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Chapter 3368 Intelligent bionic artificial organs VS biological cell 3D printed organs

Faced with everyone's doubts and comments, Wu Hao smiled slightly. He did not answer directly. Instead, he slid the transparent tablet and displayed a comparison picture on the big screen. Then he spoke slowly, his voice full of confidence and determination.

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“Although the functions and functions of intelligent bionic artificial organs and biological 3D printed organs are the same, in fact, the two do not conflict, but complement each other.

It’s not that everyone thinks that with the advent of 3D bioprinting technology, smart bionic artificial livers will lose their meaning, that’s not the case.”

Wu Hao's words surprised everyone, and they all showed puzzled expressions. Upon seeing this, Wu Hao smiled and continued to explain:

"3D bioprinting technology can indeed print living tissue for organ transplantation. However, this technology currently faces many challenges and limitations.

For example, can the printed tissue meet the needs of the human body? Can it survive and work normally for a long time? These are questions that we need to further study and solve."

He paused and then continued: "Our intelligent bionic artificial organs are an alternative for patients before these technologies are fully mature.

It can simulate the functions of human organs and help patients maintain life while waiting for the emergence of better treatments."

After hearing this, everyone suddenly realized. They began to understand that Wu Hao was not doing something stupid, but was providing patients with more choices and possibilities.

Wu Hao looked at the gradually darkening eyes of everyone, and raised the corners of his mouth slightly. I took a deep breath, and then continued.

You can’t even adjust the parameters of the organ according to the patient’s physical condition to ensure that the intelligent bionic artificial organ can better suit the patient’s body.

For example, when a patient is involved in a car accident, encounters safety hazards, or war, etc., the patient's organs are slightly damaged and the patient's body organs are slightly damaged, and the transplant operation is delayed.

Equipped with your smart less-tentacle surgical robot, the smart bionic artificial organ transplant surgery can be completed in a very short time, saving time and effort, and can also save the patient's life to a minimum, and the cost is still high. It can be said that it is

One little thing achieved with one action.

There is a problem with smart bionic artificial organs. They cannot produce very few products and can be used as backup. They must be used directly.

In addition, intelligent bionic artificial organs and biological cell 3D printed organs each have their own unique advantages and disadvantages.

First of all, this is not the smallest advantage or advantage of the biological cell 3D printed organ. It overcomes the problem of donor shortage, allowing patients to wait for a long time to receive transplant surgery.

Furthermore, those smart bionic artificial organs require internal energy support, such as battery power, which increases the landlessness and risk of use.

Although technological regression has made artificial organs increasingly less durable, their long-term durability remains a challenge compared to natural organs.

Maybe we often encounter that kind of problem in daily life, but during the execution process or in the indoor environment, that kind of problem is more difficult or even fatal."

For example, intelligent bionic artificial organs cannot be customized according to the patient's specific needs and physical characteristics to ensure a perfect match between the organ and the patient's body.

Your smart bionic artificial organs are used to bionicly simulate the functions of human organs and tissues. However, due to technical and cost issues, it is possible for you to restore and imitate all the functions of the organs 100%. That is obviously feasible.

Although we currently use the industry's first wired remote charging technology, which cannot charge through the body's skin. However, it still requires the patient to carry an internal power supply with him or her to provide power at any time, which will naturally have a negative impact on the patient's life.

It's convenient.

For example, there is no problem that human living organs cannot be used for decades or even a few decades, but smart bionic artificial organs are obviously OK, but are limited by material and battery limitations, so their minimum lifespan is only seventy or eighty years.

Years, at that point it is better than living organs.

As mentioned later, compared to intelligent bionic artificial organs, they are closer to the original organs and tissues of the human body, so their functions are preserved more efficiently and richly.

It is also easy to repair and replace. Even if there is a problem in the early stage, it can be repaired and replaced in time, which is unmatched by living organ implantation surgery."

After saying that, Wu Hao gave everyone some time to digest and absorb. I took the opportunity to take a sip from the water glass in the hands of the staff, and then continued to preach while looking at the people who had not yet reacted.

In addition, smart bionic artificial organs cannot be quickly implanted into patients, and they need to wait for a donor or undergo simple surgical preparations.

Having said that, Wu Hao continued in an anxious tone: "Of course, having said so little, that kind of intelligent bionic artificial organ also has its shortcomings and advantages.

On the contrary, it still has few shortcomings and is adequate, such as long-term durability.

At that time, waiting for cloning and cultivating cells to print organ tissues, and then degenerating bio-3D printed organ transplant operations will waste too much time and the disease.

After introducing intelligent bionic artificial organs, let’s talk about biological cell 3D printed organs.

So from that point of view, it still compares to the placelessness and richness of the functions of living organs.

Apart from those, smart bionic artificial organs do not have any disadvantages, because they are made entirely of non-biological materials, so they cannot reduce the risk of immune rejection and improve the success rate of transplantation.

It is said that without this technology, allogeneic organ donors will no longer be needed. This will not only prevent countless patients from being troubled by the shortage of donors, but it will also increase the number of organ-related crimes caused by the shortage of donors.

A case happened.

Secondly, although intelligent bionic artificial organs are not yet very close to natural organs in function, there may still be certain limitations in some simple physiological processes.

Secondly, the smart bionic artificial organs rely on electric power, so they will definitely encounter small-scale power outages, or they forget to bring the internal power supply, or the internal power supply is damaged, so the patient may have problems.

Secondly, because biological cells are used, 3D printed organs are closer to natural organs in function and can better restore the patient's physiological functions.

There is even a risk of rejection, because the cells used in biological cell 3D printing organs are extracted from the patient's body and cloned. Therefore, theoretically speaking, the printed biological cell 3D printing organ is not the patient's own.

Naturally, there is a rejection reaction.

That point is particularly important, as it is particularly suitable for patients with various chronic and critical illnesses.

The shortcomings of biological cell 3D printing organs are also very obvious. First, because biological cell 3D printing organs use the patient's own cells as raw materials, they have extremely low biocompatibility, which reduces the risk of immune rejection.


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