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Michigan State University Team to Study Alaskan Fault System for Tsunami Risk

Michigan State University Team to Study Alaskan Fault System for Tsunami Risk

A team from Michigan State University, led by Associate Professor Songqiao "Shawn" Wei, is launching a project to study the underwater fault system in the Alaskan-Aleutian subduction zone. This area was the origin of a massive tsunami in 1946 that impacted Hawaii, Alaska, Washington, and Oregon, despite being caused by a relatively small earthquake. The research involves deploying waterproof seismometers on the Pacific Ocean floor near Alaska for approximately 15 months. These sensors will record vibrations from tectonic plates, providing data on how the fault system is currently behaving. The project is funded by a National Science Foundation grant and involves a partnership with the University of Hawaii. The goal is to understand why the 1946 event occurred and to assess the current risk of future earthquakes and tsunamis in the region. The team will analyze the collected data to gain insights into the dynamics of the Pacific and North American plates.

Congressman Morelle Commends University of Rochester's NSF OPAL Project Advancement

Congressman Morelle Commends University of Rochester's NSF OPAL Project Advancement

Congressman Joe Morelle has praised the University of Rochester for a significant milestone in the NSF OPAL project, which has advanced to a construction-ready design phase. The project, led by the University of Rochester, received initial funding from the U.S. National Science Foundation (NSF) to support this final design phase, with potential funding reaching up to $13.7 million. This funding is a crucial step towards the construction of a proposed two-beam, high-peak-power facility at the university, which is anticipated to become the world's most powerful laser system. The NSF OPAL project aims to provide a unique research environment, enabling the Laboratory for Laser Energetics (LLE) to lead in cutting-edge research and technology. It will focus on advancing high-shot-rate laser systems, integrating artificial intelligence and machine learning into facility operations, and training the next generation of laser scientists and engineers. The project is a multi-institutional effort involving the Univers...

Representative Zoe Lofgren Criticizes NSF Leadership Over Alleged Funding Redirection

Representative Zoe Lofgren Criticizes NSF Leadership Over Alleged Funding Redirection

Representative Zoe Lofgren, a California Democrat, has publicly condemned recent changes announced by National Science Foundation (NSF) Acting Director Brian Stone. Lofgren asserts that these changes would divert funding from programs previously approved by Congress towards priorities set by the White House. She claims that the NSF is implementing new guidance from the Office of Science and Technology Policy (OSTP) without proper congressional input or authorization. Lofgren stated that she does not believe NSF or OSTP officials possess the authority to enact such significant alterations to funding allocations without legislative oversight. She has indicated her intention to pursue oversight of these changes in the coming months. In terms of her financial activities, Lofgren disclosed $99.9K in fundraising during Q2 2026, with 56.5% originating from individual donors. Her spending for the same period amounted to $81.2K, leaving her with $643.3K in cash on hand. Quiver Quantitative estimates her net worth a...

NSF Renews $37.5 Million Grant for Duke University-Led Quantum Research Institute

NSF Renews $37.5 Million Grant for Duke University-Led Quantum Research Institute

The National Science Foundation (NSF) has renewed its funding for the NSF Quantum Leap Challenge Institute for Robust Quantum Simulation (NSF RQS), an initiative co-led by Duke University, the University of Maryland, and Princeton University. The new five-year award is expected to total $37.5 million, marking a significant new phase in quantum simulation research. This institute, based at the Duke Quantum Center, focuses on advancing quantum simulation, which is considered a promising application of quantum computing. These specialized simulators are designed to model complex quantum systems that are beyond the capabilities of conventional computers. The renewed award will expand the institute’s scientific and educational programs and strengthen collaborations among universities, federal laboratories, and industry partners. Harvard University will also join the existing collaboration, which includes Yale University and the National Institute of Standards and Technology.

Tennessee Tech University Secures NSF Grant to Integrate AI and Advanced Computing into Core Computer Science Curriculum

Tennessee Tech University Secures NSF Grant to Integrate AI and Advanced Computing into Core Computer Science Curriculum

Tennessee Tech University's Department of Computer Science has received nearly $175,000 from the National Science Foundation (NSF) as part of a multi-year, multi-institutional project. This grant aims to integrate concepts of artificial intelligence (AI), big data, and parallel and distributed computing into foundational computer science courses. The project, led by Sushil Prasad, Ph.D., of the University of Texas at San Antonio, also includes Knox College, the University of Massachusetts, Louisiana State University, and the University of Maryland. Tennessee Tech will serve as one of two development teams responsible for creating and testing these new educational materials. Additionally, the university will train approximately 200 instructors from diverse institutions across the country on how to implement these advanced computing concepts in their classrooms, preparing students for the evolving technology workforce.

Drones and Satellites Revolutionize Mineral Exploration and Monitoring

Drones and Satellites Revolutionize Mineral Exploration and Monitoring

Drones and Satellites Revolutionize Mineral Exploration and Monitoring

National Science Foundation Activates America's Most Powerful Laser for Extreme Matter Research

National Science Foundation Activates America's Most Powerful Laser for Extreme Matter Research

The U.S. National Science Foundation (NSF) has initiated full-power operations of the NSF Zettawatt-Equivalent Ultrashort pulse laser System (NSF ZEUS), investing $33 million into this scientific facility. NSF ZEUS is now the highest-power laser in the U.S., designed to explore extreme states of matter. Over the next five years, the facility will host numerous research teams conducting hundreds of experiments. The laser's intensity is comparable to the average power of all sunlight on the U.S. in a single day, concentrated into an area smaller than a human hair. These experiments aim to create extreme conditions similar to those found in black holes and exploding stars within a controlled laboratory environment. The data collected is expected to expand understanding in quantum physics and astrophysics.

MIT Researchers Develop Neuron-Mimicking Polymer Devices for Energy-Efficient Edge Computing

MIT Researchers Develop Neuron-Mimicking Polymer Devices for Energy-Efficient Edge Computing

Researchers at MIT have developed tiny mechanical devices using soft polymers that mimic the firing behavior of neurons in the brain. These devices leverage the unique mechanical response of polymers at the nanoscale to process and remember information. By sandwiching a thin film of polydimethylsiloxane (PDMS) between two metal electrodes, the researchers created a 'nano-spring' that balances adhesive forces, allowing for controlled and reversible nanoscale mechanical reconfiguration. When voltage is applied, the metal plates compress the PDMS, altering the electrical current. The viscoelastic nature of PDMS enables the devices to dynamically remember the history of applied forces and voltages, converting this history into an electrical response, similar to how neurons accumulate charge and fire. This innovation integrates computing and memory within a single nanoscale device, minimizing the need for external components and leading to high energy efficiency and a compact footprint.

First Lady Melania Trump Visits North Carolina to Highlight AI Education and Community Resilience Post-Hurricane Helene

First Lady Melania Trump Visits North Carolina to Highlight AI Education and Community Resilience Post-Hurricane Helene

First Lady Melania Trump recently returned to Ashe County, North Carolina, to visit Mountain View Elementary School, nearly two years after the region was devastated by Hurricane Helene. Her visit focused on celebrating the community's resilience and promoting artificial intelligence (AI) education among young students. During her visit, Mrs. Trump recognized Carrie Robledo, a North Carolina second-grade teacher and 2026 Presidential AI Challenge National Champion, for her innovative work in introducing AI to elementary students. The First Lady praised Ms. Robledo's efforts, stating that she built 'knowledge' that 'no hurricane can destroy.' The Presidential AI Challenge, initiated by First Lady Melania Trump, has become the largest federally led AI competition in American history, engaging over 20,000 participants from all 50 states. The visit underscored a shift from immediate disaster relief to fostering future-oriented growth and technological advancement in the affected community.

Hydrosat Unveils Osiris Constellation for Enhanced Thermal Infrared Earth Observation Ahead of 2027 Launch

Hydrosat Unveils Osiris Constellation for Enhanced Thermal Infrared Earth Observation Ahead of 2027 Launch

Hydrosat Unveils Osiris Constellation for Enhanced Thermal Infrared Earth Observation Ahead of 2027 Launch

Syracuse University Professor Investigates Lithium Concentration for Clean Energy Future

Syracuse University Professor Investigates Lithium Concentration for Clean Energy Future

Adam Cawood, the Michael G. and Susan T. Thonis Assistant Professor of Earth Sciences at Syracuse University’s College of Arts and Sciences, is leading a research project funded by the National Science Foundation (NSF). This initiative aims to understand how geological processes influence the movement and concentration of lithium within Earth's crust. The research is critical because scientists currently lack a complete understanding of why lithium concentrates in specific locations and how to efficiently identify new domestic sources. The demand for lithium, a vital component in rechargeable batteries for electric vehicles and renewable energy systems, is projected to more than quadruple by 2030, making it one of the most sought-after critical minerals globally. Cawood's work could significantly improve exploration strategies and bolster domestic supplies of this essential mineral, supporting the ongoing energy transition.

National Science Foundation Launches $20 Million Pilot Program to Commercialize Deep Technologies from Small Businesses

National Science Foundation Launches $20 Million Pilot Program to Commercialize Deep Technologies from Small Businesses

National Science Foundation Launches $20 Million Pilot Program to Commercialize Deep Technologies from Small Businesses