Philippe Rawrell only talked about the findings they found in the experimental study, and did not elaborate on the details, but it was enough to inspire Wang Hao.

The key to this is that "a high magnetic field affects the anti-gravity field".

This piece of information is sufficient.

A lot of applied science and technology research is like this, just a few words, or talking about some key content, is enough to reveal a lot of valuable information.

Wang Hao has always known that the study of strong annihilation may be related to the problem of magnetic fields, but he doesn't know whether to demonstrate it theoretically or to do some kind of experiment.

The experimental findings illustrated by Philippe Rawrell come just right.

An ultra-high magnetic field is applied to the anti-gravity equipment and the coverage area, because the magnetic field cannot affect the internal operation of the superconducting material due to the particularity of the superconducting state.

The formation of the anti-gravity field is the manifestation of the interaction between the microscopic morphology and the extinguishing force in the superconducting material, and has no correlation with the magnetic field.

However, if a high magnetic field can affect the anti-gravity field, or even cause the field force to be disoriented, then it is not the anti-gravity field that is affected, but the thin layer at the edge of the anti-gravity field.

In other words, the experiments of Philippe Lorrell's team found that there is a strong correlation with the edge effect of superimposed force fields.

"Then the next step is to study the effect of high magnetic fields on the edges of superimposed force fields." Wang Hao found the direction of research, and he couldn't help but smile on his face.

On the stage of the venue.

Philippe Rawrell couldn't help but smile smugly when he looked at the reaction of everyone in the audience, he explained the effect of the high magnetic field on the anti-gravity field, but did not explain the details of the experiment.

It is not a high magnetic field that can shift the anti-gravity field, but it requires some specific conditions and environments.

It's not so easy for other teams to replicate experiments.

If they want to do research together, they have to work with their own team to be able to take the lead in the research.

That's what Philippe Rollell is all about.

This is also very beneficial, because they have not made progress in this direction, and even if their team has been doing research, they will not make progress in a short time.

In this case, it is naturally a good choice to go public and work with other teams to take the lead in the research.

There was a lot of discussion in the audience.

Philip Rollell's published experimental findings are indeed quite astonishing.

Until now, there have been no discoveries that have affected the anti-gravity field, and the new discoveries may mean new research directions, or even entirely new systems, that may help make leaps and bounds in the field of anti-gravity research and fundamental physical theory.

When Philippe Rollell explained the experiment again and walked off the stage with a slight smile, Wang Hao applauded directly and took the initiative to greet him and shake his hand, "Professor Rollell, amazing!"

"Your findings are remarkable, and they may lead to greater breakthroughs in anti-gravity research, as well as new physical theories."

Wang Hao's series of admiration made Rorel smile.

Luo Reer shook hands with Wang Hao, kept saying thank you, and also complimented, "In the direction of anti-gravity research, you are even deeper than us, and your lateral field force technology has already been applied."

He was referring to the anti-gravity maglev train project. This project is also currently located, the only scientific and technological application of anti-gravity technology, and it can even be said that it is a 'mature application,'.

Luo Rell did compliment Wang Hao, but he was affirmed by Wang Hao, and he couldn't help but feel a little proud.

Later, when I shook hands with other people, it was a little awkward in retrospect.

Indeed, Wang Hao affirmed him.

However, they are direct competitors, and what is so great about the compliments of their opponents?

Although he thought so, Luo Rell couldn't help but curl the corners of his mouth, and he knew deep down that he and Wang Hao were indeed incomparable.

……

At noon,

Many people are talking about the effect of high magnetic fields on antigravitational fields.

At the same time, they are also looking forward to Wang Hao's report.

Among them, there are some well-informed people who already know what kind of experimental discoveries Wang Hao wants to publish.

For example, Philippe Rawrell.

He already knew about the magnetization effect of the edge of the superimposed force field on matter, but he didn't pay too much attention to it, he felt that Wang Hao had taken a bad step.

The results of this experiment are not worth the cost of being made public.

The reason is simple, as long as the experimental findings are made public, other teams can easily fork them.

Why collaborate when other teams can replicate experiments and do their own research?

Most of the teams didn't know about the experimental findings that Wang Hao was going to make public, and they were all looking forward to it.

At half past one in the afternoon, the meeting resumed.

In the expectation of many people, Wang Hao stood up, and he also invited Lin Wenji, "Professor Lin, let's go up together."

"Good!"

Lin Wenji immediately stood up excitedly.

People who don't know the news are a little unclear, so they don't understand why Wang Hao wants to make a report, why he still pulls Lin Wenji together.

The two teams don't have anything to do with each other, right?

Wang Hao and Lin Wenji walked onto the stage together, with a light smile on his face, and said, "This experimental discovery does not belong exclusively to the Anti-Gravity Sex Research Center."

"Although it was later than ours, Professor Lin's team also made the same discovery, so I decided to make the experiment public with Professor Lin."

"Now, Professor Lin Wenji, let's announce the news!"

Wang Hao gave Lin Wenji a lot of face and asked Lin Wenji to make the new discovery public, mainly because he came to make the news public, and Lin Wenji might not have a chance to speak.

Lin Wenji looked at Wang Hao with gratitude, and then said with excitement, "When my team was studying the superposition force field, they found that the metal substance will have a short magnetization reaction through the edge of the superimposed force field."

"I'm pretty sure this is an amazing discovery, but I didn't expect Professor Wang Hao's team to make the same discovery."

He was indeed full of gratitude.

In general experimental research, the first discovery is called a new discovery, and the honor only belongs to the team that made the first discovery.

The second team or individual who discovers will not receive any credit.

Now Wang Hao is pulling him on stage together, which is equivalent to sharing the honor with him, which is really touching.

Wang Hao didn't care at all, and pulled Lin Wenji to disclose the news together, which was also something that was thought out in advance.

One is to show that it is not greedy for results.

On the other hand, Lin Wenji's team is from Ameriken, and sharing the honor of the past that does not affect it at all is also showing the sincerity of cooperation to other teams.

After Lin Wenji finished talking about the experimental findings, Wang Hao added, "In fact, it is not only metal substances that exhibit magnetization reactions, many other materials can also exhibit, but the magnetization reactions exhibit are weak."

Everyone else understands this sentence.

Lam's team only detected magnetization of metallic substances because their experimental techniques were insufficient.

Wang's research team was able to create a higher anti-gravity field, and the higher the strength of the superimposed force field, the higher the strength of the field, so that other materials could also exhibit magnetization reactions.

Many of the teams in the audience also pondered that the magnetization reaction of matter caused by the edge of the superimposed position was different from the anti-gravity field offset that Philip Rawrell had revealed about the influence of high magnetic fields.

The latter, it is certainly not easy to reproduce.

The former is much easier to reproduce, and even says that as long as a superimposed force field of sufficient strength is created, the experiment will definitely be reproduced.

The vast majority of the anti-gravity techniques mastered by the teams present were no worse than those of Lin Wenji's team, and they could easily do it.

Many of them thought they would have to give it a try when they went back.

Hao

"We have been working in this direction for a long time and have already achieved certain results," he continued.

"We've even perfected the basic theories."

This statement surprised many people in the audience.

Wang Hao didn't care about the reactions of other people, but continued, "Next, I will demonstrate the principle of the magnetization reaction of matter caused by the edge of the superimposed force field."

Many people took a deep breath when they heard this.

If it were merely a public experimental discovery, they could consider it to be a serendipitous discovery in the course of the research.

Now that Wang Hao has directly explained that the basic principle should be disclosed, the situation is completely different, and it must have been studied in depth for a long time.

However, here's the problem.

Now that we have figured out the basic theory and just released the results, why do we need to talk about collaborative research?

Wang Hao began to explain, "The most basic reason for the magnetization of matter is that the atoms are subjected to higher annihilation forces, resulting in a series of reactions. The electrons are squeezed and jumped."

He drew a figure of an atom on the board with a few small black dots next to it, which represented electrons.

"When subjected to higher annihilation forces, atoms tend to form more stable forms."

"The force between the nucleus and the electrons increases, which causes the electrons to jump inward......

"The electron jump does not cause a magnetization reaction, but when the strong annihilation force disappears and returns to the strength that appears to the source, the electron will rotate directionally......

"It's this process that magnetizes the substance."

"There is also an upper limit to the magnetization reaction, which is mainly affected by the orbital of the electrons, jumping, not translation......

The rest of the study illustrates that there is an upper limit to the magnetization of substances.

For example, if a substance is subjected to an annihilation force of strength 5, the magnetization reaction that occurs is the same as that of a magnetization reaction that occurs when it is subjected to an intensity of 6.

However, when the intensity of the annihilation force exceeds an upper limit, the magnetization reaction of the substance will make the next jump, perhaps several times at once.

"The strength of the magnetization reaction that occurs in any substance under the action of strong annihilation is not continuous."

"We can understand it as jumping into a wave."

"Some areas will gradually increase, some areas will be empty, and some areas will be fixed."

"It has to do with the atomic composition and electron distribution of the material base."

After explaining the basic theory, Wang Hao gave everyone a period of time to digest and answered a few questions.

He then moved on to the main content, "Therefore, research requires a lot of experiments, a lot of data, and special experimental studies must be done for the magnetization reactions of many substances, which have superimposed force field effects of different intensities."

"When you have enough data, you can analyze it."

"This is essential for the analysis of the role of matter by the force of annihilation."

When Wang Hao was talking seriously, many teams in the audience had already reacted.

The edge effect of the superimposed force field, to some extent, can be understood as the effect of the strong annihilation force on matter.

This kind of research definitely requires a lot of data.

If you can participate in collaborative research and view and analyze the data for the first time, you will definitely get a lot of results from the data.

Just like particle collision experiments, if you get first-hand data and analyze data first-hand, you can easily get a lot of results and publish a lot of influential papers.

This is also the reason why particle collision experiments attract many physicists to participate.

Although the data of the particle collision experiment is also open to the public, it is only open to the participants, and no one else has the right to view it.

Even if others can view the data in the future, it is difficult to analyze new content because the relevant data has been analyzed several times.

The current research is not a large-scale particle collision experiment, and they don't need to go to the experimental site to participate in the research, and they don't need to

It takes a lot of money to just do the same experiments and share the data with each other, and it can be said that there is no harm in participating.

Many team leaders and representatives can't wait.

Wang Hao not only disclosed a result, but also helped them find a research direction that would definitely have results.

……

Wang Hao's report can be said to be a great success.

After the presentation, many team leaders immediately said that they would participate in collaborative research on the edge effect of superimposed force fields.

They then began to discuss ways to work together, including building a platform for sharing data, including the distribution of experimental content.

Because of the high demand for experimental data, and considering the different technical levels of each research team, the allocation of experimental work is also a headache.

This aspect needs to be discussed in detail.

Regardless, the other teams were sure to participate in the collaborative research, and the conference was a great success.

Wang Hao's harvest is also very large, his main purpose is to involve other teams in collaborative research, which will speed up the research and obtain a large amount of data.

This purpose has been achieved.

In addition, it was Philip Rawrell's news about the impact of high magnetic fields on anti-gravity fields, which brought inspiration.

Wang Hao also found the next research direction.

The other teams also gained a lot, they got the information of two blockbuster experiments, and decided to participate in one collaborative research that will definitely produce results in the future.

The experimental findings of Philippe Rawrell's team also aroused the interest of other teams, but they were only interested.

Because they know that forking experiments is not an easy thing to do.

If you want to be really involved in the research, you have to work with the Lorel team, but it is simply impossible to get the Lorel team to share the details of the experiment for free.

When the time comes, there will be a price to pay.

In contrast, participating in the collaborative research proposed by Wang Hao not only does not require anything to pay, but also will definitely have results, and anyone knows how to choose.

Philippe Rawrell has become less appealing.

The only one who didn't get anything out of the whole meeting was Philippe Rawrell, as no other team explicitly offered to participate in their research.

In addition, Wang Hao and Lin Wenji announced the magnetization effect of the edge of the superimposed force field on matter, which he knew before he came to the conference.

In the end, Philippe Rawrell had to make it clear that he would be involved in collaborative research.

He didn't have a choice.

When other teams are involved in collaborative research, only their team will be left behind if they are not involved.

Philip Rawrell could only sigh bitterly in the end, "I'm still not ready! ＂

"If we can also develop the basic theory and find the right research direction, we can call on other teams to participate in the ......

"However, finding the right direction and even understanding the basic theory is not something I can do!"

Philip Rawrell is still self-aware, he is a standard experimental physicist, and theoretical research related to antigravity requires scholars of annihilation theory, and at least experts in quantum physics.

He can't do it.

A week later.

The main issue of the journal Nature published two news reports on anti-gravity research.

The first piece of news is that "the Anti-Gravity Behavior Research Center of the Flower Planter and the National Laboratory for High Magnetic Physics have jointly released new progress in anti-gravity research."

"In the study of the superposition of the force field of antigravity, both experimental teams found that the edge of the superimposed force field causes the magnetization reaction of matter......

"In this regard, Professor Wang Hao analyzed the theoretical mechanism and believed that the edge of the superimposed force field is related to the strong annihilation force......

The second message was that "the first international anti-gravity conference was held in the city of Zhihuajiajin, and representatives of 18 international anti-gravity research teams participated in the meeting, and it was decided to work together to study the effects of strong annihilation on matter......

Underneath the news flash, there are also some interviews with the head of the anti-gravity team.

Wang Hao: "Strong annihilation represents a new direction in physics. The study of the strong annihilation force field will make a qualitative leap forward in human technology......

Lin Wenji: "The edge effect of the superimposed force field is directly related to the strong annihilation force. In the new field of physics, we will conduct joint research and greatly accelerate the understanding of new physics."

Polden: "Strong annihilation represents a new direction in physics, and we're looking forward to it..."

Ben Zack: "I never thought that anti-gravity technology could be done together, but for a whole new physics......

Florida State University, Building 3, 2nd floor classroom.

Parsons is taking a public lecture on the theory of annihilation, and he is still the same as before, and after the basic explanation is completed, he proclaims his theory, "Dark matter is the basis of the existence of matter."

"Dark matter is directly related to the Higgs field, and our subsequent research needs to explore the relationship between the Higgs force field and dark matter."

"In this way, annihilation theory can be linked to quantum physics, providing stronger support for the Standard Model of particles......

In the middle of the explanation, a student raised his hand and asked, "Professor Parsons, what do you think of Wang Hao's theory of strong annihilation?"

Parsons immediately shook his head,

"It doesn't make sense at all. I admit that Wang Hao's theory that the strong annihilation force affects the behavior of particles can indeed complement the role of dark matter in astrophysics, but the strong annihilation force is only a hypothesis after all."

"I'm pretty sure that the power of annihilation doesn't exist!"

His voice was sonorous and powerful, showing a very strong confidence in his heart, but he found that many students were talking and looking at him with strange eyes.

Parsons understood.

That kind of look is not just questioning, it can even be said to be 'mockery, it has the meaning of a joke.

Parsons was a little confused until a student showed him a report.

That's the new issue of the journal Nature, which says that 18 international anti-gravity experimental teams are involved in the collaborative research on the edge effect of superimposed force fields.

Importantly......

Many top physicists have come forward to affirm that the edge effect of the superimposed force field is directly related to the strong annihilation force.

Does the strong annihilation force exist?

Many top experimental teams in the world have begun to study the strong annihilation force through experiments, and they even say that the strong annihilation force does not exist?

There is no doubt at all as to who the students will believe.

Paraxton panicked.

Faced with the mocking eyes, he stood on the podium at a loss, and simply left directly with the book.

The classroom was filled with a hot discussion, "His research is really wrong!"

"I've always believed in Wang Hao, don't believe him, at his level, still fight with Wang Hao in the ring?"

"I've heard for a long time that the reason why a lot of people support him is only because he's from Amriken, not because he's good at research."

"Last time, Professor Lin Wenji said that he was a liar, and the research was all pieced together."

"I guess a lot of top academics can see that they just don't want to pay attention......