Genius of the Rules-Style System

Chapter 1498: 709

That is all there is to it.

Being able to draw some conclusions now is already quite an achievement.

After the test experiments concluded, some teams could return home, but many mathematicians, physicists, and engineers stayed to continue working, some as representatives of their respective teams, others directly hired for long-term work at the experimental base.

Those who were hired were responsible for data work, monitoring tasks, computational-related assignments, or joined the software support team to enhance the performance of the software.

And so on.

A major advantage of launching international projects of such a scale is the ability to retain top talents by offering many premier job positions, which in turn attract top talents to work on a long-term basis.

The next steps involved further analysis of the test data and preparation for the second experiment.

Discussions for the second experiment would begin a month later, transcending the testing phase to become a formal, large-scale experimental endeavor.

To prepare for the first formal experiment, there was much to do, such as upgrading and replacing equipment and cataloging the area surrounding the experimental site.

Additionally, the detection devices placed within the experiment would be more refined, and two more teams would be involved.

And so on.

Currently, the focus was on the research based on the test experiment data because the results of data analysis were not definitive, and errors could emerge during the analysis or even during the data collection phase.

All of the information would be made accessible to all major cooperating institutions, which could view the data on their computers and perform data collection and analysis.

Many scientists were eagerly waiting.

It was the first time data from the material transmission experiment had been made public, and within the data lay numerous pieces of information, some possibly undiscovered, with others containing extremely valuable content.

From these data, they could analyze and identify several things. freewebnøvel.coɱ

These data were like treasures.

Just as with particle collision experiments, the Standard Model of particles was built step by step based on experimental data, and the discovery of new particles also stemmed from data analysis.

As material transmission experiments were a new field of study, there were undoubtedly many avenues of exploration to be pursued.

Their job was to use all means to analyze the data to identify potentially researchable content and then to study it thoroughly.

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From the start of the experiment to the completion of analysis, a total of three weeks elapsed.

Once the various teams had left, the workload became somewhat lighter, and some members of the theoretical group also had more downtime. However, rather than taking time to rest, they were eager to begin another task—researching Space Link Technology in the hopes of constructing a more stable spatial channel.

It was a design task that necessitated a solid theoretical foundation to participate in.

Not just the four individuals from the theory group but also four from the Space Information Technology company team joined the design work.

This included two leading optical experts and two top researchers from the Quantum Physics laboratory of the Science Academy.

Zhao Yi was the core of the research team, and he had first established a basic framework. Based on this framework, the others worked on refining every detail.

It seemed simple to hear, but those who took part knew the complexity involved.

A fully functional space connection structure required two hundred thirty-three points of beam production.

The number two hundred thirty-three was quite peculiar.

It was a prime number.

Having a prime number of beam production points meant that it was impossible to form a perfect closed loop, thereby preventing the channel from sustaining itself indefinitely.

For this reason, whether for space connections or energy transfers, it was impossible to construct a perfect channel, necessitating a continuous supply of energy to maintain the channel over long periods.

Even with an uninterrupted energy supply, the channel was imperfect, with one to six points of deficiency at any given moment.

What they were doing now was trying to perfect it as much as possible. However, perfection did not lie in addressing the missing points, but rather in building pathways for every point where beams occurred, aiming to capture as many points or Voidons as possible within a fixed spatial range.

During the design process, it was crucial not to increase the number of light points because doing so would also mean expanding the coverage of space, which would not enhance stability but might actually destabilize the channel.

A more stable channel required increasing the energy at each beam production point without widening the beams.

This necessitated higher quality materials for the conduits.

The primary method was to establish new branching paths; the connection of beam production points was not simply from one to the next. Some points would link to one point while others connected to several or even dozens of points.

All these connexions were made based on theoretical foundations, and the more branching points connected, the more stable the channel became.

Furthermore, all connexions had to be arranged within a disc, that is, a plane, meaning the piping couldn’t intersect; otherwise, the connexion would fail to construct.

The above were the two main research directions, with others including polishing the light conduits and enhancing the smoothness of the conduits among the technical challenges.