Gas entering the brain, samadhi, and functions

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Why does the calculation of uniform acceleration motion need to be integrated over time in order to have correct results?
Mathematics research, do mathematical theories have clear explanations?
If the object is not moving with a constant velocity, time and velocity are both variables. Is there any theoretical principle explanation for the mathematical study of time integration or velocity integration?
Of course, what is the specific calculation method? Do mathematicians and mathematics professors know?
There are no specific calculation methods and theoretical explanations in mathematics books.

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Newton only discovered the connection and associated the falling objects with gravity.
Although physics also has the invention and application of experimental calculation formulas for gravity acceleration, it is an advancement in human science.
But why does Newtonian physics research no longer delve deeper into gravity or what is the substance that produces gravity?
Of course, the material that produces gravity is definitely not a macroscopically visible object.
It must be some kind of microscopic moving substance
Has anyone in human science discovered and established relevant scientific theories so far?
For example, why can't great scientific figures like Einstein, who have the ability to connect thoughts, logical connections and associations that only a few humans have, fail to make discoveries?

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Of course, the cow's ability to connect the falling objects with force or gravity also shows that Newton has the logical ability to study complex connections and associations in science that most humans do not have.

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Physiological research clearly knows that there is a type of protein that can play an energy substitution role in the synthesis or decomposition of molecules in the human body.
But why can't these researchers achieve the level of understanding that the active structure of the protein they talked about and the structure they found and believed to produce activity in the protein are actually a kind of energy or a structure that produces energy?
Of course, to generate energy, you must absorb energy.
As for what kind of energy is absorbed by the active structure of protein molecules, human science cannot further study it in depth.
Why doesn't physics study the differences in the structures of atomic orbitals in the active structure of protein molecules?

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The research and discovery of the physiological system of meridians are three parts in one. Isn’t it the research discovery of important human physiological structures and important physiological substances equivalent to the Physiology Award and the Nobel Prize in Medicine?
1 The double-layer space of the skin muscle cell membrane is the structure of the meridians and is the space where gas enters and flows.
2. The conformational gate of a protein molecule on the surface of skin muscle cell membrane is a gate for gas to enter the double-layer membrane of meridian cells.
This is also a structural part of the meridians and acupoints.
3. The gas C2H4N2O is the part of the physiological substance that the meridians actually produce specific physiological functions.
4 Gas C2H4N2O plays the first step in activating pathological signals in many pathological reactions in the human body.
5 Gas C2H4N2O can also play a role in the receptor structure and conformation of symptoms such as acupuncture treatment and recovery of symptoms.
The role of 6 gas C2H4N2O in the special functions of the human body is certainly not something that can be studied in physiology.

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In addition to having application value, can these mathematics and physics, which do not understand the principles and theories involved, be regarded as real science?

Without in-depth study of their principles and theories, can human science make real progress?
Indeed, as some people say, the research on human scientific principles and theories stops at the level of classical physics research, and after that it is just about research and invention of some technologies.

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When repairing the protein gas conformation gate on the surface of the meridian cells, you can feel or be affected by the attraction when using functional gas to attract the cosmic particles in the atomic orbits of the protein molecules. This is exactly the same feeling as the attraction generated by magnetic force, such as the mutual attraction of two magnets.

However, functional Qi does not attract magnetic substances such as iron substances.

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sodium potassium pump
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It is actually Na+-K+ATPase, which is generally considered to be a tetramer composed of 2 large subunits and 2 small subunits. Na+-K+ATPase undergoes conformational changes through the phosphorylation and dephosphorylation processes, resulting in changes in the affinity to Na+ and K+. On the inside of the membrane, Na+ binds to the enzyme, activating the ATPase activity and decomposing ATP. The enzyme is phosphorylated and its conformation changes, so the site that binds to Na+ shifts to the outside of the membrane. This phosphorylated enzyme has a low affinity for Na+ and a high affinity for K+, so it releases Na+ on the outside of the membrane and binds to K+. After K+ binds to the phosphorylase, it causes the enzyme to dephosphorylate, and the enzyme's conformation returns to its original state, so the site that binds to K+ turns to the inside of the membrane, and the affinity of K+ to the enzyme decreases, causing K+ to be released in the membrane and bind to Na+. The overall result is that one ATP is consumed per cycle; three Na+ are transported out and two K+ are transported in.

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Transmembrane Proteins: The "Gatekeepers" and "Signal Soldiers" on Cell Membranes
Transmembrane proteins (TPs) are key molecules on cell membranes. They are responsible for substance transport, signal transduction, and cell recognition, account for more than 60% of drug targets, and open up new avenues for disease treatment.
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Structure and Function of Transmembrane Proteins
Transmembrane proteins (TPs) are a class of proteins widely present in organisms that can span cell membranes one or more times. They play a crucial role in the structure and function of cell membranes and are key molecules for substance transport, signal transduction, and cell recognition between the inside and outside of cells.
Transmembrane proteins typically consist of a hydrophobic transmembrane domain and hydrophilic intracellular and extracellular domains. The transmembrane domain is composed of hydrophobic amino acids and usually forms an α-helical structure to stably embed in the phospholipid bilayer. According to the number and arrangement of transmembrane domains, transmembrane proteins can be divided into single-pass transmembrane proteins and multi-pass transmembrane proteins. For example, G protein-coupled receptors (GPCRs) are typical multi-pass transmembrane proteins, which play an important role in cellular signal transduction.
Notes on Translation:
Term Consistency: Core terms follow biological academic conventions—"跨膜蛋白" is uniformly translated as "transmembrane proteins" with the standard abbreviation "TPs" retained for conciseness; "G 蛋白偶聯(lián)受體" adopts the internationally recognized "G protein-coupled receptors (GPCRs)" to ensure professionalism and readability in academic contexts.
Metaphor Preservation: The vivid metaphors "守門人" (gatekeepers) and "信號(hào)兵" (signal soldiers) are retained to convey the functional characteristics of transmembrane proteins (controlling substance entry/exit and transmitting signals) in an intuitive way, avoiding the loss of expressive force caused by overly literal translation.
Functional Accuracy: Phrases such as "物質(zhì)運(yùn)輸" (substance transport), "信號(hào)轉(zhuǎn)導(dǎo)" (signal transduction), "磷脂雙層" (phospholipid bilayer), and "α 螺旋結(jié)構(gòu)" (α-helical structure) use standard biological terminology, ensuring no ambiguity in describing molecular structures and physiological functions.
Sentence Fluency: Complex Chinese sentences (e.g., the first sentence listing multiple functions of transmembrane proteins) are split into logically coherent English clauses, maintaining the original information integrity while conforming to English syntactic habits (e.g., using "and" to connect parallel functions instead of rigidly following Chinese sentence structure).

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They are all muddled and can't really explain it clearly!