Lifeboat Foundation

DARPA’s SIGMA+ program conducted a week-long deployment of advanced chemical and biological sensing systems in the Indianapolis metro region in August, collecting more than 250 hours of daily life background atmospheric data across five neighborhoods that helped train algorithms to more accurately detect chemical and biological threats. The testing marked the first time in the program the advanced laboratory grade instruments for chemical and biological sensing were successfully deployed as mobile sensors, increasing their versatility on the SIGMA+ network.

“Spending a week gathering real-world background data from a major Midwestern metropolitan region was extremely valuable as we further develop our SIGMA+ sensors and networks to provide city and regional-scale coverage for chem and bio threat detection,” said Mark Wrobel, program manager in DARPA’s Defense Sciences Office. “Collecting chemical and biological environment data provided an enhanced understanding of the urban environment and is helping us make refinements of the threat-detection algorithms to minimize false positives and false negatives.”

SIGMA+ expands on the original SIGMA program’s advanced capability to detect illicit radioactive and nuclear materials by developing new sensors and networks that would alert authorities with high sensitivity to chemical, biological, and explosives threats as well. SIGMA, which began in 2014, has demonstrated city-scale capability for detecting radiological threats and is now operationally deployed with the Port Authority of New York and New Jersey, helping protect the greater New York City region.

Spinal cord injury (SCI) is of significant concern to the Department of Defense. Of the 337,000 Americans with serious SCIs, approximately 44,000 are veterans, with 11,000 new injuries occurring each year.¹ SCI is a complex condition – the injured often face lifelong paralysis and increased long-term morbidity due to factors such as sepsis and autonomic nervous system dysfunction. While considerable research efforts have been devoted toward restorative and therapeutic technologies to SCIs, significant challenges remain.

DARPA’s Bridging the Gap Plus (BG+) program aims to develop new approaches to treating SCI by integrating injury stabilization, regenerative therapy, and functional restoration. Today, DARPA announced the award of contracts to the University of California-Davis, Johns Hopkins University, and the University of Pittsburgh to advance this crucial work. Multidisciplinary teams at each of these universities are tasked with developing systems of implantable, adaptive devices that aim to reduce injury effects during early phases of SCI, and potentially restore function during the later chronic phase.

“The BG+ program looks to create opportunities to provide novel treatment approaches immediately after injury,” noted Dr. Al Emondi, BG+ program manager. “Systems will consist of active devices performing real-time biomarker monitoring and intervention to stabilize and, where possible, rebuild the neural communications pathways at the site of injury, providing the clinician with previously unavailable diagnostic information for automated or clinician-directed interventions.”

The final €85 billion budget is €1.5 billion more than first proposed by the European Commission in 2018, but €5 billion is reserved for applied research and support for small tech firms under a postpandemic recovery fund. The remaining budget is a little larger than the current program, Horizon 2020, but European agencies receive less in the early years of a 7-year budget. That means basic science organs such as the European Research Council (ERC) could have less money in 2021 than in 2020, depending on further negotiations over the budget breakdown, to be held in the coming weeks.

European Parliament wins concessions to bring Horizon Europe budget to €85 billion—but research advocates remain unimpressed.

Admitting he was both nervous and excited about the upcoming launch aboard the Crew Dragon capsule on a SpaceX Falcon 9 rocket, the 55-year-old said, “There are risks and a fear of failure when challenging oneself but I believe the benefits far outweigh that fear.”

Noguchi will be among four astronauts, including crew commander Michael Hopkins, aboard the Crew Dragon capsule to be launched from Kennedy Space Center in Florida on Saturday.

He juxtaposed the mission to the Japanese hit manga and anime series “Demon Slayer,” in which astronauts use and maximize their “individual strengths” toward a “common goal.” The series follows the story of a boy who, along with his comrades, fights human-eating demons after his family is killed by them.

What we pay attention to shapes our opinions and views and our opinions and views shape our actions—well beyond clicks and taps on a screen.

But this is only the beginning. The internet and its enabling tools were the last great generation of technology. New generations are already making their presence known. In coming decades, technology will more compellingly seduce our attention, will escape its silicon-and-glass cage, will animate the inanimate, and even shape our biology.

The answer isn’t to do away with technology. There’s no putting the genie back in the bottle—nor should we want to. Besides negative outcomes, technology remains a powerful tool for good too. But as individuals, as a society, we need to become far more aware of how we interact with technology, to keep a closer eye on business incentives, and to consciously employ our tools in ways that firmly align with our goals.

‘Germicidal’ ultraviolet light technology has a proven track record against indoor transmission of tuberculosis and other airborne microbes. It’s now being used in some restaurant…

A new study lead by GSI scientists and international colleagues investigates black-hole formation in neutron star mergers. Computer simulations show that the properties of dense nuclear matter play a crucial role, which directly links the astrophysical merger event to heavy-ion collision experiments at GSI and FAIR. These properties will be studied more precisely at the future FAIR facility. The results have now been published in Physical Review Letters. With the award of the 2020 Nobel Prize in Physics for the theoretical description of black holes and for the discovery of a supermassive object at the center of our galaxy, the topic currently also receives a lot of attention.

But under which conditions does a black hole actually form? This is the central question of a study lead by the GSI Helmholtzzentrum für Schwerionenforschung in Darmstadt within an international collaboration. Using computer simulations, the scientists focus on a particular process to form black holes namely the merging of two neutron stars.

Neutron stars consists of highly compressed dense matter. The mass of one and a half solar masses is squeezed to the size of just a few kilometers. This corresponds to similar or even higher densities than in the inner of atomic nuclei. If two neutron stars merge, the matter is additionally compressed during the collision. This brings the merger remnant on the brink to collapse to a black hole. Black holes are the most compact objects in the universe, even light cannot escape, so these objects cannot be observed directly.

A team of researchers at Samsung has developed a slim-panel holographic video display that allows for viewing from a variety of angles. In their paper published in the journal Nature Communications, the group describes their new display device and their plans for making it suitable for use with a smartphone.

Despite predictions in science-fiction books and movies over the past several decades, 3D holographic video players are still not available to consumers. Existing players are too bulky and display video from limited viewing angles. In this new effort, the researchers at Samsung claim to have overcome these difficulties and built a demo device to prove it.

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