Application of Cosmic Holography

Bohm is not the only researcher who thinks that the universe is a holographic illusion. In the field of brain research, Karl Pribram, a neuroscientist at Stanford University, also independently believes in the holographic nature of reality. Pribram studied how the brain stores memories, so he was attracted by the holographic structural model. In recent decades, many studies have shown that memory storage is not limited to a specific area, but scattered throughout the brain.

In a series of historical experiments in1920s, brain scientist karl lashley found that no matter which part of the mouse brain was removed, it would not affect its memory, and it could still show the complex skills it had learned before the operation. The only problem is that no one can come up with a theory to explain this strange memory storage nature of "the whole exists in every part"

Then in the1960s, Pribram came into contact with the concept of holography until he found the explanation that brain neuroscientists have been looking for. Pribram believes that memory is not recorded in brain nerve cells or a group of cells, but in the pattern of nerve impulses across the whole brain, just like the pattern of laser diffraction all over holographic negatives.

In other words, Pribram believes that the mind itself is a hologram.

Pribram's theory also explains how the human brain can store so many memories in such a small space. It is estimated that in a person's life, the human brain can remember about10 billion bits of data.

Similarly, in addition to other functions, holography also has amazing data storage capacity-as long as the angles of two lasers are changed, many different images can be recorded on the same negative. It has been proved that a negative film of 1 cubic centimeter can store10 billion bits of data (about 5 sets of Encyclopedia Britannica). If we operate the brain according to the principle of holography, we can better understand people's special abilities and the ability to quickly retrieve any information we need from that huge memory warehouse.

If a friend asks you to tell him what you think when he says the word "zebra". You don't need to search some huge brain alphabet files to get the answer. On the contrary, some associations, such as "stripes", "horses" and "African wildlife" will immediately jump into your mind.

Indeed, one of the most striking features of human thinking process is that every piece of information seems to be interrelated with all other materials-another basic feature of holographic illusion. Because each part of holographic illusion is interrelated with other parts, this may be the ultimate example of natural interaction system. Inspired by Pribram's holographic brain model, memory storage is not only the only slightly solved mystery in brain science. Another puzzle is how the brain interprets a large number of fluctuations (light waves, sound waves, etc.). ) It is obtained from the senses, making it a concrete world that people perceive.

Recording and interpreting fluctuations is exactly what holography is good at. Just like holography is like a lens, a translation tool, which can transform obviously meaningless fluctuation patterns into coherent images. Pribram believes that the brain also has a lens, which uses the holographic principle to digitally transform the fluctuations received through the senses into the world perceived by people. There is a lot of evidence that the brain works through the holographic principle. In fact, Pribram's theory has been supported by more and more neuroscientists. Hugo Zucarelli, an Italian brain researcher from Argentina, recently applied the holographic model to the auditory world. What puzzles him is that even if only one ear has hearing, the human brain can detect the source direction of sound without turning its head.

Zucarelli found that the holographic principle can explain this ability. Zucarelli also developed holographic sound technology, which is a recording technology that can reproduce sound phenomena almost truly. Pribram believes that our brains have established a "hard" reality in mathematics based on the input of external fluctuations. This idea is also supported by many experiments. Experiments show that human senses are far more sensitive to fluctuations than previously thought.

For example, researchers found that people's vision is also sensitive to sound waves, and their sense of smell is related to the fluctuation currently called oamic, and even cells in the human body are sensitive to a wide range of fluctuations. This discovery leads people to infer that only in the field of holographic perception can this fluctuation be classified as normal perception.