“President Trump asked industry and the labs to make nuclear great again. We got together and decided to start with the basics of fission. This team delivered incredible results safely so we can keep moving up the technical ladder,” commented Max Ukropina, Head of Projects at Valar Atomics.
“America should be thrilled, but wanting more,” he added.
Europol says 34 Black Axe members were arrested in Spain, linked to €5.93 million in fraud and other organized crimes.
Frank Visser has been asking important questions of Integral theory for over two decades now, and the community owes him more genuine engagement than he typically receives. His persistent concern—that terms like Eros or Kosmic Creativity often function as explanatory placeholders rather than rigorous concepts, and that Integral discourse too easily slides from empirical claims to metaphysical ones without marking the transition—names something real. Anyone who has spent time in Integral circles has likely felt the discomfort he’s pointing to: the moment when a conversation shifts from careful phenomenology or developmental research into sweeping cosmological assertions, and one isn’t quite sure what kind of claim is being made or how one would evaluate it.
Visser’s insistence on scientific accountability emerges, I think, from genuine intellectual conscience. If Integral theory aspires to honor and integrate the fruits of modern science—not merely to dismiss or transcend them—then it must be willing to play by science’s rules when making scientific claims. The frustration Visser expresses is the frustration of watching a discourse that claims such integration while sometimes helping itself to explanatory gestures that no working scientist would recognize as legitimate. That frustration deserves respect, not dismissal.
And yet.
A research team from Osaka Metropolitan University proposed using a current-biased kinetic inductance detector with submicron 400 megapixels to image hot spots induced by a localized external stimulus over a 15 × 15 mm2 area. The team utilized a delay-line technique to trace the propagation of internal signals for a pair of signals arising from each hot spot.
Further, they used the timestamps of signal arrivals at the electrodes to determine the position of each hot spot (x, y). Because the signal velocity inside the detector is ultrafast at about 20% the speed of light, a readout circuit with a temporal resolution faster than 250 ps is necessary to resolve the position of a hot spot with a precision of 1.5 μm, which is the size of a meander pitch.
The research is published in the journal AIP Advances.
Humans respond to environments that change at many different speeds. A video game player, for example, reacts to on-screen events unfolding within hundreds of milliseconds or over several seconds. A boxer anticipates an opponent’s moves—even when their timing differs from that of previous opponents. In each case, the brain predicts when events occur, prepares for what comes next and flexibly adapts to the demands of the situation.
A study by neuroscientists from the Ernst Strüngmann Institute of the Max Planck Society, Goethe University Frankfurt, the Max Planck Institute for Empirical Aesthetics, and New York University, explains how the human brain predicts the timing of future events.
The research, published in the journal Proceedings of the National Academy of Sciences, shows that the brain continuously estimates how likely something is to happen within the next three seconds—and uses this estimate to prepare fast and accurate reactions.
Shaped quantum light is turning ordinary photons into powerful tools for the future of technology.
A global group of scientists, including researchers from the UAB, has published a new review in Nature Photonics exploring a rapidly developing area of research called quantum structured light. This field is changing how information can be sent, measured, and processed by combining quantum physics with carefully designed patterns of light in space and time. By doing so, researchers can create photons capable of carrying far more information than traditional light.
From qubits to higher dimensional quantum states.
