that could assist if things take a truly dire turn: drones that can artificially pollinate crops.

Hes developing an artificial beehive, appropriately called RoboBeeHivean arm-length drone that will carry smaller drones, find a tree and attach itself. It opens up, and the smaller drones will come out, he said.

The drones use artificial intelligence to autonomously navigate and avoid obstructionsanimals, trees or other drones busy spreading pollenas they carry pollen between plants that sticks to simulated bee fur, he said. And if the weather takes a turn for the worse, a message from the hive calls them back.

The challenge was to assemble the required processors, cameras and other sensors in a compact drone with a limited surface area.

The problem that arises when you develop drones that smallyou have to have computers on top, and cameras and sensors, he said. You can put sensors on big drones that can develop a (map of) three-dimensional space and estimate distances of objects around. But you cannot put them on this.

So Aloimonos, along with Cornelia Fermller, an associate research scientist at the Institute for Advanced Computer Studies, sought inspiration from bees themselves. Instead of mapping the world with lidar or other systems larger robots might use, the drones use whats known as active perception in which, like busy bees, theyre in constant motion to gain a better understanding of their surroundings, he said. This helps them collect data about the space around them and move autonomously.

They have two cameras for 360-degree vision and use an onboard computer that can be fed various control software, said Nitin J. Sanket, a graduate student working with Aloimonos on the artificial beehive project which is scheduled to be ready in July.

In addition to artificially pollinating crops, the small drones can be used for tasks like inspecting bridges, said Chahat Deep Singh, another graduate student in Aloimonos Perception and Robotics Group. The drone can orbit a structure and spot cracks or other problems.

They can also assist in search-and-rescue operations, where the pint-sized robot would self-navigate through rubble and broken windows to find trapped people, a task that would be difficult to conduct using a human-controlled drone.

The general idea is if you want to do these operations, having human operators is expensive, Sanket said. You need a lot of trainingand the other thing is, if you deploy 1,000 drones, you need 1,000 operators, which is not always possible. Thats why we want them to be as autonomous as possible; it makes it cheaper, faster and more efficient in every way.

Aloimonos and his team are brainstorming even more uses for the technology that probably havent crossed many minds. For instance, people with certain health conditions might require constant monitoring as they go through their daily activities, and hiring a full-time caregiver can be expensive, he said. But a small drone could tag along with a person and request help when it notices that the patient needs medical assistance.

The research teams work is funded by the Sergey Brin Family Foundation, named for the 1993 UMD graduate and Google co-founder. It aims to explore the use of drones for teaching in schools, where not only the students, but the drones themselves are getting smarter.

Artificial intelligence has gained prominence in the last five years, Sanket said. That has helped us to do things, which were not possible at this scale before. We can have the capability to do stuff which the bigger drones do, but with more minimalistic software.

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Gov. Parson Signs Bill Designating Southeast with a Statewide Mission in Computer Science, Cybersecurity, and Visual and Performing Arts – Southeast…

Dr. Vargas and Gov. Parson tour Southeast facilities during a 2018 cybersecurity event.

Gov. Mike Parson signed House Bill 297 (HB 297) into law on Tuesday, July 13, officially designating Southeast Missouri State University as an institution of higher education with a statewide mission in the areas of computer science, cybersecurity, and visual and performing arts.

Southeast President Dr. Carlos Vargas was at the ceremony in Jefferson City when Gov. Parson signed the legislation. I want to thank Gov. Parson for recognizing our unique strength and public service to the state in the areas computer science, cybersecurity, and visual and performing arts education, said Vargas. I would also like to thank Missouri Department of Higher Education and Workforce Development Commissioner, Ms. Zora Mulligan, and her staff for their guidance during this process, and Representative Wayne Wallingford and Senator Holly Rehder for their leadership in getting this bill through the legislative process and onto the governors desk.

Efforts to earn this statewide designation began in May 2019 when Southeast submitted its application to the Coordinating Board for Higher Education (CBHE). The CBHE unanimously endorsed the Universitys request in September 2019.

One of the criteria to receive this designation is that an institution must offer one or more programs of unusual strength, supported by the receipt of national, discipline-specific accreditations, or independent certifications for meeting national or state standards, among other possible areas of evidence.

In its application, and during conversations with state lawmakers and policy officials, Southeast noted the following in support of the institutions strength and capacity in the requested areas:

Since its application in spring 2019, Southeasts computer science, cybersecurity, and visual and performing arts programs have continued to demonstrate their strength in Missouri and throughout the country. For example, the Universitys cybersecurity students are 9-time Missouri Collegiate Cyber Defense Champions, the Jeannine Larson Dobbins Conservatory of Theatre and Dance was named the top theatre program in Missouri by OnStage Blog, and Southeast was the first institution in the nation to be publicly announced as a member of the inaugural group of institutions to receive the Yamaha Institution of Excellence designation.

In addition to their academic and programmatic distinctions, Southeasts computer science, cybersecurity, and visual and performing arts programs provide a significant public service. In spring 2020, Southeast launched its Institute for Cybersecurity that includes a fully functioning Cyber Range to further research, education and service activities in the ever-growing, high-need field of cybersecurity; and the Universitys visual and performing arts students have exhibited, performed or hosted more than 300,000 patrons at the River Campus since it opened in 2007, generating an economic impact exceeding $3 million.

For nearly 150 years, Southeast has taken seriously its role to serve the citizens of southeast Missouri and the surrounding region, and it has a rich history of producing graduates that become successful business leaders, health care providers, entrepreneurs, educators, artists and performers, agriculture professionals, scientists, and citizens of tomorrow, Vargas said. This statewide mission designation is a recognition of the Universitys academic success and programmatic quality, and is a testament to the talent and expertise of the Universitys faculty and staff that are the foundation of our academic excellence.

With the signing of HB 297, Southeast will have the distinction of being the only school in Missouri with a statewide mission in the areas of computer science, cybersecurity and the visual and performing arts. The legislation will take effect on Aug. 28, 2021.

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The Last of the Ptolemys – The New York Times

This themeless puzzle, with answers that skew outside the Times norm, is a neat, sweet, smooth exercise that flexes, but not by building out brawny stacks.

There were several terms that made their Times debuts in this collaboration: FRAMEUPS, MOMFRIEND, TOTINOS, ZIPTIES, and ZOOMBOMB. I particularly like Zoombomb, a frequent enough occurrence these days. And mom friend, because who doesnt need someone who volunteers to be the designated driver, always carries tissues, nudges you to get to the gym and promises to call you 40 minutes into that date with a Hinge match, armed with a prefabricated emergency in case you need one?

Sophia: While bored in an online class last spring, I texted Kyra to ask for a good themeless seed entry. She suggested 33-Down, and thus this puzzle was born. We locked in the bottom half of this puzzle early on, but the top half went through several iterations before this final submission. As usual, it was a blast to collaborate with Kyra shes incredibly talented at both grid construction and writing clever clues, and she even puts up with my insistence on adding extraneous Disney references to all of our puzzles.

Kyra: Now that our online classes are over, Sophia and I need to find a new time to work on our collabs together! I loved making this one with her, and were excited to do more together soon.

The New York Times Crossword has an open submission system, and you can submit your puzzles online.

For tips on how to get started, read our series, How to Make a Crossword Puzzle.

Almost finished solving but feeling a bit stuck? Were here for you. Want some hot cocoa?

Warning: Be careful of spoilers, but come on ahead, brave subscribers, and take a peek at the answer key.

Trying to get back to the puzzle page? Right here.

Your thoughts?

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A new way to prepare doctors for difficult conversations – University of Rochester

July 15, 2021

As many as 68 percent of late-stage cancer patients leave their doctors offices either underestimating the severity of their disease, overestimating their life expectancyor both. These misunderstandings can hinder the ability of patients and their families to make realistic decisions about whether to continue aggressive treatments or instead turn to palliative care.

To address the problem, University of Rochester computer scientists, palliative care specialists, and practicing oncologists are perfecting SOPHIE (Standardized Online Patient for Healthcare Interaction Education)an online virtual patient that helps physicians practice how to communicate effectively with late-stage cancer patients about their disease.

Effective communication in this context often means demonstrating empathy and understanding of the complex emotions that patients are experiencing.

During difficult conversations about facing the potential of ones own death, patients are frightened and dont know how to ask the right questions, and clinicians may oversimplify, omit, or sugar-coat information, or feel too pressed for time to address patients emotions, says Ehsan Hoque, an associate professor of computer science at Rochesters Hajim School of Engineering and Applied Sciences. The COVID-19 pandemic has made effective communication even more difficult by causing increasing reliance on virtual rather than in-person interactions between patients and physicians, adds Hoque.

Hoque is a pioneer in the area of research that shows it is possible for people to learn and improve their social and interpersonal skills by interacting with automated systems. For example, he helped develop LISSA (Live Interactive Social Skills Assistant)a tool thats been used effectively by people on the autism spectrumin collaboration with professor of computer science Len Schubert.

SOPHIE is possible because of a body of nearly 400 conversations that were recorded between late-stage cancer patients and their oncologists, and initially analyzed by palliative care expert Ronald Epstein and his collaborators at the University of Rochester Medical Center. Epsteins Center for Communication and Disparities Research focuses on how to improve communication between clinicians, patients, and their loved ones.

A paper in IEEE Transactions on Affective Computing describes how lead author Mohammad Rafayet Ali, a postdoctoral researcher, and PhD student Taylan Sen, both members of Hoques Rochester Human-Computer Interaction (ROC HCI) Lab, created algorithms that could be applied to the transcripts of these conversations, so the researchers could develop metrics to assess a physicians ability to communicate clearly with patients.

The metrics focus specifically on the extent that physicians engage in lecturingdelivering a lot of information without giving the patient a chance to ask questions or to respondor, on the plus side, how well they employ sentiment trajectoryusing positive words and phrases in ways associated with increased patient understanding.

The online format can provide training at a fraction of the cost and be made available to physicians worldwide.

The researchers used a physician communication training protocol, developed by Epstein and his collaborators, to script SOPHIEs practice sessions, and enlisted nine practicing oncologists at the University to try the system.

We received a lot of feedback from the doctors on how natural the conversation was, the kinds of questions SOPHIE should ask, and the concerns a typical patient might raise, Ali says.

In our prior research, physicians practiced with trained actors to learn how to bring up difficult issues, such as prognosis and end-of-life care, Epstein says. But actors can be costly. The online format can provide training at a fraction of the cost and be made available to physicians worldwide. And Ehsan Hoques group is on the cutting edge.

The researchers are now fine-tuning SOPHIE. Our hope is that once we have demonstrated its efficacy through a randomized controlled experiment, first-year students at the Medical Center can practice with it, Hoque says.

The demo has been designed to be available through a computer browser, allowing physicians from anywhere around the world to practice their skills live and receive feedback on their speaking rate, turn-taking, type of questions asked and sentiment trajectory.

SOPHIE could help raise awareness of palliative care as an option. In many parts of the world, there is no palliative care. People only focus on how to treat the cancer, Ali says.

(University of Rochester illustration / Michael Osadciw)

A sample conversation with SOPHIE works something like this:

SOPHIE appears as a real-lifealbeit, AI-derivedhuman face on the users screen.

She introduces herself and mentions that she has lung cancer. Then SOPHIE raises the topic of her sleep pattern at night and asks if she needs to change her pain medication, allowing the physician to assess her perception. She states that her current pain medication, Lortab, is not working anymore.

As the doctor responds, SOPHIE begins collecting data so that she can provide the doctor with an end-of-conversation assessment resembling the image above.

SOPHIE then turns attention to her test results, giving the physician a chance to engage SOPHIE in more difficult topics, before asking more specifically about her prognosis.

SOPHIE next asks about other options and expresses some additional fears and concerns, providing the physician with opportunities to respond empathically.

Finally, she follows up by discussing whether chemotherapy remains an option, whether she should focus on comfort care, what the side effects of chemotherapy are, and how to break the news to her family, allowing the physician to summarize information and suggest a strategy.

The SOPHIE project is a shining example of the research collaborations that are possible as a result of the close proximity of the University of Rochester Medical Center to the rest of the University. The River Campus, for example, is just a five-minute walk away.

The project had its origins seven years ago when Hoque, who had just joined the University, spoke to a digital media studies class on the River Campus. An undergraduate student in the class was employed by Ron Epsteins lab, Hoque says. She talked to Ron and suggested we should talk. We hit it off right away.

Hoque and his lab members were impressed by Epsteins work on improving communication between terminally ill patients and their physicians. They were especially excited by the research possibilities presented by the patient-physician transcripts that Epstein and his collaborators had begun analyzing.

They did all the hard work in collecting high-stakes conversations of cancer patients, Hoque says. We were fortunate to be at the right place at the right time to leverage the data and their expertise.

This wasnt part of Rafayets and Tays thesis trajectories at all, and we didnt have any funding to do the work. But we knew that we needed to find a way to do this exciting work.

Other collaborators coauthors of the paper include Thomas Carroll, associate professor of medicine; Lenhart Schubert, professor of computer science; Benjamin Kane (advised by Schubert); and Shagun Bose, an undergraduate researcher in the Hoque Lab.

Tags: artificial intelligence, Center for Communication and Disparities Research, Department of Computer Science, Ehsan Hoque, featured-post-side, Hajim School of Engineering and Applied Sciences, medical center, research finding, Ronald Epstein

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Introducing NRP: Accelerating Science with Bold National Research Platform – HPCwire

July 15, 2021 The San Diego Supercomputer Center (SDSC) located at UC San Diego has heeded the National Science Foundations call for a cyberinfrastructure ecosystem that meets the needs of todays data-intensive science. Proposed as the Prototype National Research Platform (NRP), the innovative, all-in-one systemcomputing resources, research and education networks, edge computing devices and other instrumentsis a testbed for science drivers as diverse as the platform itself to expedite science and enable transformative discoveries.

For this first-of-its-kind resource, the NSF awarded SDSC $5 million over five years, with matched funding for systems operation. The award will support hardware and deployment across three facilities: on the East Coast at the Massachusetts Green High Performance Computing Center (MGHPCC) in Mount Holyoke, Mass.; in the Midwest at the University of NebraskaLincoln (UNL) and on the West Coast atSDSC,as well as five data caches in theInternet2network backbone.

Supercomputing continues to be instrumental for researchers across an ever-growing number of science domains at institutions throughout the United States, said UC San Diego Chancellor Pradeep K. Khosla. SDSC is nationally recognized for innovations in cyberinfrastructure and in building high-performance computational systems specifically designed for scientific research. The NSF sought a national innovator to help improve the crucial resources required to further enhance American prowess in scientific discovery.

According to Frank Wrthwein, interim director of SDSC and principal investigator (PI) on the NRP project, the funding will enable him and the co-PIs from SDSC, UNL and MGHPCC to work with the research community to explore NRPs experimental architecture.

NRP provides resources and capabilities for diverse science, plus the expertise of systems people and the user community, said Wrthwein. Its an open system designed for growth and inclusiona way for academic institutions to join a national system and, through their participation, enlarge and enrich the HPC ecosystem.

Key components of the NRP architecture include research and education networks, compute accelerators, heterogenous computing resources (e.g., edge computing near the instrument location), a content delivery network to provide easy access to any data, anytime, from anywhere, and an overall systems software stack that allows for central management of the system, while remaining open for growth. Innovative technical features of the HPC subsystem include a mix of field programmable gate array (FPGA) chips, graphics processing units (GPUs) with memory and storage in a fully integrated extremely low-latency fabric fromGigaIO.

The selection of our FabreX dynamic fabric for the composable architecture of this new research platform aligns with our mission to deliver the infrastructure agility and performance needed for next-generation science discovery, said GigaIO CEO Alan Benjamin.

The broader impact of NRP is focused on four themes: 1) empowering underrepresented and/or underresourced researchers by making them co-owners of NRPvia the Bring Your Own Resource (BYOR) / Bring Your Own Device (BYOD) program; 2) societal wellbeing, focusing on health and disaster response; 3) STEM education, workforce development and outreach; and 4) enhancing industrial competitiveness.

Any campus in the continental United States is reachable from some of the NRP hardware within less than about 500 miles, said Thomas De Fanti, distinguished professor emeritus of computer science at the University of Illinois at Chicago and research scientist at theQualcomm Instituteat UC San Diego.

UNL will lead NRPs infrastructure operations usingKubernetesto manage remote systems at the three primary sites and Internet2, as well as the BYOR locations.

Kubernetes is a new interface and new operations model for many in research computing. We are excited to expand the communitys experience with Kubernetes while providing cyberinfrastructure resources to scientists, said Derek Weitzel, research assistant professor of computer science at UNLs Holland Computing Center.

System deployment will take place at SDSC on the UC San Diego campus, where several science drivers from astrophysics, molecular dynamics, health sciences and more will participate. For example, Director of the National Center for Microscopy and Imaging Research (NCMIR) Mark Ellisman will consider how NRP can enhance NCMIRs work with NSF and other agencies to build multi-scale wiring models of the brain and of the molecular components that make brain cells the most energy-efficient information mediators known.

Success on this [project] will allow more harmonization with other key NSF initiatives, like NeuroNex2, noted Ellisman, referencing the technology-enabled, team-based neuroscience project, for which he is a group lead.

NRP will also support research on the science of wildfires. SDSCs Chief Data Science Officer Ilkay Altintas, for example, works with researchers to build tools and techniques such asWIFIREfor firefighters. NRP will offer urgent computing resources in support of fire-perimeter predictions that can be used on the ground by fire managers to identify where to most effectively deploy firefighting resources to achieve fire containment.

Other examples of NRPs versatility include leveraging UNLs expertise in livestock management and using shared instrumentation for precision animal management, and UNL Professor Robert Twomey, a digital artist, researcher and educator at the Johnny Carson Center for Emerging Media Arts, who will explore the poetic intersection of human and machine perception.

The NRP project is structured as two distinct phases: the testbed phase, which includes evaluation and expansion of NRP for science and engineering research (years one to three), and the allocations phase, which involves widespread adoption of the NRP resource (years four to five).

We aspire for our science drivers to not just use the infrastructure but to intellectually impact each other, forming mutual support networks that we enable via managed Slack channels in addition to more standard user support. We consider this in itself a testbed for scalable user support of an HPC system, said co-PI Mahidhar Tatineni, SDSC.

The NRP will be deployed in the first half of 2022.

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GigaIO Selected to Bring Composability to Bold New National Research Platform – HPCwire

CARLSBAD, Calif., July 16, 2021 Building on the successes of past collaborations with the San Diego Supercomputer Center (SDSC) located at UC San Diego, GigaIO, the creators of next-generation data center rack-scale architecture for artificial intelligence (AI) and high-performance computing (HPC) solutions, is proud to be announcing its low latency universal dynamic fabric, FabreX, was selected as the technology of choice for the new Prototype National Research Platform (NRP). This National Science Foundation-funded cyberinfrastructure ecosystem is an innovative, all-in-one systemcomputing resources, research and education networks, edge computing devices and other instrumentsdesigned as a testbed to expedite science and enable transformative discoveries.

Complex computational and data workflows underpin many of the scientific research challenges we hope to address with NRP, says Dr. Frank Wrthwein, PI of NRP, and interim director of the San Diego Supercomputer Center. In areas as diverse as public health, high energy physics and wildfire response, this research requires that we aggregate disparate computational elements, such as FPGAs, GPUs, x86 processors and storage systems into highly usable and reconfigurable systems. GigaIOs FabreX technology makes it possible to dynamically bring these elements together in a very low-latency, high-performance interconnect while allowing for distinct, non-interfering workflows to co-exist on the same infrastructure.

For this first-of-its-kind resource, the NSF awarded SDSC $5 million over five years, with matched funding for systems operation. The award will support hardware and deployment across three facilities: on the East Coast at the Massachusetts Green High Performance Computing Center (MGHPCC) in Mount Holyoke, MA; in the Midwest at the University of NebraskaLincoln (UNL) and on the West Coast at SDSC, as well as five data caches in the Internet2 network backbone.

GigaIO will contribute the ability to disaggregate and compose the various components of the HPC subsystem including a mix of field programmable gate array (FPGA) units, graphics processing units (GPUs) with memory and storage, all connected with its fully integrated extremely low-latency fabric. With the ability to connect resources across entire racks exclusively in the native language they all speak, PCIe, GigaIO makes otherwise impossible configurations feasible for scientific experimentation.

We are thrilled that this award recognizes FabreX technology as the composable platform of choice to accelerate science for deployment in leading-edge research centers, eventually leading to adoption throughout scientific institutions nationwide, said Alan Benjamin, CEO of GigaIO.

The fundamentally open nature of the GigaIO platform, with off-the-shelf software orchestration options and open standard Redfish APIs, unlike the proprietary composable solutions from other vendors, complements the aspirations for the new research platform as an open system for scientists nationwide. NRP provides resources and capabilities for diverse science, plus the expertise of systems people and the user community, said Wrthwein. Its an open system designed for growth and inclusiona way for academic institutions to join a national system and, through their participation, enlarge and enrich the HPC ecosystem.

GigaIOs broader mission is to democratize access to AI and HPC resources by enabling the sharing of expensive computing resources previously trapped and stranded inside static datacenter infrastructure. The broader impact of NRP furthers this goal with its focus on four themes: 1) empowering underrepresented and/or under-resourced researchers by making them co-owners of NRP, via the Bring Your Own Resource (BYOR)/Bring Your Own Device (BYOD) program; 2) societal wellbeing, focusing on health and disaster response; 3) STEM education, workforce development and outreach; and 4) enhancing industrial competitiveness.

Any campus in the continental United States is reachable from some of the NRP hardware within less than about 500 miles, said Thomas De Fanti, distinguished professor emeritus of computer science at the University of Illinois at Chicago and research scientist at the Qualcomm Institute at UC San Diego. GigaIOs FabreX has been gaining ground throughout some of those same institutions such as universities, national labs and advanced computing centers.

System deployment will take place at SDSC on the UC San Diego campus, where several science drivers from astrophysics, molecular dynamics, health sciences and more will participate. For example, Director of the National Center for Microscopy and Imaging Research Mark Ellisman will consider how NRP can enhance NCMIRs work with NSF and other agencies to build multi-scale wiring models of the brain and of the molecular components that make brain cells the most energy-efficient information mediators known.

Success on this project will allow more harmonization with other key NSF initiatives, like NeuroNex2, noted Ellisman referencing the technology-enabled, team-based neuroscience project, for which he is a group lead.

Of special interest to GigaIOs home state of California, NRP will also support research on the science of wildfires. SDSCs Chief Data Science Officer Ilkay Altintas, for example, works with researchers to build tools and techniques like WIFIRE for firefighters. NRP will offer urgent computing resources in support of fire-perimeter predictions that can be used on the ground by fire managers to identify where to most effectively deploy firefighting resources to achieve fire containment.

ABOUT GigaIO

GigaIO has invented a composable cloud-class universal dynamic infrastructure fabric, empowering users to accelerate workloads on-demand, using industry-standard PCI Express/soon CXL technology. The companys patented network technology optimizes cluster and rack system performance, and greatly reduces total cost of ownership. With the innovative GigaIO FabreX open architecture, data centers can scale up or scale out the performance of their systems, enabling their existing investment to flex as workloads and business change over time. For more information, visit http://www.gigaio.com.

Source: GigaIO

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The Robert Noyce Scholarship and the STEM teacher pipeline – Brookings Institution

The nations economic growth, international competitiveness, and national security in the 21st century relies heavily on occupations and industries in science, technology, engineering, and math, otherwise known as STEM fields. The U.S., once a leader in student achievement in STEM subjects, has experienced a relative decline over several decades, prompting various expert bodies to issue warnings about impending catastrophe on our current path. Thus, increasing the competency of public school students in STEM subjects has become an urgentif often overshadowedobjective for policymakers.

Critical to STEM instruction is a robust supply of quality teachers. The Robert Noyce Teacher Scholarship Program (Noyce program) is an effort of the National Science Foundation (NSF) that aims to develop a STEM teacher pipeline in high-need settings. In this post, we examine the teacher workforce in STEM subjects and how the Noyce program operates to produce more STEM teachers nationwide.

Ensuring a robust flow of high-quality teachers into K-12 classrooms across the country is a key input in improving student achievement in STEM subjects. After all, teachers are the most influential schooling input into student learning. But for a number of reasons, such as high outside opportunity costs, the STEM teacher workforce has been riddled with staffing problemsincluding excessive turnover and low levels of teacher qualificationsthat make this subject specialty particularly worthy of policy attention. In fact, reports about national teacher shortages are, primarily, STEM teacher shortages, as this specialtyalong with special educationaccount for the lions share of hard-to-staff vacancies nationwide.

We are particularly concerned about the health of the STEM teacher workforce in schools serving high-need student populations, and with good reason. Virtually all staffing problems are exacerbated in high-need settings, which means the STEM teacher workforce is especially vulnerable here.

A weak STEM workforce in disadvantaged settings has policy-relevant consequences. First, it implies lower-quality STEM instruction among disadvantaged students, implicitly providing fewer opportunities for these students by blocking access to high-paying, high-demand jobs of the future. And second, it undermines efforts to diversify STEM fields, which have a long history of low participation among historically underrepresented populations, including African Americans, Hispanics, Native Americans, women and girls, and persons from economically disadvantaged backgrounds. Ensuring universal access to high-quality STEM teachers, therefore, is expected to improve the inclusion of both STEM fields and society at large.

First authorized in 2002, the NSFs Robert Noyce Teacher Scholarship Program attempts to bridge the access gap to high-quality STEM teachers in disadvantaged settings. Named after the inventor of the integrated circuit and the mayor of Silicon Valley, the program institutionalizes Noyces desire to ensure that all young people, particularly those from impoverished backgrounds, had a real opportunity to flourish in the high-tech age that his inventions helped usher in. In the nearly two decades since its inception, the Noyce program has awarded more than $1.2 billion through more than 1,000 grants to teacher-training institutions, scholarship recipients, and researchers in 49 of 50 states, D.C., Puerto Rico, and the U.S. Virgin Islands to strengthen the STEM teaching workforce.

Below is a word cloud that summarizes the Noyce programs aims and scope through the projects funded under this NSF program. This figure highlights the most common words and phrases included in the proposal abstract text of the grants awarded through the Noyce program. With the most frequent ideas presented in the largest fonts, it is immediately evident that STEM teacher preparation and support in high-need areas is a central aim to these grants. (Terms in bold here and throughout the post are notable examples from the word cloud.) We offer a few additional layers of insight from this illustration below, and supplement the discussion with observations based on summary data detailed on the interactive Robert Noyce Grant Awards Dashboard, created as a part of a collaborative research project between The Brookings Institution, Florida Atlantic University, and Texas State University.

First, science and mathematics are by far the most common areas of specialization among the teacher-training institutions receiving Noyce funding (hereafter called Noyce institutions) since math and science align with core academic subjects taught in all K-12 schools. Among science disciplines, biology and chemistry are the most common specialties, followed by physics and geosciences. A minority of Noyce institutions offer programs focusing on computer science or engineering, the T and E parts of STEM that are often overlooked in K-12 settings.

The word cloud also highlights some of the unique features of the Noyce program. First, due to their focus on preparing teachers for careers in high-need school districts, Noyce programs are typically housed in universities situated near high-need student populations where district partnerships are easy to manage. In addition, Noyce institutions develop partnerships across different departments or colleges to include faculty from both sciences and education to promote strong content knowledge, and to provide appropriate pre-service mentoring and induction support once in the field.

The scholarship part of the Noyce program warrants some explanation. Individual students in Noyce institutions can apply for the Noyce scholarship, which provides financial support to STEM majors while completing their coursework on the condition that they teach in high-need school districts upon graduation with a teaching certificate. Typically, two years of work are required for each year of financial support given during training.

The Noyce program offers funding through dedicated tracks, to which teacher-preparation programs apply depending on the type of students they intend to reach. Track one focuses on developing new STEM teachers (referred to as Noyce teachers or scholars) by providing scholarship support (at least $10,000 annually) to undergraduate students in STEM fields to help them earn their teaching certificate. Track two supports professionals in STEM fields interested in pursuing a masters degree en route to the classroom, providing similar levels of scholarship support; they are designated as Teaching Fellows. Track three scholarship funds are awarded to Master Teaching Fellows, which is intended to develop experienced K-12 STEM teachers into leaders in their fields through further training and support. In practice, the overwhelming majority of Noyce programs focus on undergraduate students in track one, while the training of STEM professionals for the classroom or developing Master Teaching Fellows are available in only a minority of programs.

Finally, we should note that while the Noyce program itself is agnostic about which grades to prepare teachers for, most programs explicitly specialize in either high school grades and/or middle school grades. Few appear to focus on teachers intended for elementary grades, a possible limitation to the programs reach. Interested readers can interactively explore the data on Noyce institutions themselves in the Robert Noyce Grant Awards Dashboard.

Though we didnt mention it earlier, there is a track four of the Noyce program that allocates money intended to support research evaluations of the Noyce program itself and its impact on the STEM teacher workforce. The evidence base for the program is still nascent; currently, this work mostly focuses on individual program success or has limited sample size, meaning there are many areas where more research is needed. Still, there are a couple important lessons that have been learned to date.

First, based on a study of STEM teachers at two California State University campuses, those coming through the Noyce program show higher levels of retention in teaching compared to non-Noyce teachers. This result is particularly notable given the high-need context that Noyce teachers are required to teach in for the first few years of their careers. (Many non-Noyce teachers also share this context, though not exclusively.)

And second, an important question is exactly how the Noyce program may shift the supply of STEM teachers. Based on survey responses among recent graduates of Noyce programs, Liou and Lawrenz conclude that the scholarship appears to be more influential on where novice teachers are employed (namely, in high-need settings) and is less influential on attracting genuinely new individuals into teaching.

Many questions about the efficacy of the Robert Noyce Teacher Scholarship Program remain, and this is where our new project comes in. We recently received an NSF grant through track four of the Noyce program and will be evaluating the health of the national STEM teacher workforce and whether the Noyce program has been successful in improving staffing in STEM areas, among other research questions. We have only recently begun work on this four-year project, but we will disseminate updates as we have important lessons to share.

The authors thank Nicolas Zerbino and Anna Streichhardt for their assistance on this post and the accompanying data dashboard.

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Tilbury joins OVPR to lead strategy on future communities | The University Record – The University Record

Dawn Tilbury, who recently led the National Science Foundations Directorate for Engineering, has joined the Office of the Vice President for Research to advance a new strategic endeavor that infuses social and technical expertise to address complex challenges facing future communities.

The Board of Regents approved her two-year appointment as the inaugural associate vice president for research-convergence science July 15.

The grand challenges of today, such as clean energy or cybersecurity, cannot be solved by individuals working in isolation, or small groups working within a single discipline. The complexities posed by these grand challenges will require people with multiple disciplines working in a team, bringing their expertise and knowledge together in a convergence research approach, said Tilbury, whose appointment takes effect immediately.

I am excited to work with the outstanding faculty at the University of Michigan, in collaboration across the schools and colleges, and with regional partners, to address the challenges that are faced by our society today. With a collaborative spirit, we will be able to bring together the broad and deep expertise in our individual disciplines, to move research forward in service to society.

Tilbury, professor of mechanical engineering, and of electrical engineering and computer science, and a core member of the Robotics Institute, will work with faculty across the Ann Arbor, Dearborn and Flint campuses to identify and prioritize university strengths that aim to address issues that impact future communities.

The federal government has identified future communities as a key research priority, and so over the next two years Tilbury will work to develop an infrastructure of expertise around the intersections of equity, infrastructure, sustainability and health.

OVPR already has begun fostering collaboration among schools, colleges and units in areas ranging from accessibility and mobility to technology and climate so the university is best positioned to address and respond to this emerging federal priority. This strategic approach led by OVPR aims to drive national research priorities around complex societal challenges that will impact communities for years to come.

The ultimate goal is to enhance our coordination and advance the extraordinary activity across our three campuses that aims to find solutions to those key challenges that will influence future communities, said Rebecca Cunningham, vice president for research and the William G. Barsan Collegiate Professor of Emergency Medicine.

This type of research readiness approach ensures that we are maximizing the expertise across our three campuses, bringing that talent together so that we can successfully address and combat key issues of national importance.

Tilbury, who received a Ph.D. from the University of California, Berkeley, joined U-M in 1995 as an assistant professor of mechanical engineering. She has held multiple administrative positions in the College of Engineering, including a three-year term as its associate dean for research.

NSF appointed Tilbury in 2017 to lead its Directorate for Engineering, where for four years she supported engineering research and education that was critical to the nations future, while also fostering innovations that benefit society.

While at NSF, she was one of the originators of the Convergence Accelerator, a new structure to accelerate the process of convergence research and generate tangible outcomes. She also co-led the NSF Big Idea on the Future of Work at the Human-Technology Frontier and NSF INCLUDES, with a goal of diversifying the nations STEM workforce.

Her research interests lie broadly in the area of control systems, including applications to robotics and manufacturing systems. She was one of the pioneers in the analysis and design of control systems over communication networks. More recently, she and her group are leveraging the huge amount of data generated by manufacturing systems, that is now easily accessible due to networking and high-performance computing, to improve the overall performance of the entire manufacturing system.

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Register for the Most Diverse Tech Conference in the Country With Top Industry Professionals at Google, Microsoft, and More – Markets Insider

CHICAGO, July 15, 2021 /PRNewswire/ --Center for Minorities and People with Disabilities in IT (CMD-IT) has opened registration for the CMD-IT/ACM Richard Tapia Celebration of Diversity in Computing Conference, the most diverse tech conference in the country. It will be held on September 14-18, 2021. The Tapia conference aims to reduce the lack of diversity in the computing and tech industry and foster career development for talented individuals at the start of their careers. Last year, over 3,000 people attended the virtual conference.

This year's conference will include workshops, consortiums, presentations, career fairs, networking, student poster, and research competitions. This robust schedulewill feature presentations by top industry professionals and companies, including Google, Microsoft, University of Wisconsin-Madison, Capital One, and Johns Hopkins University .

"At CMD-IT, we recognize that the only way to reduce the lack of diversity in the computing and technology industry is to connect companies with qualified talent," said CMD-IT CEO and President, Dr. Valerie Taylor. "We are proud to celebrate 20 years of diversity and innovation in computing and continue to support equity and inclusion through features like our resume databaseand the Tapia conference."

This year's keynote speakers are representative of CMD-IT's diverse community and leaders in their respective fields and industry. These industry professionals include Dr. John Herrington, NASA astronaut, and Navy Commander; Jenny Lay-Flurrie, Microsoft's Chief Accessibility Officer; Dr. Omar Florez, Machine Learning Researcher at Twitter Cortex; Dr. Cecilia Aragon, full-time Computer Science Professor at University of Washington; and Dr. Jamika Burge, Director of Experience Products and Platforms Design at Capital One.

Additional supporters are Dropbox, Google, JP Morgan & Chase, Microsoft, Qualcomm, The D.E. Shaw Group, Boston University Computer Science Department, California Institute of Technology Computer Science, Carnegie Mellon University Computer Science, Computer Research Association, Cornell University, Johns Hopkins University, Lawrence Livermore National Laboratory, Los Alamos National Laboratory, National Institute of Standards in Technology, National Security, MIT Lincoln Laboratory, Stanford University, University of California Berkeley Electrical Engineering and Computer Science, University of Illinois Urbana-Champaign, University of Massachusetts College of Information and Computer Science, University of Wisconsin-Madison, Virginia Polytechnic Institute and State University.

To register to attend this year's conference and view the schedule, visit tapiaconference.cmd-it.org. For press inquiries, please contact Jahmika Mitchell at jahmika@medley-inc.com or 914-715-5217.

Media ContactJahmika Mitchell jahmika@medley-inc.com914-715-5217

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SOURCE CMD-IT

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Register for the Most Diverse Tech Conference in the Country With Top Industry Professionals at Google, Microsoft, and More - Markets Insider

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