Skip to main content

How are researchers using Type 1A supernovas in dark energy and dark matter research?




Artist’s Impression of Two White Dwarf Stars Merging and Creating a Type Ia Supernova. 


How Artificial intelligence researches dark energy and dark matter?


The Pantheon+ project collects data from the Type 1A supernovae, and then the data system makes a database about that collected data. Then artificial intelligence compares those data units with each other. In that case, every single Type 1A supernova is one data unit. And Partheon+ database contains data on over 1500 stellar explosions called Type 1A supernovas. 

The Type 1A supernova is happening in the binary star system. And if researchers are lucky they can capture the data about the impacts of two white dwarfs. That kind of impact makes it possible, that astronomers can observe so-called, cold or dark shockwaves. In that case, the brightness of exploding star doesn't cover the possible halo of dark matter. 

Type 1A supernovas happen in binary star systems where another pair is different than the brighter participant. And if the red giant explodes in that kind of system where another participant is a white dwarf or neutron star that explosion sends a shockwave that makes the smaller but thicker participant oscillate. Also material from the supernova falls to the small participant and that allows to give spectral information of material of the exploded star. 

The Type 1A supernova, like all other supernovas, is a radical and violent phenomenon. In the past, some cosmologists believed that those explosions are the reason for the universe's expansion. Maybe those extreme effects have some kind of role in that thing. But that role is not very big. 

When a supernova explodes it sends powerful shockwaves through the universe. And researchers wish that shockwave presses dark matter to the plate, which makes it visible. But that thing does not happen yet. But "new analysis holds that 66.2 percent of the universe manifests as dark energy, with the remaining 33.8 percent being a combination of dark matter and matter". (ScitechDaily.com/Supernova Explosions Reveal Precise Details of Dark Energy and Dark Matter)

Artifact or non-calculated behavior uncovers the dark matter and dark energy. Artifact means a non-controlled participant in research. And in the case of supernovas, the artifact is missing part of the system. If model makers don't know all parts of the system, they cannot make a model that corresponds with reality. So, missing parts causes anomaly in calculations. In empiric research, anomaly means the difference between observations and calculations. 

By observing the direction of the shockwave and the changes in its energy level and comparing those observations with calculations the dataset shows if the shockwave interacts with something invisible. When a shockwave travels out from the supernova explosion, its energy level should decrease by following a straight line. 

If there are anomalies the reason for those anomalies like curves in energy level they are the reason for some unseen energy stress. In the universe, everything happens for some reason. The unknown is the reason that causes the difference between calculations and observations. When researchers make theoretical models. 

They must have all information about their object. If some part of the object is missing that thing causes the difference between the theoretical model and measured data. 

And if the same difference is repeating simultaneously, that means that the same thing is always missing. But confirming that thing is required information from multiple cases. The problem with Type 1A supernova is that thing happens so suddenly that researchers have no time to point telescopes at that object. 

If there is a binary star system where participants are white dwarfs computer can calculate the impact moment. And the researchers can point their telescopes at that system. The Type 1 A supernovas that are forming in white dwarfs impacts are easier to predict than other supernovas. 

Even in the best cases a couple of the first seconds of the explosion are missing. And the missing data contains information about where the shockwave is at the most powerful level. Another problem with the supernova is its luminosity is extremely high. 

But there is a small possibility that researchers can see the halo of dark matter at the edge of the shockwave just when it leaves the star. The impact of white dwarfs causes darker impact waves. And that means the brightness of the explosion doesn't cover the dark matter shockwave. 


https://bigthink.com/starts-with-a-bang/pantheon-supernova/


https://scitechdaily.com/supernova-explosions-reveal-precise-details-of-dark-energy-and-dark-matter/


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


https://astronomyandtechnology.blogspot.com/


Comments

Popular posts from this blog

Quantum breakthrough: stable quantum entanglement at room temperature.

"Researchers have achieved quantum coherence at room temperature by embedding a light-absorbing chromophore within a metal-organic framework. This breakthrough, facilitating the maintenance of a quantum system’s state without external interference, marks a significant advancement for quantum computing and sensing technologies". (ScitechDaily, Quantum Computing Breakthrough: Stable Qubits at Room Temperature) Japanese researchers created stable quantum entanglement at room temperature. The system used a light-absorbing chromophore along with a metal-organic framework. This thing is a great breakthrough in quantum technology. The room-temperature quantum computers are the new things, that make the next revolution in quantum computing. This technology may come to markets sooner than we even think. The quantum computer is the tool, that requires advanced operating- and support systems.  When the support system sees that the quantum entanglement starts to reach energy stability. I

The anomalies in gravity might cause dark energy.

"Physicists at UC Berkeley immobilized small clusters of cesium atoms (pink blobs) in a vertical vacuum chamber, then split each atom into a quantum state in which half of the atom was closer to a tungsten weight (shiny cylinder) than the other half (split spheres below the tungsten). (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research) By measuring the phase difference between the two halves of the atomic wave function, they were able to calculate the difference in the gravitational attraction between the two parts of the atom, which matched what is expected from Newtonian gravity. Credit: Cristian Panda/UC Berkeley" (ScitechDaily, Beyond Gravity: UC Berkeley’s Quantum Leap in Dark Energy Research) Researchers at Berkeley University created a model that can explain the missing energy of the universe. The idea is that the particles and their quantum fields are whisk-looking structures. Those structures form the superstrings that are extremely thi

Neon and time crystals can be the new tools for quantum computing.

"New research investigates the electron-on-solid-neon qubit, revealing that small bumps on solid neon surfaces create stable quantum states, enabling precise manipulation. This research, supported by multiple foundations, emphasizes the importance of optimizing qubit fabrication, moving us closer to practical quantum computing solutions." (ScitechDaily, Quantum Riddle Solved? How Solid Neon Qubits Could Change Computing Forever) Researchers created a superposition in solid neon. And those neon ions, where the system creates superposition in their surfaces.  Making it possible to manipulate those atoms. The atom-based qubit has one problem. Orbiting electrons cause turbulence in their quantum fields. The thing that can solve the problem is to use the quantum fields for the superposition.  If the system can position electrons at a certain point, it can make a small hill to the atom's surface. And the system can use that thing for making quantum superposition between the mos