In the development of modern medicine, before the macroscopic laws of human physiology and pathology were discovered, it encountered the high-tech and microscopic world of molecular biology and plunged into it. This led to its development falling into the "trap of the microscopic world," where nothing is scientific without molecular biology, seeing the trees but not the forest, treating symptoms but not the root causes. This is actually forcing growth and is a tragedy for a discipline, as I will explain in detail.
Before the Industrial Revolution, without the aid of computers and modern high-tech, scholars relied mainly on rudimentary equipment and observations with their eyes and ears, conducting experiments by hand and recording with pen and paper. They used their brains to deduce information collected, arriving at simple conclusions and laws. For example, Newton's laws in classical physics and Mendel's laws in classical biology were developed and accumulated over several generations of research. These are called laws because they are unbreakable and remain true no matter how many times they are verified.
The characteristic of these classical disciplines is that they are macroscopic. Their applicable scale is the macroscopic world visible to the naked eye. Without needing to know the deep structure or detailed composition of the subject of study, macroscopic laws can be deduced from macroscopic characteristics. For example, when Mendel's laws were proposed, DNA was not yet known, but this did not hinder people from using Mendel's laws for selective breeding to improve the quality and yield of agricultural products. The application of Newtonian mechanics is not limited by the material or structure of objects; it can be universally applied in engineering, machinery, architecture, and astronomical research.After the Industrial Revolution, with the invention of many new technologies, the means by which humans observe the world have broadened. For instance, high-powered telescopes can observe more distant stars, and electron microscopes can see deeper structures of matter. Many scientific experiments that were previously difficult to conduct have become possible due to technological advancements, leading to the discovery of new phenomena that classical disciplines could not explain. This gave birth to many new disciplines, such as quantum mechanics, relativity, and genetics.
Physics | Biology | Characteristics | |
---|---|---|---|
Classical | Newtonian Mechanics | Mendel's Laws | Using rudimentary tools to observe and study objects, deducing universal patterns and principles. These are mature disciplines that, even after hundreds or thousands of years, are still widely applied today. |
↓ After the intervention of new technologies and tools ↓ | |||
Modern | Quantum Mechanics Relativity | Genetics Epigenetics | On the foundation of classical disciplines, more detailed or far-reaching exploration of phenomena is conducted using high-tech tools, discovering new laws and principles applicable to specific domains. |
New disciplines do not replace old ones; rather, the former can expand the application scope, depth, and breadth of the latter. For example, the theory of relativity explains mechanical phenomena more accurately than Newtonian mechanics, especially when the speed of the object under study approaches the speed of light. However, for general applications, Newtonian mechanics is sufficient. Even today, various engineering, architectural, and mechanical calculations still use Newtonian mechanics. But in the realm approaching the speed of light, relativity must be used; and at the microscopic level of atoms and molecules, Newtonian mechanics is no longer applicable, and quantum mechanics must be used. Even though it is now known that the primary factor of heredity lies in DNA, and DNA can be arbitrarily cut and recombined, it is still safer to use Mendel's laws for agricultural breeding.
Every law has its applicable scale and domain. For example, Newtonian mechanics only applies to the macroscopic world visible to the naked eye and fails at the microscopic particle level.
The situation of modern medicine is quite similar. Before the classical, macroscopic laws of human body medicine could be established, the Pandora's box of the microscopic world was opened. Modern medical scientists, as if discovering a new continent, were ecstatic and plunged headlong into it, but the macroscopic medical laws observable to the naked eye were thus missed. Many diseases belong to the macroscopic world visible to the naked eye, such as a blocked and stinking ditch breeding mold, bacteria, and mosquitoes. Should you approach it from the scale of molecular biology? Or should you take a shovel to unblock it? Modern medicine has chosen the former, inventing many antibiotics and killing worms agents to spray into the ditch. The ditch temporarily stops stinking, and the mosquitoes are temporarily eradicated, but the ditch remains blocked. Soon it will stink again, and mosquitoes will breed again. This cycle of treatment repeats, but the root cause is never eradicated.
TCM possesses many characteristics of classical scientific laws along with its own unique features:
The classical medical law that modern medicine has failed to inherit, which is universally applicable to macroscopic human diseases, is precisely the Eastern TCM.
The East, having suffered from western humiliation a hundred years ago, lost almost all confidence in its own culture, leading to TCM also suffering collateral damage, nearly being abolished several times. As long as prejudices are removed and TCM is re-examined from a scientific and rational perspective, it will be found that TCM is more scientific than modern medicine, truly a treasure of the East, now like the precious jade of He Shi, buried in the mountains of Chu. The author believes that it will eventually be rediscovered and bloom again.