One stone stirred up a thousand waves, and an acceptance report meeting within the CRHPC organization was like a meteorite falling from the sky and hitting the ocean, causing shocking waves all over the world.
The confirmation of Ct sterile neutrino particles has brought the entire physics community into a new field.
Dark matter, dark energy... these microscopic worlds that have never been explored by humans before have now opened a real window to them, and this is what excites countless physicists.
Because what they are facing is not only a brand new world, but also the possibility of finding countless treasures from this unexplored new continent.
According to the research of Professor Xu Chuan, the huge energy released by large-mass dark matter particles when they undergo void fission distorts the folds of space. This allows spacecraft to use the curvature characteristics of space itself to generate power, thereby traveling at extremely high speeds or even
It's super-light flight.
Or it can use the energy released by dark matter to directly punch a hole in the wrinkled film of the universe, building a space-time bridge in the universe and connecting it to the universe that is several light years or even more distant.
If these theories can be confirmed, time and space travel in distant universes, like all the science fiction movies we have seen in the past, whether from Hollywood or anywhere, will become a reality.
In comparison, the Ct sterile neutrino particle, a dark matter particle that exceeds the standard model, has been confirmed, and it does not feel so important.
...
At the same time, this acceptance report meeting, which caused a sensation in the entire academic community, attracted the attention of not only scholars within the physics community.
When the news flows from the professional field to the Internet, which is more oriented to the public, it arouses the curiosity, interest, and shock of countless ordinary people.
Dark matter, dark energy!
Warp drive, space-time tunnel, wormhole...
A series of professional physics terms continue to enter the public eye from academia, either through news reports in the media, explanations by bloggers in the scientific field, or exaggeration through some eye-catching marketing accounts and traffic accounts.
In short, in the summer of 2025, articles about space travel exploded.
Whether it is previous manned missions to spacecraft or current research in the field of physics, they are constantly being discussed and evaluated.
Curvature engine, space-time wormhole!
These technologies have always been considered impossible, and there is no hope for at least one or two centuries. At this moment, a seed of hope has been planted in the hearts of many people. This does not affect people's
Hope for it.
Especially these theoretical predictions and guesses were made by the famous Professor Xu.
After all, he has created countless miracles.
Therefore, many people have begun to discuss what the scene is like in the distant universe outside the solar system based on this hot topic.
In just one night, it seems that interstellar migration to distant space is about to become a reality.
.......
For Xu Chuan, he doesn't care too much about the outside world's opinions.
Although he also has a high desire for distant interstellar travel, he even put forward the relevant theories himself.
But he remained extremely calm about this matter.
At least from his point of view, it is almost impossible to achieve faster-than-light travel or hyperspace travel through massive dark matter particles in our lifetime.
It's really too difficult.
Not to mention using large-mass dark matter particles to implement a curvature engine, truly "seeing" dark matter particles is something that is currently impossible for humans.
Existing detection technologies and observations of dark matter particles are all based on the side.
Just like a stone dropped into a pond, people can only see the ripples on the water and hear its sound.
It is unclear what this stone looks like, whether it is granite, pebbles, or a piece of soil.
Just like their current collision detection of Ct sterile neutrino particles, they only confirmed its existence through the aftermath of the collision experiment and learned a small amount of information such as its mass and energy level.
As for what kind of particles this particle is made of, what kind of structure it has, and whether it is composed of various smaller microscopic particles such as protons, neutrons, and electrons like atoms, we still know nothing about these things.
Know.
After the acceptance report meeting of the 125 Tev energy level was officially concluded, Xu Chuan spent a whole day, with the help of his AI academic assistant Xiao Ling, organizing the report of this collision experiment of detecting sterile neutrinos and massive dark matter particles.
It became a thesis.
He is not planning to post this paper to the Arxiv preprint website.
For the physics community, this is a brand new world, and it is fully worthy of any top TOP journal.
It is no exaggeration to say that as long as it is made public, no matter which journal it is published in, it will directly explode the journal and its sales will directly reach its peak.
Of course, for Xu Chuan, submission to the academic journal "Exploration", which he personally founded, must be a priority.
"Exploration" has not released a new publication for a long time, and this paper related to Ct sterile neutrino particles will undoubtedly be the content of the next "Exploration" general issue.
When the relevant news was released to the outside world, the entire academic community was eagerly looking forward to the release of the next issue of "Exploration".
...
When Xu Chuanwo was sorting out papers related to Ct sterile neutrino particles in his office.
On the other side, in the United States, at California Institute of Technology.
Looking at the news reports in his hands and flipping through the simultaneous report files downloaded from the CRHPC official website, Kip Thorne, the 2017 Nobel Prize winner in physics, had a look of interest on his face.
This chapter is not over, please click on the next page to continue reading! As a top expert in the fields of theoretical physics and astrophysics, he has been engaged in related research.
From the mid-1970s to the 1980s, he led and developed technical ideas and plans for gravitational wave detection, and co-founded the Laser Interferometer Gravitational Wave Observation Project (LIGO) with Rainer Weiss and Ronald Drever.
.
The project finally detected gravitational waves produced by the collision and merger of two black holes in 2015, and therefore won the 2017 Nobel Prize in Physics.
"How does it feel?"
In the office, another Nobel Prize winner in physics, Reinhard Genzel, took a sip of a cup of coffee and asked with a smile.
Opposite the sofa, Kip Thorne raised his head, thought for a while and then said: "Aside from his mathematical operations on dark matter particles, I have to admit that his understanding of space, time and the universe has brought me a lot of insights.
A whole new understanding.”
"The decay of massive dark matter particles, well, what he calls fission will release a large amount of energy, which will affect the curvature of space and time. Although I don't quite understand how he thought of this, it is indeed quite a
Wonderful idea.”
"And looking back, the theoretical feasibility of this idea is far more reliable than the black hole theory and wormhole theory I originally wrote."
It is worth mentioning that this top expert in the fields of theoretical physics and astrophysics also served as a scientific consultant for Nolan's film "Interstellar".
The world-famous science fiction movie "Interstellar" was adapted based on the black hole theory he proposed.
.......
PS: There will be another chapter later, please give me a guaranteed monthly pass~