After the Chinese Mathematicians Conference ended, many media around the world reported on it.
The report details Wang Hao's new achievement, which is to describe the way the annihilation force works by constructing a microscopic topological form within a single-element conductor.
This is the first time that the relevant mathematical framework has been completed since the emergence of annihilation theory.
At the same time, Wang Hao also used the constructed mathematical content to calculate the 'missing data' fluctuations that occurred in the particle collision experiment, which was equivalent to predicting the experiment for the second time.
Many scholars immediately became interested in the annihilation theory.
Some of them had the same idea as Parsons, in order to apply for more funds, while others were very interested and thought they could find a new direction for research.
In fact, it is very normal to do research for the sake of funding.
Scientists are human beings too and have their own lives.
Most researchers do not do research just as a hobby, especially some young researchers. They will choose projects in their professional fields that are easier to apply for funding.
Only with funding can we conduct follow-up research.
In addition, many scholars have also seen the potential of annihilation theory. A new field with potential will become very attractive, because new fields are easier to produce results.
This is what the original string theory was like.
String theory first appeared to explain the large number of mesons discovered in particle collision experiments. The initiator of the theory was Italian physicist Gabriel Veniziano.
During particle collision experiments, physicists discovered that there is a very simple linear relationship between the spin and weight of mesons.
Gabriel Veneziano 'guessed' an equation based on experimental results.
Later, other physicists explained Veniciano's equations. They hypothesized that there are basic units smaller than particles-strings. They calculated the interactions between strings to reconstruct Veniciano's mathematics.
formula.
This is the prototype of string theory.
In the late 1960s, string theory was undoubtedly a brand-new theory. The theory was soon expanded into open strings, closed strings and superstrings, which were mainly used to describe a class of glass called strings.
"Size" particles.
Later, in the late 1980s, Nevo and Ramon made contributions together, extending the coverage of string theory to fermions, that is, superstring theory.
Such string theory can already explain all elementary particles including gravity and become a grand unified theory of physics.
Later, Edward Witten of Princeton University constructed a further M-theory based on his research, realizing the second revolution of string theory.
From the development history of string theory, we can find that from the initial emergence of string theory to the perfection of the theory, the development speed is very, very fast.
In the first twenty or thirty years, many mathematicians and physicists participated in the shaping of string theory, allowing the theory to be rapidly improved step by step, and they also achieved results one by one.
In the past two decades, there has been almost no development in string theory.
Occasionally there are some small achievements, but it is difficult to attract much attention. Even Edward Witten, who is considered the first person in string theory, has not made any outstanding achievements in the improvement of string theory.
There is no doubt that research on string theory has reached a bottleneck.
Annihilation theory is the latest theory.
Compared with string theory, annihilation theory has a great advantage, that is, it can conduct theoretical research, verify experiments, and even calculate the results of particle collisions, which shows that the annihilation force is likely to exist, and the annihilation theory is also very likely.
is correct.
To study a correct theory will definitely have huge potential.
Of course, compared with string theory, the problem of annihilation theory is also obvious. It is not a grand unified theory and cannot explain complex particle problems.
The purpose of its emergence is only to introduce a microscopic force called the 'annihilation force', and some of the definitions and explanations of the theory seem to have no connection with the existing microphysical system.
After leaving Lingcheng and returning to Holan, Didier Mayor was interviewed by reporters. He talked about what happened at the Chinese Mathematicians Conference, and expressed his admiration for Wang Hao and Paul Phil-Jones, and then
, he explained the difference between string theory and annihilation theory, "The two are completely different."
"The goal of string theory is to explain all physics and achieve the unification of physical systems."
"The main purpose of annihilation theory is to introduce gravity into microscopic physical systems. Annihilation force is the microscopic manifestation of gravity. The theory adds an interaction relationship between mass and space, but there is no more explanation."
"In my understanding, annihilation theory is a supplement to the existing microphysical system."
"As for the conflict in the underlying definition of string theory, I think this statement is not accurate. First of all, string theory is only a physical explanation. We must first prove that string theory is correct, and then we can use 'conflict' to explain its relationship with annihilation theory.
."
As an experimental physicist, Didier-Mayor undoubtedly supported the annihilation theory.
The reason is very simple. The annihilation theory can predict experiments, and the existence of the annihilation force is likely to be verified in the future.
For string theory, it's hard to say.
If it is only from a theoretical perspective, the physics community will accept it. This has always been the case in the field of microphysics. Whichever explanation is more reasonable will be used.
In microphysical systems, string theory also plays a big role in solving some physical problems, such as black holes, the early universe, condensed matter physics, etc., all of which are explained by string theory.
At the same time, the study of string theory also promotes the development of pure mathematics research.
Therefore, whether the two theories conflict or not is not important to most scholars.
Many physicists understand both theories in this way, which makes some string theory scholars reluctantly accept it.
That certainly doesn't include Paul Phil-Jones.
In Paul Phil-Jones' worldview, what is right is right and what is wrong is wrong, and he cannot accept two theories with conflicting definitions at the same time.
After returning to Caltech, Paul Phil-Jones regained his confidence and began to seriously study the annihilation theory.
"There must be something wrong with the annihilation theory! I can definitely find it out!"
Paul Phil-Jones is very serious.
Like Parsons, he went back to his roots to study annihilation theory, superconducting laws, Wang's geometry and microscopic morphological topological processes, etc.
at the same time.
Wang Hao has returned to Xihai University, and he only waited two days for Birkar.
Bill Carr was also very interested in follow-up research.
In fact, Birkar had wanted to come to Xihai University for a long time, but he found that he was doing research at Shuimu University without making any progress at all.
When he was researching with Wang Hao, he felt that his mind was full of inspiration, as if he had returned to the peak period of scientific research in his thirties. But when he was doing research alone, he felt completely opposite.
In addition, he is also very interested in the study of microscopic morphology and semi-topology.
The trio of Wang Hao, Lin Bohan and Bill Carr got together again, and they immediately entered into focused discussion and research.
Wang Hao talked about his thoughts, "We can give a side definition."
"Before, we wanted to use one equation or several equations to express the microscopic morphology. But after thinking about it carefully, this is not practical at all."
The other two nodded as they listened.
Wang Hao continued, "We can perform module-by-module analysis and give side definitions, and use the definitions to match the equations to achieve a semi-topological architecture."
To put it simply, you can’t eat fat in one sitting.
Facing such a complex geometric system, it is definitely not possible to cover it with one equation solution or several equations.
After having a specific direction, they began to study the simplest 'double elements' and 'three elements'. Later, they found that the logic was still too complicated, so Wang Hao found another person to join the research team.
Luo Dayong.
When studying complex problems, there is definitely no problem in asking Luo Dayong to handle mathematical logic problems.
The trio became a quartet.
Wang Hao serves as the team leader.
Lin Bohan is responsible for topology issues; Bill Carr is responsible for algebraic geometry issues; Luo Dayong will provide opinions on mathematical logic issues.
Their research base is directly located in the office of the director of the Mason Number Laboratory.
When they were too invested in research, they even began to forget about food and sleep, and ended up asking others to help deliver food. So Zhang Zhiqiang and Zhu Ping, who were relatively free, took over the work related to food delivery.
Zhang Zhiqiang was very depressed.
When Wang Hao, Lin Bohan and Bill Carr were studying together before, he had no special feeling because the other party was studying professional mathematics problems.
Now that Luo Dayong has joined in, he feels a little depressed.
Zhang Zhiqiang has always felt that he and Luo Dayong are of "equal status" in the complex office, but now he finds that there is still a difference, and the difference is very big.
Luo Dayong can join Wang Hao's research team, but he can only be responsible for delivering meals together with Zhu Ping.
"Alas~~"
After delivering the food to the office again, and then being ignored by a group of people and pushing the door open to leave, Zhang Zhiqiang sighed fiercely towards Zhu Ping, "How come I am reduced to delivering food?"
"What happened to the food delivery?"
Zhu Ping was immediately dissatisfied, "I am willing to deliver food to our family Dayong!"
"I did not mean that!"
Zhang Zhiqiang suddenly became even more depressed. He leaned close to Zhu Ping and whispered, "I mean, Zhu Ping, do you think it will be okay for me to study mathematics hard from now on?"
"Why?"
"I also want to join Wang Hao's research group..." Zhang Zhiqiang felt that joining Wang Hao's research group would be a very honorable thing to say.
He has also done research with Wang Hao, but now it is not easy to even do projects together.
He found that he couldn't keep up.
It felt like he was "about to be eliminated by the times", but in fact, he was only thirty-five years old.
So he envied Luo Dayong very much.
Zhu Ping looked Zhang Zhiqiang up and down, holding her chin with her thumb and forefinger, thinking, and nodded, "Your idea is quite good, but there is one thing."
"What?"
"You don't have enough hair." Zhu Ping shook her head silently and walked away.
Zhang Zhiqiang was stunned for a moment, and immediately looked in a mirror and found that there was a place on the top of his head where a large piece of scalp could be clearly seen.
He took a deep breath and stopped thinking about math problems.
math?
Hair is not important!
…
Wang Hao's research group is making very good progress.
Because the shaping of some small modules has achieved certain results, Wang Hao also found a physics laboratory and asked the physics laboratory to conduct AC gravity experiments for verification.
Later, I asked Liu Yunli from Factory 244 to verify it with their experimental team.
Now the research team is mainly focused on shaping the dual-element combination form and making a broader definition based on experimental results to cover all possible element combinations.
Although it has entered the verification stage of research, the research still lacks a key condition - the gap problem in microscopic morphology.
"We have to find this gap problem, otherwise the research is incomplete."
"I believe that the microscopic form composed of any elements cannot be perfect. Since it cannot be perfect, there will be gaps."
"The gaps will be large, small, and in many directions. It may not be one gap, but may be many gaps. At the same time, the microscopic gaps will also be reflected in the experiment. We must complete the expression of the gaps through theory.
.”
"This is the most important part of experimental verification!"
…
In the gap demonstration part of microscopic morphology, the research team's progress is not smooth, because there is no specific data and it is difficult to draw conclusions by relying only on imagination.
They discussed together for two weeks and only completed part of the 'illusion form'.
If we verify these hypothetical forms one by one, it will definitely consume a lot of money and may not yield results.
‘A large amount’ means the funds can easily reach several hundred million or even more.
Research stopped again.
Birkar returned to Capital University, and the others returned to work.
Wang Hao could only stop with regret. Looking at the value of 'Inspiration Value: 97', he only felt very depressed.
It's only three points short of inspiration, but it can't go up.
The ‘gap’ is the key.
He Yi suddenly came to the office that day and said to Wang Hao anxiously, "Have you seen the news?"
"what news?"
"The latest results are reported in Science magazine!" He Yi explained, "The superconducting research team at the University of Chicago discovered the problem you mentioned!"
Wang Hao was stunned for a moment, and couldn't help but stand up and said in surprise, "You mean, you discovered that the superconducting front temperature creates a higher AC gravity field strength?"
"Yes!" He Yi nodded vigorously.
Wang Hao checked the latest issue of Science magazine and saw relevant news.
The superconducting experimental group at the University of Chicago discovered a mixed material of carbon, hydrogen, and sulfur that, when pressurized to 260 GPa, achieved room-temperature superconductivity with a superconducting transition temperature of 15 degrees Celsius.
More importantly, they observed that the AC gravity field intensity reached an extreme value of 18% at 20 degrees Celsius.
At the same time, at a superconducting transition temperature of 15 degrees Celsius, the AC gravity field strength is only 14%.
The former's room-temperature superconductivity is actually not a big achievement, because the pressure of the mixed gas is too high, 260GPa, which is 2.6 million times the atmospheric pressure, and cannot be applied conventionally at all.
In addition, the mixed gas is not a normal superconducting material, and the maximum current it can withstand is too low, far behind ordinary conductors, and there is no possibility of application.
The latter is the most important.
At five degrees Celsius greater than the superconducting transition temperature, the extreme value of the AC gravity field strength was observed, which is definitely a great discovery in AC gravity research.
When interviewed, Thors-Brown, head of the superconducting experimental group at the University of Chicago, said excitedly, "This discovery is very meaningful."
"As long as we study the principle of its emergence and explore the antigravity and superconducting mechanisms, I believe there will be very significant progress."
This new discovery shocked the physics community.
Many Americen media also reveled in this, because they seem to be lagging behind in the field of research on superconducting mechanisms.
The law of superconductivity was developed by Wang Hao.
Wang's geometry has been widely studied by the mathematics and physics circles, and it is hoped that it can be expanded to a higher level to cover complex element combinations in order to analyze the superconducting mechanism.
This is the main direction of research on superconducting mechanisms, all of which come from Wang Hao, or it can be said that all of them come from the Chinese research team.
The superconducting experimental group at the University of Chicago has made a new discovery, which they may be able to use to catch up with China's research progress.
Research on the mechanism of alternating current gravity combined with superconductivity has become a direction that has attracted worldwide attention.
The new issue of "Science" magazine came out and immediately attracted attention from all over the world. There were even many cross-border discussions, which attracted the attention of ordinary people.
The impact of this discovery is naturally great.
On the second day alone, Zhou Minhua, deputy director of the Bureau of Science and Industry, and Academician Wu Hui of the Superconductivity Office of the Science Foundation called Wang Hao to ask about Wang Hao, and then immediately took a plane to Xihai University.
The Bureau of Science and Industry and the Science Foundation are both the higher-level departments responsible for the exchange of gravity research projects.
Zhou Minhua and Wu Hui are both concerned about the same issue, which is, "Will the new discoveries from the University of Chicago promote American's research on AC gravity and superconducting mechanisms to surpass domestic ones?"
Zhou Minhua was even more anxious. After seeing Wang Hao, she couldn't help but ask, "Professor Wang, will this new discovery allow them to make other new discoveries and surpass us?"
"of course not."
Wang Hao chuckled nonchalantly and said, "Director Zhou, you are too worried."
"Why?"
Wu Hui asked with some confusion, "The material has not yet entered the superconducting state, but a higher AC gravity field strength has been detected. It should be an amazing discovery, right?"
Wang Hao pursed his lips, thought for a moment and said, "If you are still worried, it's very simple."
"In this way, I will write down the ratio of the mixed gas. If you follow the ratio and let other experimental groups do it, you should be able to replicate their experiments."
After he finished speaking, he added, "It's not just a reproduction, it should be a transcendence!"