Lifeboat Foundation

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A crystal is an arrangement of atoms that repeats itself in space, in regular intervals: At every point, the crystal looks exactly the same. In 2012, Nobel Prize winner Frank Wilczek raised the question: Could there also be a time crystal—an object that repeats itself not in space but in time? And could it be possible that a periodic rhythm emerges, even though no specific rhythm is imposed on the system and the interaction between the particles is completely independent of time?

For years, Frank Wilczek’s idea has caused much controversy. Some considered time crystals to be impossible in principle, while others tried to find loopholes and realize time crystals under certain special conditions.

Now, a particularly spectacular kind of time crystal has successfully been created at Tsinghua University in China, with the support from TU Wien in Austria.

A new way to store carbon captured from the atmosphere, developed by researchers at The University of Texas at Austin, works much faster than current methods without the harmful chemical accelerants they require.

In new research published in ACS Sustainable Chemistry & Engineering, the team developed a technique for ultrafast formation of carbon dioxide hydrates. These unique ice-like materials can bury carbon dioxide in the ocean, preventing it from being released into the atmosphere.

“We’re staring at a huge challenge—finding a way to safely remove gigatons of carbon from our atmosphere—and hydrates offer a universal solution for carbon storage. For them to be a major piece of the carbon storage pie, we need the technology to grow them rapidly and at scale,” said Vaibhav Bahadur, a professor in the Walker Department of Mechanical Engineering who led the research. “We’ve shown that we can quickly grow hydrates without using any chemicals that offset the environmental benefits of carbon capture.”

Researchers have created tiny, vehiclelike structures which can be maneuvered by microscopic algae. The algae are caught in baskets attached to the micromachines, which have been carefully designed to allow them enough room to continue swimming. Two types of vehicles were created: the “rotator,” which spins like a wheel, and the “scooter,” which was intended to move in a forward direction but in tests moved more surprisingly. The team is planning to try different and more complex designs for their next vehicles. In the future, these mini algae teams could be applied to assist with micro-level environmental engineering and research.

You’ve likely heard of horsepower, but how about algae power? Like a sled drawn by a team of dogs or a plough pulled by oxen, researchers have created microscopic machines which can be moved by lively, tiny, single-celled green algae.

“We were inspired to try and harness Chlamydomonas reinhardtii, a very common algae found all over the world, after being impressed by its swift and unrestricted swimming capabilities,” said Naoto Shimizu, a student from the Graduate School of Information Science and Technology at the University of Tokyo (at the time of the study), who initiated the project. “We’ve now shown that these algae can be trapped without impairing their mobility, offering a new option for propelling micromachines which could be used for engineering or research purposes.”

Researchers from the Smart and Wireless Applications and Technologies Group (SWAT-UGR) have conducted two scientific studies aimed at answering a common question: understanding how electromagnetic waves propagate in the medium.

The increase in network speed opens the door to new possibilities, such as robotic surgery or virtual reality services.

A team of UGR researchers has examined the propagation of electromagnetic waves with the goal of enhancing the deployment of 5G and 6G networks. Additionally, the study results contribute to the development of Industry 4.0, which seeks to automate processes in factories using wireless technologies.

A scientific breakthrough on the tiniest scale could soon help us answer the universe’s greatest mysteries.

Kamiokande-II saw the first supernova neutrinos from the famous SN 1987A.

Every few seconds, somewhere in the observable Universe, a massive star collapses and unleashes a supernova explosion. Japan’s Super-Kamiokande observatory might now be collecting a steady trickle of neutrinos from those cataclysms, physicists say — amounting to a few detections a year.

These tiny subatomic particles are central to understanding what goes on inside a supernova: because they zip out of the star’s collapsing core and across space, they can provide information about any potentially new physics that occur under extreme conditions.

Continue reading “Huge neutrino detector sees first hints of particles from exploding stars” »

Researchers have developed a pH-responsive nanorobot system that changes confirmation in the tumor microenvironment to selectively kill cancer cells in mice.

Researchers at the Karolinska Institutet (Stockholm, Sweden) have recently developed a nanorobot system capable of killing cancer cells in mice. This system works by activating at lower pH, such as within the tumor microenvironment. It is hoped that this could serve as a proof-of-concept for similar stimulus-responsive nanorobotic approaches and introduce a new range of effective cancer therapeutics.

Certain membrane proteins capable of inducing apoptosis, a type of cell death, appear on the surface of both healthy and cancer cells. These proteins, often called death receptors, join and activate when in close proximity to each other. This closeness is induced by external factors binding to the cell surface.

Fab 29.1 and Fab 29.2 will span roughly 81,000 square meters, with a combined length of 530 meters and a width of 153 meters. Including roof structures for air conditioning and heating, the buildings will reach a height of 36.7 meters, with several underground floors as well. The cross-section plans show multiple above-ground floors with heights ranging from 5.7 to 6.5 meters.

Initially, construction of Intel’s Fab 29 was scheduled to begin in the first half of 2023, but delays in subsidy approvals pushed the start to the summer of 2024. Recently it turned out that construction of Intel’s Fab 29 modules 1 and 2 near Magdeburg, Germany, has been delayed to May 2025 due to the pending approval of EU subsidies and the requirement to relocate black soil for reuse at another site.

Intel’s Fab 29 modules 1 and 2 were initially scheduled to start operations in late 2027 and make chips on Intel’s 14A (1.4nm) and 10A (1nm) production nodes. Typically, Intel launches new client PC products in the second half of the year and ramps up production in the first half. The fabs were intended to produce client PC products set for release in the second half of 2028. Although production could begin if the fabs were ready by mid-2028, the timeline would be tight. However, some of the latest reports indicate a different schedule, estimating four to five years for construction, with production now expected to start between 2029 and 2030.