Chapter 1430 Researching Dragon Balls

However, for those who know Tony Stark, this device means endless possibilities and power.

Justin Hammer only noticed the device on Ivan Vanko's chest at this time.

He recognized this thing. Isn't it the arc-shaped arc reactor that Tony Stark showed off?

The magical device that can provide unlimited energy for the iron suit?

A hint of surprise and greed flashed in his eyes.

"What do you want?"

Justin Hammer asked hurriedly, his voice trembling with excitement.

He knew that he might be about to get a chance to change his destiny, a chance to surpass Tony Stark.

Ivan Vanko looked at Justin Hammer's eager eyes, which was exactly what he needed. He needed a stupid and greedy partner to carry out his revenge plan.

"I want you to provide funds and resources," Ivan Vanko said, "as well as a legal identity and laboratory. I need these to perfect my power armor technology and ensure that it can exert its maximum power."

Justin Hammer listened to Ivan Vanko's conditions and calculated the gains and losses in his heart.

He knew that these conditions were not harsh, and could even be said to be reasonable.

Moreover, once he obtained the power armor technology, he would be able to surpass Tony Stark and become the overlord of the weapons industry.

"No problem!" Justin Hammer agreed without hesitation, "I can provide everything you need! As long as you can help me make power armor!"

Ivan Vanko looked at Justin Hammer's excited eyes and couldn't help but sneer in his heart.

He knew that this stupid guy had completely fallen into his trap.

Now, he only needs to wait for the right time to implement his revenge plan.

Hammer Industries, a name that is often overshadowed by the brilliance of Stark Industries and Ares Industries in the public eye, actually occupies a pivotal position in the American military industry.

Although its performance in the original plot is a bit funny, as if it is a clown-like existence, but peeling off this layer of playful coat, Hammer Industries not only has a deep foundation, but is also a leader in the field of light weapons manufacturing in the world, and has also demonstrated extraordinary strength in some high-tech fields.

Although Hammer Industries' product line is mainly light weapons, such as pistols, rifles, machine guns and various types of ammunition, its research and development of small missile systems should not be underestimated.

Although these missile systems are not as shocking as heavy strategic weapons, they play a vital role at the tactical level, especially in urban warfare, counter-terrorism operations and rapid response forces. Hammer's small missiles have won wide acclaim for their high accuracy and easy portability.

However, the real strength of Hammer Industries is far more than that.

Walking into its highly confidential R&D center, you will find that it is home to a variety of cutting-edge scientific instruments, like a miniature scientific research palace.

Mass spectrometers, a precision device used to analyze the composition and structure of substances, can be seen everywhere in Hammer Industries' laboratories.

Quadrupole mass spectrometers, with their high sensitivity and high resolution, have become the first choice for analyzing trace components in complex mixtures.

Time-of-flight mass spectrometers are unique in the field of rapid detection with their ultra-fast analysis speed; and ion trap mass spectrometers, with their ability to capture and maintain ions for a long time, provide the possibility for in-depth research on the chemical properties of substances.

Hammer Industries is also fully equipped with spectrometers.

UV-visible spectrophotometers can quantitatively analyze the chemical composition of samples by measuring the absorption or reflection of ultraviolet and visible light by substances.

Fourier transform infrared spectrometers (FTIR) use the absorption characteristics of infrared light by substances to reveal their molecular structure and chemical bond information. They are indispensable analytical tools in the fields of materials science, chemistry, biology, etc.

X-ray fluorescence spectrometers (XRF) can non-destructively analyze the elemental composition of solid samples and are widely used in environmental monitoring, archaeological research, and art identification.

Chromatographs, as a powerful tool for separating and analyzing complex mixtures, are also widely used in Hammer Industries.

Liquid chromatographs (LC) and gas chromatographs (GC) are suitable for the separation and analysis of compounds with different polarities and boiling point ranges, respectively.

Their combined technologies, such as liquid chromatography-mass spectrometry (LC-MS) and gas chromatography-mass spectrometry (GC-MS), have maximized the ability of separation and identification, and can provide structural information and quantitative data of compounds at the same time. They are key technologies in many fields such as drug development, environmental monitoring, and food safety.

Electron microscopes, as a window to explore the microscopic world, are also not absent from Hammer Industries.

Scanning electron microscopes (SEMs) have become an ideal tool for observing the surface morphology of materials and analyzing element distribution with their high resolution and large depth of field; transmission electron microscopes (TEMs) can penetrate thinner samples and directly observe the atomic arrangement inside them. They are an important means of studying the microstructure of materials, crystal defects, and the performance of nanomaterials.

Under the operation of Ivan Vanko, the crystal structure of Dragon Ball was first analyzed using an X-ray diffractometer (XRD).

No mistakes, one post, one content, one look!

The working principle of XRD technology is based on Bragg's law, that is, when X-rays are incident on the surface of a crystal at a specific angle, they will be scattered by the atomic layers inside the crystal to form a specific diffraction pattern.

These patterns are as unique as fingerprints and can reveal the internal structure of the crystal, including the size and shape of the unit cell and the relative position of atoms.

This is crucial to understanding the physical nature of the seemingly supernatural object Dragon Ball.

Ivan used advanced XRD equipment to scan the Dragon Ball from multiple angles and with high precision, collecting a large amount of diffraction data.

Through complex algorithm processing, these data were converted into a three-dimensional crystal model, revealing that there is an unprecedented lattice arrangement inside the Dragon Ball, which is far more complex than any mineral naturally formed on Earth.

This extremely complex crystal structure not only challenges the existing knowledge of materials science, but also provides strong evidence for the alien origin of Dragon Ball.

Ivan realized that if Dragon Ball is really the product of an alien civilization, then its crystal structure may contain knowledge and technology beyond human current technology.

This possibility inspired his enthusiasm for further exploration, and also made him full of expectations for the secrets that may be hidden behind Dragon Ball.

Of course, there is also a possibility that it is from Earth but is man-made.

However, this possibility is too low.

Because it means that the technological ability of the person who made Dragon Ball surpasses the entire world.