Cold fusion is possible!

This is the announcement made by scientists from the United States, Japan and Germany at the annual meeting of the American Chemical Society on March 23, 2009. They have proved in the laboratory that cold fusion can be achieved.

However, the test results they have obtained at present have certain limitations.

For example, researchers at the naval space and marine warfare forces Systems Command Center in San Diego say the problem is that measuring instruments cannot detect such a small amount of neutrons. In order to sense such a small mass, the United States used a specific plastic detector CR-39. The detector, which consists of an alloy of nickel and gold and is inserted into a mixture of palladium chloride and tritium, can capture and track high-energy neutrons. The researchers said the plastic detector captured many tiny, very close pits, which is conclusive evidence of the existence of neutrons, proving that fusion reactions can occur at room temperature.

Other researchers at the meeting also presented evidence of cold fusion: Antonio Nilo of the Italian National Institute of nuclear physics said he found a lot of heat and nitrogen; Researchers in Hokkaido, Japan, said they also found evidence of massive heat and gamma ray emissions. These researchers are carrying out further exploration, hoping to better understand the cold fusion process and develop commercial applications as soon as possible.

The difference between this meeting and the discovery made by two scientists in 1989 is that the test results they published can be replicated by other scientists. It's just difficult to measure. But it proved feasible.

As for the raw material of cold fusion, heavy water!

Heavy water is a compound of deuterium and oxygen. In appearance, it is similar to ordinary water, but the density is slightly higher, which is 1.1079g cubic centimeter, the freezing point is slightly higher, which is 3.82 ℃, and the boiling point is 101.42 ℃. The reaction rate of heavy water is slower than that of ordinary water. A molecule of heavy water is composed of two heavy hydrogen atoms and one oxygen atom. Its molecular formula is D2O and its relative molecular weight is 20.

Heavy water and ordinary water look very similar. They are odorless and tasteless. Their chemical properties are the same, but some physical properties are different. The density of common water is 1 gcm3, while that of heavy water is 1.056 gcm3; The boiling point of common water is 100 ℃, and that of heavy water is 101.42 ℃; The freezing point of common water is 0 ℃ and that of heavy water is 3.8 ℃. In addition, ordinary water can nourish life and cultivate all things, while heavy water can't make seeds germinate. If people and animals drink heavy water, it will cause death.

Of course, heavy water ice will sink in the water. The manufacturing cost of heavy water is US $1000 per kilogram, but it can generate about 2.9 million kilograms of energy from oil. And will not release any greenhouse gases, no harm to nature. And the extraction is very simple. All countries can extract it. It's just that heavy water can only be used in nuclear reactors. And only in cold fusion can such a large amount of energy be produced.

As for Sumitomo Ning's research team, it is currently trapped in the controllable energy of the neutron impact of cold fusion. In other words, now Japan, the United States and other countries can actually achieve cold nuclear fusion, but can not make its energy explosion completely controllable. This is not really cold fusion.

The key of cold fusion is not only clean, efficient and cheap, but also controllable. At present, it is not completely controllable. Once it breaks out, it will explode instantaneously, instead of letting it dissipate energy slowly at rated power.

Another point is miniaturization.

The biggest difference between hot fusion and cold fusion is size. The key of thermonuclear fusion is Tokamak, a kind of toroidal container which uses magnetic confinement to realize controlled fusion. Its name Tokamak comes from rings, vacuum chambers, magnets and coils. It was first invented in the 1950s by azimovich and others of the Kurchatov Institute in Moscow, the Soviet Union. In the center of the Tokamak is a circular vacuum chamber with coils wrapped around it. When the Tokamak is electrified, a huge spiral magnetic field will be generated inside the Tokamak, which will heat the plasma to a very high temperature to achieve the purpose of nuclear fusion.

As for cold fusion, it can be reduced to the size of a glass bottle. That's what cold fusion means!

In fact, these two aspects are also difficult problems for all scientists in the world.

"I read your test data. You can't reach the critical point of energy response at room temperature. You just need to expand the energy acceleration effect..." it took Nu Wa only 1.3 seconds to read all the research reports from Japan. This made the Japanese side dumbfounded.

"But it's going to take a big accelerator, so it's not cold fusion." Some scientists retort.

"Very simple, you try to make charged particles reach GeV energy level through laser wakefield acceleration technology. According to your data calculation results, we only need to reach the extreme energy to realize cold nuclear fusion at room temperature! And this result, according to my internal simulation, has 90% feasibility! " Nuwa said.

Laser wake acceleration technology! Many Japanese researchers have a bright eye. This seems to work. Try it!

"As for miniaturization, I think we can refer to the cold nuclear fusion prototype in the Hollywood blockbuster Iron Man - ark reactor." Nuwa said.

Ark reactor? Many Japanese researchers are confused. That's a Hollywood blockbuster. Is this feasible?

The ark type reactor is a miniature stepless controllable cold fusion nuclear reactor. The peak power of the technology is 300 million joules per second, and the output can last about 15 minutes; Rated power: 5 million joules per second, continuous output of about 200 million years. The protagonists in the movies and comics use cold fusion reactor to supply energy for the mecha, and provide flight power and photon weapons through the photon release in the fusion reaction.

"Why not? Although it's just a Hollywood blockbuster, it's just a whim, but there's a lot to borrow. Moreover, such miniaturization can be achieved in real cold fusion. " Nu Wa was serious.

Is this really feasible? Japanese researchers are so surprised.

"In this way, you can use laser wakefield acceleration technology to achieve energy level, and I'll analyze the feasibility of ark reactor!" Nu Wa said.

Many researchers nodded instinctively. Under Nu Wa's strong personal ability, the research laboratory began to be dominated by Nu Wa.