Chapter 411: Discovering Anti-Gravity at Room Temperature, "Groome Lake Project" Determines the Direction!

In one month, Wang Hao led the experimental team of the Materials Research Center to prepare four superconducting materials containing first-order iron.

One of the materials has a critical temperature of up to 176K, which is considered to have certain application value in the future.

Many of the people involved in the research were shocked that the results were so fast that they couldn't understand it.

In fact, Wang Hao's research is not only on 'first-order iron-based superconducting materials', but also on 'first-order iron-based superconducting materials with anti-gravity properties. ’

To put it simply, all four superconducting materials can support the creation of anti-gravity fields.

After completing the research of each material, Wang Hao asked the experimental group to manufacture it on a certain scale and provided it to the antigravity property research center for the anti-gravity characteristics of the material.

In terms of the anti-gravity behavior research center, the person in charge of the inspection of new materials is Sheng Hailiang, the head of the annihilation force field materials group.

Testing has already begun.

The annihilation force field material group has just been formed, and it is not very perfect in many aspects, and He Yi still needs to follow up on the anti-gravity characteristics of the material.

Therefore, the actual persons in charge are He Yi and Sheng Hailiang.

Wang Hao spent a month researching new materials, which was supposed to be a short break, but was called to the research center by He Yi and Sheng Hailiang.

"We've made a big discovery!"

The first thing He Yi said when he saw Wang Hao was excitement and excitement, "It's very amazing." You would never think of it. ”

Wang Hao suddenly became interested and guessed, "It has something to do with the anti-gravity properties of new materials?" ”

"Yes!"

He Yi nodded very seriously, and then explained in one sentence, "We have found new materials that excite the anti-gravity field at room temperature. ”

Although it is a very simple sentence, the news in it is too big.

Normal temperature anti-gravity field!

Wang Hao thought he had heard it wrong, so he immediately asked, "Anti-gravity at room temperature?" When the material is energized at room temperature, the phenomenon of antigravity is discovered? ”

He Yi nodded vigorously, "This is what we just discovered, it is a material codenamed CD101, the critical temperature of superconductivity is 149K, but the anti-gravity characteristics have been detected at room temperature, and the strength is not bad, 0.5 ......percent"

"What is the state of superconductivity?" Wang Hao immediately asked.

"0.7 percent."

He Yi was a little unconfident when he said it, he said a little depressed, "Just like last time, the anti-gravity phenomenon was detected at a very high temperature, and after it was reduced to a critical temperature, the intensity increased very little." ”

His tone was indeed a little depressed, but it was obviously very excited and excited.

In the face of the discovery of the phenomenon of anti-gravity at room temperature, the strength of the anti-gravity excitation excitation by the superconducting state does not seem to matter at all.

Wang Hao nodded thoughtfully.

He naturally knows how important the new discovery is, relying on a completely new metal material to achieve an exciting anti-gravity field at room temperature, and the results will definitely shock the world when they are released.

However, he thinks about the principle behind it.

"The critical temperature is only 149 K, but it can excite anti-gravity characteristics at room temperature, that is, close to 300 K......"

"This shows that in the conductive state, the semi-topology formed inside is very unstable."

"It's because of the first order iron, right?"

“……”

The phenomenon of normal-temperature antigravity in first-order iron-based superconducting materials is indeed a very surprising discovery, but it is not good news for theoretical research.

After Wang Hao found that he had made a new discovery, he was even more unable to use the original research theory to apply the first-order iron element and related materials.

Semi-topological theory, which does not work at all for first-order iron.

Other related theoretical contents cannot be used to study first-order iron at all, and even make first-order iron and the superconducting materials it compose, compared with conventional anti-gravity materials and superconducting materials, show an 'almost irrelevant' property trend.

Wang Hao found experimental data related to anti-gravity materials, and planned to analyze various materials, their behavior and anti-gravity characteristics.

Until now, there have been 14 types of materials that have been identified as having anti-gravity properties.

Three of them are high-voltage hybrid superconducting materials, the rest are metallic superconducting materials, and the fourteen materials can be divided into two categories.

Wang Hao put the materials together to do research, and found that the data was as chaotic as he imagined.

Some of these materials produce anti-gravity field strengths of up to 65%, while others have a maximum strength of 0.75%.

Several materials can also exhibit anti-gravity characteristics when they are above the critical temperature, especially several high-pressure hybrid superconducting materials, when they are above the critical temperature, the strength of the anti-gravity field is higher.

When all the information was put together, Wang Hao just read it hastily, and he felt a lot of headaches.

He found it difficult to find a correlation between the material and the anti-gravity properties.

Later, he simply divided the materials into two categories, one is the first-order iron-based superconducting materials, and the other is the conventional superconducting materials, and the high-pressure hybrid superconducting materials are also classified in the second category.

Comparing the two, I found a little pattern.

"First-order iron, raising the temperature threshold at which the anti-gravity field is excited?"

"At the same time, the anti-gravity field of the first-order iron-based superconducting materials is generally not strong, or is it because the semi-topological structure is unstable?"

"That's why!"

"Can this instability be controlled? In other words, can first-order iron-based superconducting materials solve the problem of breakthrough instability and excite a stronger anti-gravity field......"

The last question is quite important.

If the problem of semi-topological instability can be solved, it will be possible to create a high-strength anti-gravity field at room temperature.

From this, it can be inferred that a 'room temperature high-intensity strong annihilation force field' can be created.

Wang Hao thought about it and found Ding Zhiqiang.

He talked about the problem of first-order iron-based superconducting materials and the strength of the anti-gravity field, and even talked about the new discovery of the 'room temperature anti-gravity field'.

Ding Zhiqiang was naturally extremely surprised.

At the same time, he didn't understand why Mr. Wang Hao would say this to himself, and showed a depressed and painful expression.

Because he doesn't want to know.

There is certainly a certain amount of confidentiality with the results of these studies.

Ding Zhiqiang will also come into contact with the content of confidential results, but most of them are just 'rubbing-edge', with the purpose of understanding the experimental results in order to study theories.

Now it's different.

Wang Hao found him alone and talked about the 'normal temperature antigravity phenomenon of first-order iron-based superconducting materials', shouldn't he study the theory with him?

Why?

"The more you know, the more trouble you have......"

Ding Zhiqiang thought a little distressed, and he was also curious about what Teacher Wang Hao asked him to do.

Wang Hao continued, "I think the specificity of first-order iron makes the semi-topological structure formed inside the conductive state unstable. ”

"Therefore, the anti-gravity effect can be detected at very high temperatures, and at the same time, when the superconducting state is reached, the strength of the anti-gravity field does not increase much."

"So is there a possibility......"

He pondered and continued, "First-order iron is a special element created by the strong annihilation force field, but using the first-order iron to conduct annihilation force field experiments is inherently flawed......

"Or is it some kind of ceiling?"

Ding Zhiqiang immediately reacted, "Teacher Wang, are you talking about a strong annihilation force field?" ”

"I see!"

"First-order iron only shows a stable state because it is in the environment of a conventional annihilation force field, and it is different from the 'first-order iron' formed by the natural development of the universe, so it shows specificity."

"Using a strong annihilation force field to create first-order iron, and then using first-order iron to do annihilation field experiments, will definitely be limited."

"For example, the strength of the upgraded annihilation force field of iron is about 5.8, so the strength of the strong annihilation force field created by using the first-order iron cannot exceed 5.8, right?"

After he finished speaking, he looked at Wang Hao with anticipation.

Wang Hao nodded very hard, "That's right, that's it." Now I'm sure. ”

"So what's next......"

"What's next?"

"Aren't you going to do research?"

"No, it's done, you can go ahead and do your own thing." Wang Hao waved his hand absently, signaling that Ding Zhiqiang could leave.

Ding Zhiqiang walked out of the office full of doubts.

He couldn't figure out what Mr. Wang Hao asked him to do, "Tell me a new experimental discovery and let me reason?" ”

"And then, it's over?"

"Test me?"

"Why?"

On the other side, Wang Hao exhaled lightly, the purpose of his approach to Ding Zhiqiang was to determine his conclusion.

If it was his own conclusion, he could not be sure whether it was correct or not.

When others are guided to think of the same conclusion, the correct thinking will be fed back into the mind, and it will be possible to determine whether the conclusion is correct or not.

There is feedback, and it is naturally correct.

Without feedback, not necessarily.

The conclusion is somewhat regrettable.

The direction of his original plan was to use first-order iron and first-order lithium to create new metal superconducting materials to support the creation of stronger annihilation fields.

Outcome......

It's not feasible!

Both first-order iron and first-order lithium are specific and can increase the temperature threshold achieved by the annihilation field, but the strength of the fabricated annihilation field is also limited.

This conclusion made the previous doubts suddenly clear, and at the same time, it also negated a very important research direction.

"But it's also important that first-order iron raises the temperature threshold."

Wang Hao pondered, "Whether it is an anti-gravity field or a strong annihilation force field, there are still too few international studies. ”

"A lot of basic research has to be started by ourselves, and when we encounter technical bottlenecks, we can't find some materials in other directions."

"If we can lower the threshold for annihilation field research, more institutions will be involved, and when the time comes, there will be a lot of basic results."

"In this direction, it doesn't matter how many institutions are involved."

"Anyway......"

"There is also an upper limit to the strength of the annihilation field created by the first-order iron......"

……

At the same time, on the other side of the globe.

Amriken's first decision-maker signed a key section document.

This document is known as the Lake Groom Plan.

After several rounds of revisions, the Grum Lake Plan was finally reviewed by various departments, and it was decided to allocate funds to support the study of the strong annihilation force field.

However, the total amount of funding is more than double that of the original plan, leaving a total of only $53 billion.

Of course, $53 billion is also very large.

The "Lake Groom Project" was promoted by Duruk-Bent, and it also increased Duruk-Bent's reputation a lot.

The general director of the program is Gamov Shapley.

Gamov-Shapley is a well-known scholar in the field of quantum physics, with high achievements in the research of particle accelerators, and is also the head of Fermilab.

The reason why he became the head of the "Lake Groom Project" is that he overrode the public opinion at the decision-making meeting and called for a new direction for the project to focus on 'metal materials'.

"The International Organization for the Theory of Annihilation, which also uses high-pressure hybrid superconducting materials, is directed to manufacturing complex equipment that costs tens of billions of dollars."

"According to their direction, the speed of research and development of our annihilation force field technology will be greatly limited."

"It's like the previous discussion, within two years, it's better to increase the intensity to 6, and it's still the ideal number."

"In this direction, I dare to say that Wang Hao's team has reached the extreme, and the strength of the annihilation force field they created has reached 8."

"How long will it take us to catch up?"

"As for the other direction, what standardized basic manufacturing is simply a liar's statement, the cost required is too high, and it is not necessarily correct."

"We're going to find a new direction, the best direction!"

"Using metal superconducting materials to create a strong annihilation force field is the best direction, and I believe that Wang Hao's team must also be studying this!"

"We can't afford to be left behind!"

"In a new direction, we have a chance to catch up!"

"What's more, now that there is first-order iron and first-order lithium, the new company of the flower planter will be formed immediately, and they will officially sell it to the outside world."

"Let's study first-order iron and first-order lithium, study this super element, and use the super element to create a stronger annihilation force field, and then we can rely on new technologies to create first-order iron, first-order lithium ......"

"When the time comes, we will be able to break the monopoly of the flower grower!"

"Catch up technologically!"

"We have the best team of scientists in the world, the largest funding and scientific and technological strength to support ......"

Gamov Shapley gave an exciting speech and persuaded most of the academics and policymakers in attendance, including Decision One and Trulk Bent.

Eventually, Gamov Shapley was nominated by several decision-makers and became the general director of the Lake Groom Project.

The Lake Groom Plan was successfully passed.

The next step is to build a large-scale experimental base near Lake Groom, and invite more scholars, institutions, and experimental groups to participate in the plan.

Gamov-Shapley, on the other hand, is thinking about research questions.

After identifying a new direction for 'metallic materials', he focused on the study of higher-order elements, including first-order iron and first-order lithium, and studied the superconducting materials they made.

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Gamov-Shapley and several other leading scholars believe that superconducting materials made from 'superelements' can create a stronger annihilation field.

If it's a regular element......

"That's almost impossible to do!"

"If so, why would the flower grower use high-pressure mixing materials?"

"The super element is the chance to catch up!"

After they determined the main direction, they paid attention to the formation of the new company of the flower family, and contacted the science and technology department in advance, hoping to buy first-order elemental materials in large quantities.