The phase singularity. It’s like a miniature WARP bubble that can travel faster than light.

The phase singularity is the bubble of emptiness. It can travel between quantum field strings. So that means that. The phase singularity can reach its goal sooner than a photon. The phase singularity doesn’t break laws of physics. It just travels a more direct route than a photon. The phase singularity is like a quasiparticle. The phase singularity. It travels a shorter route. Than a photon that makes curves, and that makes it possible for that phase singularity. 

It can reach the goal before a photon. Not because it’s faster than light.  But because it travels in a straight line. 

The bubble of nothing in the quantum beam. This means that we can describe the phase singularity as a quantum-sized WARP bubble. 

Can we sometimes form a wormhole? Theoretically, we can make a quantum version of that phenomenon. A theoretical wormhole. It is like the stretched WARP bubble. The theoretical WARP bubble is the bubble of emptiness. 

Theoretically, a WARP bubble is similar to that thing. That researchers call a phase singularity. Theoretically, a phase singularity can form because a photon starts to spin. This photon takes the quantum field with it. That could form the bubble. If that spin continues, the bubble starts to stretch. This wormhole cannot transport complex structures. But that could transport a single photon through it. 

Then the photon starts to create the quantum tornado. This phenomenon. It can form an environment where the spinning structure. It locks most of the energy out from that structure. 

Darkness can travel faster than light. Or maybe we should say that phase singularities. Or an optical vortex in a light beam. It can travel faster than light. The light beam can make a quantum roll around the microvoids. And the optical vortex is one kind of microvoid. The miniature void is a lower-energy space. The quantum fields form energy flows that are like wind. We can think of a light beam as paper that the quantum wind curves. And if that wind is strong enough. That turns the light into a roll. This thing forms the quantum maser effect in that tunnel. 

There is a structure that starts to stretch that quantum tube. The spinning light tube starts to take quantum fields with it. And that thing extends the quantum tornado. That quantum tornado forms the structure. 

Called: phase singularity. This thing means that. In those light beams is an environment. There, light can travel faster than it travels outside it. 

The phase singularity is like a bubble that forms between light beams. That phase can be described as the empty bubble. And that means we could compare the WARP bubble with a phase singularity. This means that we could make the phase singularity. And put a photon inside it. This means that a phase singularity could transport a photon and protect information inside it. This doesn’t mean that the phase singularity could transport more than one photon. But. It could protect information in a photon. That travels in it. 

A phase singularity can transport a photon or frozen light beam very fast. If. We want to compare that quantum WARP with sci-fi WARP. This thing. It can carry one single particle. 

In a phase singularity. The phase of the light. It is not determined. The amplitude or strength. In this structure, it is zero. This means that when we say that the darkness travels faster. Than. The speed of light. We mean that the amplitude is zero. It can travel faster than light. 

When we think about the shape of the light. And especially the photon. The light particle, the photon, looks like a donut. This means that those light particles. They can travel faster than light. Without breaking. The laws of physics. And if the photon spins fast in the phase singularity. That makes it possible to transport a photon into the past. 

There is one thing. That can travel faster than a photon. That is another photon. That travels in the environment. There, a photon can travel faster than a photon in another environment. 

If. The photon travels lying down. The photon can spin. And that thing can cause a situation. There is one side of the photon. It travels faster than the other side. 

When we think. The speed of light. Or which photon is faster. We must realize one thing. All photons have the same speed. We talk about the speed of photons. And the speed of light. We must determine the question using the term. Which photon reaches the goal first? The answer is simple. The photon that follows a less curved trajectory. So the photon that travels along a straight line reaches the goal faster. Or. sooner than the photon that makes more curves. 

The situation is like two cars driving side by side. Both cars travel 100 km/h. The first car travels in a straight line. The second car makes curves. The second car reaches the goal later. Because. It traveled a longer distance. Each curve that the car makes extends the journey. So the reason the photon that travels straight reaches the goal before. Is that the straight-moving photon travels a shorter distance. Than. The photon that makes curves. 

https://physicsworld.com/a/darkness-can-travel-faster-than-light/

https://www.sciencealert.com/physicists-found-something-that-can-move-faster-than-light-the-darkness-inside-it

https://en.wikipedia.org/wiki/Alcubierre_drive

New exoplanet found near Beta Pictoris.

"Beta Pictoris is located about 60 light-years away toward the constellation of Pictor (the Painter’s Easel) and is one of the best-known examples of a star surrounded by a dusty debris disc. This image, based on data from the Digitized Sky Survey 2, shows a region of approximately 1.7 x 2.3 degrees around Beta Pictoris. Credit: ESO/Digitized Sky Survey 2" (Wikipedia, Giant Alien World Found Hiding in Plain Sight for 11 Years)

Beta Pictoris is the second-brightest star in the constellation Pictor, 63 ly from Earth. This young A-spectral-class star has three known exoplanets. Beta Pictoris b and c are large worlds. Both of those worlds have masses about 10 times Jupiter's. The exact masses of those gas giants are seen in the table. 

Beta Pictoris d is farther. Its mass is about 2,5 times Jupiter's. This means this solar system seems to be upside down. Heavier planets are closer to Beta Pictoris. c is the closest. But the second one, Beta Pictoris b, is in the middle. And the last and lightest, Beta Pictoris d, is farthest. 

Those exoplanets' orbital periods are: Beta Pictoris c: about 3,29 years. Beta Pictoris b: about 23,77 years. And Beta Pictoris d: about 91 or more years.

"These images trace Beta Pictoris d over more than a decade, from its discovery with ESO’s VLT to earlier detections in archival VLT and JWST data. The arrow marks the faint planet, while the brighter Beta Pictoris b appears in the upper images; the diagonal band is the system’s edge-on debris disc. Credit: ESO/B. Sutlieff, M. Bonse et al." (Wikipedia, Giant Alien World Found Hiding in Plain Sight for 11 Years)

That means that those three massive planets are forming in a planetary system. There is lots of matter. Those large and heavy exoplanets may have very large moons. There is a material ring around Beta Pictoris. That means. Those three planets. They might not only.

Larger objects orbiting that star. The moon is an object that orbits a planet. This means those giant exoplanets. They can have large Earth-size moons. Or. Even larger orbiters. This means that those super exoplanets. They can have other gas giants orbiting them. And anyway, Beta Pictoris d is the faintest exoplanet ever found. 

By using an Earth-based telescope. Beta Pictoris is too young and too hot to host habitable worlds.  

“A series of images shows observations of the exoplanet Beta Pictoris d over more than a decade. (Image credit: ESO/B. Sutlieff, M. Bonse et al.”(Space.com)

“The motion of Beta Pictoris b. The orbital plane is viewed side-on; the planet is not moving towards the star.” (Wikipedia, Beta Pictoris b)

A-type star loses lots of mass. When. It turns mature.  The strong hydrogen line means that the star is young. But it also shows where that star was formed. 

It is a very hydrogen-rich nebula. Another interesting detail in the Beta Pictoris system is the large molecular ring around it. This dust disk is asymmetric. 

Those large planets in the Beta Pictoris system. Suggest this star. Could have traveled in some interstellar nebula. Then that star is pulled into that nebula around it. The gas giant. Doesn’t necessarily mean something light. Material. Or elements that formed the planet determine its weight. The planet can be larger than Earth. But it can have weaker gravity if it is formed of very light elements. This means that an exoplanet could be very different than any planet in our solar system. Those exoplanets are so different. 

That makes it impossible. To create. Some common models for planetary systems and their habitability. There are about 1,5-2 Earth-sized and Earth-mass planets in habitable zones. But most of those planets. They have no atmosphere. 

Things. like megaflares or some cosmic events. They can strip that atmosphere away in seconds. Or maybe some rocky worlds. They have no such core. That. It could form the magnetic field. Without a magnetic field, plasma eruptions strip the atmosphere into space. And in the case of large stars. Those plasma eruptions. They can travel to very long distances. A normal solar wind. It can blow the atmosphere off large planets. 

https://science.nasa.gov/missions/webb/nasas-webb-discovers-hidden-planet-in-famous-star-system/

https://scitechdaily.com/giant-alien-world-found-hiding-in-plain-sight-for-11-years/

https://www.space.com/astronomy/exoplanets/found-you-astronomers-spot-faintest-exoplanet-ever-seen-from-earth-after-a-decade-of-hide-and-seek

https://en.wikipedia.org/wiki/Beta_Pictoris

https://en.wikipedia.org/wiki/Beta_Pictoris_b

https://en.wikipedia.org/wiki/Beta_Pictoris_c