Lifeboat Foundation

Millions of light-years from Earth, there’s a galaxy that is completely devoid of dark matter — the mysterious, unseen material that is thought to permeate the Universe. Instead, the galaxy seems to be made up of just regular ol’ matter, the kind that comprises stars, planets, and dust. That makes this galaxy a rare find, and its discovery opens up new possibilities for how dark matter is distributed throughout the cosmos.

No one knows what dark matter is. True to its name, the material doesn’t emit light, so we’ve never detected it directly. All scientists know is that it’s out there based on their observations of how galaxies and stars move. Some unseen substance is affecting these deep-space objects, filling up the space between stars and clusters of galaxies. And there seems to be a lot of it. Dark matter is thought to make up 27 percent of all the mass and energy of the Universe. The matter we can see — the atoms that make up you and me — accounts for just 5 percent.

This past June, 500 pounds of a specially fabricated crystal buried in an Italian mountain seemed to glow just a little brighter. It wasn’t the first time, nor the last—every year, the signal seems to increase and decrease like clockwork as the Earth orbits the Sun.

Some people think the crystal has spotted a signature of elusive dark matter particles.

Scientists from an Italian experiment called DAMA/LIBRA announced at the XLIX meeting of the Gran Sasso Scientific Committee that after another six years observing, the annual modulation of their crystal’s signal is still present. This experiment was specially built to detect dark matter, and indeed, DAMA/LIBRA’s scientists are convinced they’ve spotted the elusive dark matter particle. Others are more skeptical.

Continue reading “This Supposed Dark Matter Evidence Won’t Seem to Go Away” »

Without an actual discovery, it can be difficult to convince us laypeople that there’s really such a thing as “dark matter.” It seems to interact with our universe solely through gravity, and no experiment has detected it here on Earth yet. So what if there’s an explanation to what’s causing the dark matter’s using physics that already exists, like Higgs bosons and black holes?

A team of three European physicists has made what could be seen as a controversial statement: “The existence of dark matter might not require physics beyond the standard model.” It’s still just a hypothesis as the hunt for dark matter continues, but it’s an interesting thought to digest.

First, you might be wondering what I’m talking about at all. You only experience regular matter in your day-to-day life—it’s what makes up every planet, star, and galaxy. But astronomical observations imply that there’s gravity from six times more matter in the universe, stuff we can’t see with our eyes or instruments, called dark matter. As of yet, lots of experiments have tried and failed to identify the source of this gravity.

Continue reading “Could Higgs Bosons and Primordial Black Holes Explain Dark Matter?” »

Supernovae produce some of the most powerful explosions in the cosmos, expelling a doomed star’s contents at velocities reaching 10 percent the speed of light. It usually takes a few weeks or months for a supernova to fade into nothingness, but astronomers have now documented a record-setting case in which a star was extinguished in just a few days.

They’re called Fast-Evolving Luminous Transients (FELTs), an exotic type of supernova discovered only a few years ago. As the name implies, these supernovae develop quickly, they’re very bright, and then they disappear. Unlike more “conventional” supernovae, such as Type Ia supernovae, the duration of these explosions can be measured in days rather than weeks or months. These celestial events are rare, and only a handful of FELTs have ever been documented.

The perplexing thing about FELTs, however, isn’t so much that they’re short lived—it’s that they’re also very bright. Scientists have subsequently theorized that they’re the glowing remnant of a gamma-ray burst (a massive explosion produced by a collapsing star that gives birth to a black hole), a supernova fueled by a magnetar (a neutron star with a powerful magnetic field), or a failed Type Ia supernova (in which a white dwarf star sucks up material from a nearby star, eventually causing it to explode). New research published today in Nature Astronomy suggests it’s none of the above.

Continue reading “Rare Type of Supernova Extinguishes Star at Unprecedented Speed” »

The ULTRACAM has been a staple in ESO for almost 16 years. This high-speed camera is able to do 500 photographs per second in three different wavelengths and, since 2002 has been operating at the William Herschel Telescope at La Palma (Canary Islands, Spain), the New Technology Telescope at La Silla (Chile) (where this picture was taken) and, most recently, at the Very Large Telescope at Paranal (Chile) and the Thai National Telescope at Chiang Mai (Thailand).

Some of its past targets have included: the study of black holes, “hot-Jupiters” or variable stars.

https://www.youtube.com/watch?v=9zr2_XrOX6E

Continue reading “Bioquark Inc. — Evolution of the New SuperHuman — Ira Pastor” »

Just Out: I did an hour long interview with Josh Peck of Into the Multiverse on Skywatch TV. Josh is a Christian #libertarian and this interview covers a variety of subjects including the compatibility of #Christianity & #Transhumanism, as well as my CA Governor run:

http://skywatchtv.com PLEASE SUBSCRIBE AND SHARE! Here is the full exclusive interview of Zoltan Istvan by Josh Peck on the topic of transhumanism vs Christianity.

Continue reading “Transhumanism VS Christianity (Full Exclusive Interview)” »

Gravitational waves have opened up new ways to test the properties of black holes — and Einstein’s theory of gravity along with them.

March 20 (UPI) — Scientists believe a new material, known as a scintillator, will expand the search for dark matter.

New analysis suggests the scintillator material is sensitive to dark matter particles with less mass than a proton, which should allow scientists to look for dark matter among a previously unexplored mass range.

Weakly interacting massive particles, or WIMPs, describe dark matter particles with a mass greater than that of a proton. Scientists have tried to directly detect WIMPs using a variety of strategies, but with no success.

Continue reading “New material capable of detecting dark matter, scientists say” »