I can see the commodity price curve

"Okay, I admit you might have some merits in terms of materials."

As Obama spoke, he suddenly raised his chin slightly, his eyes revealing a hint of arrogance:
"But I must say, our beautiful country has the world's most advanced Starlink technology."

In terms of integrated applications in communications and aerospace, it is unmatched by any other country.

Zhang Yue raised an eyebrow: "Starlink technology does have its advanced features. It has brought new changes and convenience to global communications, which we cannot deny."

But this does not mean that other countries cannot achieve anything in this field, nor does it mean that this is an insurmountable benchmark.

Obama spread his hands and shrugged, saying, "But that's just how it is."

Starlink technology currently has significant advantages in terms of coverage and communication speed.

The difficulty for other countries to catch up is self-evident.

Zhang Yue smiled slightly, his gaze steady and confident: "The development of science and technology is like rowing against the current; if you don't advance, you fall behind."

Today, countries around the world are actively investing resources in the research and innovation of aerospace communication technology.

Our country, China, has been exploring a space communication path suitable for its own development and has already achieved some preliminary results.

For example, we have unique advantages and extensive experience in quantum communication technology.

Quantum communication boasts extremely high security and confidentiality, a level of protection that traditional communication technologies struggle to match.

When Zhang Yue mentioned quantum communication, the experts and scholars around him turned their attention to him and began to whisper among themselves.

Obama frowned slightly, clearly not very familiar with the quantum communication technology that Zhang Yue mentioned.

But he still tried to remain calm and said, "Quantum communication? That sounds very mysterious."

But compared to our Starlink technology, what substantial competitive advantage does it offer?

Zhang Yue explained calmly: "Quantum communication and Starlink technology are not mutually exclusive, but rather complementary."

Starlink technology focuses on wide-area coverage and high-speed communication, while quantum communication can provide solid protection in terms of information security.

In the future field of aerospace communications, both security and efficiency are indispensable.

Moreover, China is actively promoting the research and development and deployment of quantum communication satellites.

If successful, this will enable global quantum key distribution, bringing revolutionary changes to global communication security.

At this moment, an aerospace expert from Asia nodded in agreement:
"Mr. Zhang makes a lot of sense. Technological development should be diversified, and different technologies have their unique value and application scenarios."

The United States' Starlink technology and China's quantum communication technology have the potential to become important forces in the future field of aerospace communications.

The discussion continued, with everyone actively participating and exchanging ideas; the atmosphere was generally harmonious.

However, China and the United States frequently target each other.

Finally, the exchange meeting came to an end.

Mr. Li approached Zhang Yue again: "Mr. Zhang, how are you feeling?"

Zhang Yue gently stretched his neck and responded with a smile:

"It was pretty good. Everyone shared their opinions, which sparked a lot of new ideas."

However, it's truly frustrating that Obama from the US keeps harping on Starlink technology.

Mr. Li nodded slightly, a hint of worry in his eyes:
"Yes, it has to be admitted that the United States' Starlink technology has indeed demonstrated its formidable strength at this stage."

It currently has a clear advantage in terms of global communication coverage and real-time data transmission.

It will be quite difficult for us to surpass them completely in a short period of time.

Zhang Yue stopped and looked at the other person with a firm gaze: "Mr. Li, although their Starlink technology is powerful now, it doesn't mean we will always lag behind."

With the rapid development of science and technology, no one can predict what the future will hold.

They once held a lead in certain fields due to their first-mover advantage, but hasn't China, with its unwavering perseverance and innovative spirit, gradually caught up and surpassed them?

Mr. Li was inspired by Zhang Yue's words, and a hint of excitement appeared on his face:
"You're right, China has always had an indomitable spirit in the aerospace field."

From the successful launch of Dongfanghong-1 to the Shenzhou series of manned spaceflights.

From Chang'e lunar exploration to Tianwen Mars exploration, we have made remarkable achievements step by step.

But Starlink technology is a broad field, so how should we start to catch up?

Zhang Yue pondered for a moment and then slowly said, "First of all, we need to increase investment in basic research."

Starlink technology involves a wide range of complex disciplines.

Such as satellite communication technology, orbital resource utilization, space network architecture, etc.

Only by laying a solid foundation can we accumulate strength for future development.

Secondly, in terms of technological innovation, we should encourage researchers to explore boldly and break free from the constraints of traditional thinking.

For example, we can combine the advantages of quantum communication to explore how to deeply integrate it with Starlink technology.

To create a safer and more efficient aerospace communication network.

Finally, in terms of talent cultivation, a comprehensive talent development system must be established.

To attract more outstanding young people to dedicate themselves to the aerospace industry.

After listening, Mr. Li couldn't help but give a thumbs up: "Mr. Zhang, your analysis is very insightful."

It seems that the future of China's aerospace technology is full of hope.

However, your description is too general. Could you be more specific?

Zhang Yue nodded: "It's very simple. At present, the most important thing to realize Starlink technology is to find a new material."

"New material?"

"Yes, the reason why the United States is able to send Starlink into the sky on a large scale is mainly due to their reusable rocket technology."

Especially the technology for reusable large-tonnage rockets.

The United States' large-tonnage rockets mainly rely on high-energy fuel, while the rockets themselves are made of common stainless steel.

"If we can also develop this high-energy fuel, we can also achieve reusable rockets."

"Really?" Mr. Li's eyes lit up. "Then what should we do?"

Zhang Yue said: "I suggest developing superhydrogen fuel."

Currently, traditional hydrogen fuel has limited energy density, but if superhydrogen fuel can be successfully developed, its energy density will be greatly improved, enough to support the launch and recovery of large-tonnage rockets.

We can start with fundamental theories, conduct in-depth research on the reaction characteristics of hydrogen under extreme conditions, and explore new ways to improve its energy release efficiency.

"At the same time, in terms of materials science, we need to develop special containers that can withstand the high temperature and high pressure environment of hydrogen fuel."

This material must not only have extremely high strength and heat resistance, but also good sealing properties to prevent fuel leakage.

In addition, in terms of combustion control technology, the combustion process of superhydrogen fuel needs to be precisely controlled.

To ensure the rocket propulses stably and efficiently during flight.

Mr. Li was thrilled and slapped his thigh: "Mr. Zhang, your thinking is so clear!"

I'll go back and organize manpower to establish a dedicated research and development team to tackle the challenge of superhydrogen fuels.

Upon returning to the research institute, Mr. Li immediately assembled a team of top domestic chemical experts, materials scientists, and aerospace engineers to establish a super hydrogen fuel research and development project team.

At the first project team meeting, Mr. Li said with great enthusiasm:
"Everyone, we are on a great mission this time."

For China's space program to catch up with and surpass the United States, the development of hydrogen fuel is a crucial step.

We must all work together to overcome this difficulty!

Professor Wang, a chemistry expert, adjusted his glasses and said:
"From a chemical perspective, the key to increasing the energy density of hydrogen fuel lies in finding a suitable catalyst to promote a more vigorous reaction of hydrogen under specific conditions."

However, this is extremely difficult, and we need to conduct numerous experiments to screen for suitable catalysts.

Materials scientist Dr. Liu also frowned and said, "That's right, developing container materials that can withstand the ultra-hydrogen fuel environment is also a major challenge."

Current materials are insufficient to meet the requirements, and we may need to develop a completely new composite material, which will require time and extensive testing.

Aerospace engineer Chen added, "Moreover, combustion control technology is also crucial."

If the combustion of the superhydrogen fuel cannot be precisely controlled, the rocket may go out of control during flight, with potentially disastrous consequences.

Mr. Li said firmly, "There are difficulties, but we cannot back down."

The team split up: the chemistry group was responsible for catalyst development, the materials group tackled container material problems, and the aerospace engineering group studied combustion control technology.

We hold a weekly meeting to discuss progress and address any issues promptly.

In the days that followed, the project team members worked day and night in the laboratory.

The chemistry team members conducted catalyst screening experiments again and again, recording every piece of experimental data.

The materials team members experimented with various combinations of materials and tested them under high temperature and high pressure conditions.

The aerospace engineering team members simulated the combustion process of superhydrogen fuel on computers, constantly adjusting the parameters.

However, as time went on, problems gradually emerged.

The chemistry group has hit a bottleneck in catalyst development, having tried hundreds of catalysts without achieving the desired results.

The composite materials developed by the materials team either cracked or had poor sealing performance under high temperature and high pressure.

The aerospace engineering team also encountered difficulties in simulating combustion control technology, as they were unable to precisely control the combustion speed and direction of the superhydrogen fuel.

The atmosphere was particularly oppressive at yet another project team briefing.

Professor Wang shook his head helplessly: "Mr. Li, our chemistry group has done its best."

However, a suitable catalyst has not yet been found.

We might need to change our R&D approach, but that would require starting from scratch, and there might not be enough time.

Dr. Liu, looking exhausted, said, "The situation in our materials group is not optimistic either. It is difficult to develop materials that meet the requirements using existing technologies."

We may need to introduce some new technologies and theories, but this cannot be achieved in a short period of time.

Engineer Chen sighed: "The aerospace engineering team has not been able to effectively solve the problem of combustion control technology either."

The combustion characteristics of superhydrogen fuels are too complex for our existing models to accurately simulate.

Mr. Li remained silent for a long time before finally saying slowly, "Everyone has worked hard during this period."

Although we are currently facing great difficulties, this does not mean we should give up.

However, this superhydrogen fuel research and development project has been temporarily suspended.

We need to learn from our experiences and lessons to prepare for future research.

The project team members silently packed up the experimental equipment, their faces filled with disappointment and resentment.

Mr. Li frowned instantly when he saw the expressions on everyone's faces.

Suddenly, he thought of Zhang Yue and immediately called him.

Zhang Yue's familiar voice came quickly from the other end of the phone: "Mr. Li, is there something you need?"

Mr. Li laid out in detail the current difficulties the project team was facing, from the stagnation in catalyst development by the chemistry group and the substandard composite materials by the materials group, to the combustion control technology challenges by the aerospace engineering group. Finally, with a hint of expectation and pleading, he said:

"Mr. Zhang, you have so many ideas, could you help us think of a solution? It would be such a waste if this project just had to stop like this."

Zhang Yue was silent for a moment on the other end of the phone, then slowly said:
"I have an idea. Why not try conducting experiments at ultra-low temperatures?"

Perhaps the reactivity of hydrogen will change under ultra-low temperature conditions, which could lead us to a new breakthrough.

Mr. Li's eyes lit up; he found the idea novel and quickly said:

"Okay, I'll call a meeting right now to convey your ideas."

After hanging up the phone, Mr. Li quickly gathered the project team members back in the conference room.

After everyone was seated, Mr. Li cleared his throat and said:

"I just spoke with Mr. Zhang Yue on the phone. After listening to our current predicament, he proposed a new idea: to conduct experiments at ultra-low temperatures."

As soon as these words were spoken, the conference room exploded.

Professor Wang from the chemistry group was the first to stand up, frowning as he said, "Mr. Li, this ultra-low temperature experiment doesn't sound very reliable."

Our previous research on catalysts was conducted under normal conditions, but ultra-low temperature environments can alter the molecular structure and activity of substances.

This would make our experimental results unpredictable, and all the experience we've accumulated might be useless. Wouldn't that be a waste of time?

Dr. Liu from the materials group chimed in, "Yes, the composite materials we developed face numerous difficulties in testing under normal conditions."

In ultra-low temperature environments, the physical and chemical properties of materials undergo tremendous changes.

We had absolutely no idea what problems might arise, making the experiment impossible to conduct.

Engineer Chen from the aerospace engineering team also looked worried: "The impact of ultra-low temperatures on combustion control technology is even more difficult to estimate."

Our existing models are all based on conventional environments. At ultra-low temperatures, the combustion characteristics of ultrahydrogen fuel are completely different.

We simply cannot accurately simulate and control it, which would make rocket flight even more dangerous.

Mr. Li was at a loss for words when he saw everyone's strong reaction.

Just then, his phone rang, and he saw that it was Zhang Yue calling.

He quickly answered the phone, said a few words briefly, then put the phone on speakerphone and addressed everyone:
"Mr. Zhang has something to say to everyone."

Zhang Yue's calm voice came from the phone: "Everyone, I understand your concerns."

But the development of technology is about constantly breaking conventions and trying new possibilities.

We've encountered a bottleneck in a conventional environment, so why not try to think about the problem from a different perspective?

While extremely low temperatures bring many uncertainties, they may also conceal new opportunities.

"Take the chemistry group for example, the reactivity of hydrogen may decrease at ultra-low temperatures."

But this doesn't mean we can't find a suitable catalyst.

Conversely, perhaps in the 'cool' environment of ultra-low temperatures, we can observe the reaction process more clearly, thereby finding the key factors to improve energy release efficiency.

"The same applies to the materials group. Although ultra-low temperatures can change the properties of materials, this is a good opportunity for us to develop new composite materials."

Based on the novel properties of materials under ultra-low temperature conditions, we can conduct targeted material design and improvement, and perhaps even develop special materials that meet the requirements.

"As for the aerospace engineering team, the challenges of combustion control technology are indeed thorny."

However, at extremely low temperatures, the combustion rate of superhydrogen fuel may slow down, which actually gives us more time and room for control.

We can rebuild the model and study the combustion characteristics of fuels at ultra-low temperatures in greater depth, thereby achieving precise control over the combustion process.

Zhang Yue paused for a moment, then continued, "Of course, I understand that this approach carries great risk, but if we don't try it, we'll always be stuck in the same place."

The development of China's aerospace industry is precisely due to the spirit of exploration and innovation of generations of scientific researchers.
Everyone might as well treat this experiment as a challenge; you might be surprised by the unexpected results.

The meeting room fell silent as everyone fell into deep thought.

After a while, Professor Wang broke the silence first: "What Mr. Zhang said makes sense."

Although ultra-low temperature experiments are risky, they may indeed open up a new path.

I'm willing to give it a try.

Dr. Liu and Engineer Chen nodded in agreement.
“That’s right, we can’t be intimidated by difficulties. Let’s give it a try as Mr. Zhang suggested.”

Seeing the change in everyone's attitude, Mr. Li smiled with relief.
"Okay, since everyone agrees, let's revise the experimental plan and continue to advance the research and development project of superhydrogen fuel in an ultra-low temperature environment."

I believe that with everyone's joint efforts, we will definitely overcome these difficulties!

The project team acted quickly and redesigned the experimental procedures.

The chemistry group moved the experimental equipment into the ultra-low temperature laboratory and restarted the catalyst screening work in an environment of minus 200 degrees Celsius.

Professor Wang, wearing thick gloves, operated the instrument with complete concentration, his eyes fixed on the data changes on the display screen.

"Xiao Li, record the reaction data of hydrogen at this temperature."

Professor Wang said to his assistant beside him.

Assistant Xiao Li nodded quickly and jotted down notes in his notebook:

"Professor, the data this time seems completely different from the previous normal environment; the reaction speed is significantly slower."

Professor Wang's eyes lit up: "Slowing down is good, we can see more clearly when we slow down."

Continue adjusting the catalyst's composition ratio to see if any new changes occur.

Meanwhile, Dr. Liu from the materials group was also busy in the ultra-low temperature laboratory.

He placed the newly developed composite material sample into a specially designed testing device and then slowly lowered the temperature.

As the temperature dropped, Dr. Liu anxiously observed the changes in the sample.

"Old Zhang, look at this sample. Its toughness seems to have increased under ultra-low temperatures."

Dr. Liu excitedly said to his colleague beside him.

Old Zhang leaned closer for a closer look: "It really is, and the seal looks pretty good too."

However, we still need to increase the stress test to see if it can remain stable under extreme conditions.

Dr. Liu nodded: "Yes, increase the pressure to simulate the high-pressure environment during rocket launch."

As he spoke, he activated the pressure testing device.

On the aerospace engineering side, Engineer Chen led his team to re-establish the combustion model of ultra-low temperature hydrogen fuel.

They kept inputting data and adjusting parameters in front of the computer, their eyes bloodshot.

"Engineer Chen, the combustion process simulated by this model seems to be much more stable than before."

"An engineer said excitedly."

Engineer Chen carefully examined the simulation results on the screen: "Hmm, it has indeed become much more stable."

But this is only a theoretical simulation; we need to conduct a small-scale actual combustion experiment as soon as possible to verify it.

After a period of intensive experimentation, each group achieved some preliminary results.

At yet another project team presentation meeting, everyone eagerly awaited to share their findings.

Professor Wang stood up first and said, "After this period of experiments in an ultra-low temperature environment, we have discovered a new type of catalyst."

With the help of this catalyst, hydrogen can react more stably at ultra-low temperatures.

Moreover, its energy release efficiency is higher than that of all catalysts previously tested under conventional conditions.

A gasp of surprise rippled through the conference room. Mr. Li asked excitedly:

"Professor Wang, can this new catalyst meet the requirements of superhydrogen fuel?"

Professor Wang nodded confidently: "Based on the current experimental data, it has great potential."

However, further optimization and testing are still needed.

Then, Dr. Liu stood up and said, "Our materials group also has good news."

We have developed a new type of composite material in ultra-low temperature environments.

This material is not only extremely strong, but it can also withstand the high temperature and pressure generated by the combustion of superhydrogen fuel.

Moreover, the seal is excellent, so there's absolutely no need to worry about fuel leaks.

"That's fantastic!" Mr. Li couldn't help but applaud. "This provides us with crucial materials for our subsequent container manufacturing."

Finally, Engineer Chen stood up and said, "The small-scale combustion experiment conducted by the aerospace engineering team based on the new combustion model was very successful."

At ultra-low temperatures, the combustion rate of superhydrogen fuel was effectively controlled, and the combustion process was very stable.

We believe that with further optimization of combustion control technology, stable rocket propulsion can be achieved.

After listening to the reports from each group, Mr. Li's face beamed with joy:
"Everyone's hard work over this period has not been in vain!"

Mr. Zhang's suggestion is absolutely feasible.

Unexpectedly, we actually found a way to overcome the difficulties in extremely low temperatures.

At this point, Professor Wang suggested, "Mr. Li, I think our current achievements have met certain conditions."

Could we consider conducting a small-scale rocket launch simulation experiment using our self-developed superhydrogen fuel, novel catalyst, and composite material container to verify the feasibility of the entire system?

Dr. Liu and Engineer Chen nodded in agreement.
"Yes, it's time to conduct a comprehensive experiment so that we can see our results more clearly."

Mr. Li pondered for a moment, then said firmly, "Okay, let's do it this way!"
I will immediately apply to my superiors for experimental facilities and resources so that we can prepare for this small-scale rocket launch simulation experiment as soon as possible.

I believe that with everyone's joint efforts, we will definitely succeed!

In the days that followed, the project team members became even busier.

They worked day and night at the experimental site, conducting final adjustments and checks on the rocket model.

The chemistry team precisely adjusted the proportions of the superhydrogen fuel to ensure optimal combustion under the action of the new catalyst.

The materials team conducted reinforcement and sealing tests on the composite container to ensure that no problems would occur during launch.

The aerospace engineering team repeatedly calibrated the rocket's flight control system and combustion control technology to ensure that the rocket could fly along the predetermined trajectory.

Finally, the day of the experiment arrived.

The experimental site was surrounded by researchers and leaders, all watching the rocket model with tension and anticipation.

As the countdown ended, dazzling flames shot out from the bottom of the rocket, which slowly rose into the air.

"Success! The rocket has launched successfully!" A burst of enthusiastic cheers erupted from the crowd.

Mr. Li was so moved that tears welled up in his eyes, and he tightly grasped Zhang Yue's hand beside him:

"Mr. Zhang, thanks to your advice, we were able to achieve this breakthrough."

The success of this experiment signifies a crucial step forward in our research and development of superhydrogen fuel.

China's hopes of catching up with the United States in space exploration are growing ever stronger! (End of Chapter)