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Thomas Jefferson National Laboratory experiments hone in on a never-before-measured region of strong force coupling, a quantity that supports theories accounting for 99% of the ordinary mass in the universe.

Much fanfare was made about the Higgs boson when this elusive particle was discovered in 2012. Although it was touted as giving ordinary matter mass, interactions with the Higgs field only generate about 1% of ordinary mass. The other 99% comes from phenomena associated with the strong nuclear force, the fundamental force that binds smaller particles called quarks into larger particles called protons and neutrons that comprise the nucleus of the atoms of ordinary matter.

The Strong Nuclear Force (often referred to as the strong force) is one of the four basic forces in nature. The others are gravity, the electromagnetic force, and the weak nuclear force. As its name implies, it is the strongest of the four. However, it also has the shortest range, which means that particles must be extremely close before its effects are felt.

A fruit fly genome is not a just made up of fruit fly DNA—at least for one fruit fly species. New research from the University of Maryland School of Medicine’s (UMSOM) Institute for Genome Sciences (IGS) shows that one fruit fly species contains whole genomes of a kind of bacteria, making this finding the largest bacteria-to-animal transfer of genetic material ever discovered. The new research also sheds light on how this happens.

The IGS researchers, led by Julie Dunning Hotopp, Ph.D., Professor of Microbiology and Immunology at UMSOM and IGS, used new genetic long-read sequencing technology to show how genes from the bacteria Wolbachia incorporated themselves into the fly genome up to 8,000 years ago.

The researchers say their findings show that unlike Darwin’s finches or Mendel’s peas, isn’t always small, incremental, and predictable.

Motors are ubiquitous in our everyday lives — from cars to washing machines, even if we rarely notice them. A futuristic scientific field is working on the development tiny motors that could power a network of nanomachines and replace some of the power sources we currently use in electronic devices.

Researchers from the Cockrell School of Engineering at The University of Texas at Austin created the first ever solid-state optical nanomotor. All previous iterations of these light-driven motors reside in a solution of some sort, which limited their potential for the majority of real-world applications. This new research was published recently in the journal ACS Nano.

Once upon a time, the only world known to have an ocean of water was Earth. Now, planetary scientists think there are many ocean worlds – albeit with their oceans covered by deep layers of ice, rather than hanging out on the surface like ours.

Top on the list is Jupiter’s moon Europa, believed to have a 100-kilometre-deep ocean beneath perhaps 10–30 km of ice. But Saturn’s moons Enceladus, Titan, and Dione are also thought to have oceans, as is Pluto.

And those may just be the tip of the iceberg. Other moons in the outer solar system are also believed or suspected to have frozen-over oceans. Still more aren’t well studied enough for scientists to be sure, but could be capable of hosting water.

The vehicles we’ll see on the roads in a decade’s time will be radically different from what we have at present. Design language will change a lot, as hinted by the concepts and prototypes put together by big names and budding automotive designers.

The focus definitely will be on personal mobility in the most sustainable manner possible. Compact vehicles that will trade off the greatest of luxuries for a more sensible method of commuting will be the norm. This boomerang-shaped two-seater vehicle with multiple use-case scenarios is different from what we’ve seen so far. Even in the automotive landscape dominated by some really bizarre vehicle concepts.

Designer: Artem Smirnov