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How Acupuncture Works

It seems that almost daily I am asked “How does Acupuncture work?” Scientists have no real answer to this; as you know many of the workings of the body are still a mystery. Modern science itself is not advanced enough to be able to explain definitively, but I have an article below that is definitely at the forefront of these attempts. First, I will present a few of the prevailing theories that have been put forth over the last couple of decades.

1. By some unknown process, Acupuncture raises levels of triglycerides, specific hormones, prostaglandins, white blood counts, gamma globulins, opsonins, and overall anti-body levels. This is called the "Augmentation of Immunity" Theory.
2. The "Endorphin" Theory states that Acupuncture stimulates the secretions of endorphins in the body (specifically Enkaphalins).
3. The "Neurotransmitter" Theory states that certain neurotransmitter levels (such as Seratonin and Noradrenaline) are affected by Acupuncture.
4. "Circulatory" Theory: this states that Acupuncture has the effect of constricting or dilating blood vessels. This may be caused by the body's release of Vasodilaters (such as Histamine), in response to Acupuncture.
5. One of the most popular theories is the "Gate Control" Theory. According to this theory, the perception of pain is controlled by a part of the nervous system which regulates the impulse, which will later be interpreted as pain. This part of the nervous system is called the "Gate." If the gate is hit with too many impulses, it becomes overwhelmed, and it closes. This prevents some of the impulses from getting through. The first gates to close would be the ones that are the smallest. The nerve fibers that carry the impulses of pain are rather small nerve fibers called "C" fibers. These are the gates that close during Acupuncture.

In the related "Motor Gate" Theory, some forms of paralysis can be overcome by Acupuncture. This is done by reopening a "stuck" gate, which is connected to an Anterior Horn cell. The gate, when closed by a disease, stops motor impulses from reaching muscles. This theory was first stated by Professor Jayasuriya in 1977. In it he goes on to say:

"...one of the factors contributing to motor recovery is almost certainly the activation of spindle cells. They are stimulated by Gamma motor neurons. If Acupuncture stimulates the Gamma motor neurons, the discharge causes the contraction of Intrafusal Muscle fibers. This activates the Spindle cells, in the same way as muscle stretching. This will bring about muscle contraction." And now on to the featured article…




The Mechanism of Acupuncture - Beyond neurohumoral theory
by Charles Shang

1. Physical characteristics of the acupuncture points and meridian system
2. The neurohumoral approach
3. The morphogenetic singularity theory
4. Acupuncture points are singular points in surface bioelectric field
5. The role of electric field in growth control and morphogenesis
6. Organizing centers have high electric conductance
7. Acupuncture points originate from organizing centers.
8. Meridian – Separatrix - Boundary
9. Why do auricles have the highest density of acupuncture points?
10. The role of the meridian system in evolution and physiology
11. A unified basis of meridian system and chakra system
12. Mechanism of meridian system based diagnosis and therapy
13. Why does acupuncture has normalizing effect and few side effects?
14. Summary
15. Prospects
16. Acknowledgments

ABSTRACT

Acupuncture points and meridians have been discovered to have high electric conductance which is related to high density of gap junctions. Neurohumoral approach in acupuncture research was instrumental in establishing the scientific validity of acupuncture. However, it is largely descriptive with little prediction power. It also has not been able to explain many observations in acupuncture. Based on the morphogenetic singularity theory, acupuncture points originate from the organizing centers in morphogenesis. This theory explains several long-standing puzzles in both developmental biology and acupuncture research, including the distribution and non-specific activation of organizing centers and acupuncture points, the high electric conductance of acupuncture points, the polarity effect of electroacupuncture and side effect profile of acupuncture, as well as the ontogeny, phylogeny and physiological function of the meridian system and chakra system. Most of these have not been explained by any neurohumoral theory. In several ‘prospective blind trials’, main-stream biomedical researchers have confirmed its corollary on the role of singularity and separatrix in morphogenesis, the predictions on the high electric conductance and the high density of gap junction at the organizing centers. These advances have profound implications in biomedicine.
Physical characteristics of the acupuncture points and meridian system

According to the Standard Acupuncture Nomenclature proposed by the World Health Organization (WHO),[1] the meridian system in acupuncture consists of about 400 acupuncture points and 20 meridians connecting most of the points. Since the 1950s, it has been discovered and confirmed by researchers in several countries with refined techniques [2] that most acupuncture points correspond to the high electrical conductance points on the body surface [3,4,5,6,7] and vice versa.[8] The high skin conductance of the meridian system is further supported by finding of high density of gap junctions at the epithelia of the acupuncture points.[9,10,11,12] Gap junctions are hexagonal protein complexes that form channels between adjacent cells. It is well established in cell biology that gap junctions facilitate intercellular communication and increase electric conductivity.Acupuncture and meridian points have also been found to have higher temperature[13], higher metabolic rate and carbon dioxide release.[14]

The neurohumoral approach

In acupuncture analgesia, the peripheral nervous system has been shown to be crucial in mediating the effect. The analgesia can be abolished if the acupuncture site is affected by postherpetic neuralgia[15] or injection of local anesthetics[16]. In other effects of acupuncture such as anti-hyperglycemic effects, studies have shown that local blockade of peripheral nerves or denervation did not interfere with the acupuncture effect[17]. In the 70s, the relation between cerebral cortex and acupuncture alteration of visceral function was explored by examining the cortical evoked potentials, single unit discharges and neurochemistry associated with acupuncture. These studies brought forth the Meridian-Cortex-Viscera correlation hypothesis[18] which states that: 1. The meridian system is an independent system connected via the nervous system to the cerebral cortex. 2. It acts through neurohumoral mechanisms[19]. Recently, a more generalized acupoint-brain-organ model was proposed that acupuncture first stimulates the corresponding brain cortex via the nervous system, thereby controlling the chemical or hormone release to the disordered organs for treatment.[20]

In the mid-70s, the discovery of endorphin induction in acupuncture analgesia and its blockade by naloxone played a key role in establishing the validity of acupuncture in main-stream science.[21,22] Animals which respond poorly to acupuncture analgesia can be rendered good responders by treatment with D-phenylalanine which inhibits the degradation of met-enkephalin[23]. A close relation between acupuncture and nervous system is also indicated by the large overlap between acupuncture points and trigger points - points of maximum tenderness in myofascial pain syndrome[24]. These results have led some practitioners to believe that the meridian system as described in the classic acupuncture literature does not exist and that all the effects of acupuncture are mediated through nervous system.[25,26] Other scholars regard the neurally mediated acupuncture phenomena as “not the central core of the mechanism of acupuncture”.[27] The current neurohumoral theory of acupuncture has been mostly descriptive with little prediction power. It has difficulty in explaining a number of phenomena in acupuncture:

1. The distribution of acupuncture points: For example, an auricle has no important nerves or blood vessels and no significant physiological function other than sound collection, it nevertheless has the highest density of acupuncture points. According to the WHO, 43 auricular points have proven therapeutic value, which consist of 10% of the acupuncture points of the whole body.
2. The non-specific activation of acupuncture points: Each type of nerve usually responds to certain specific modalities of stimuli. Therapeutic effect of acupuncture can be achieved by a variety of stimuli[28,29] including needling, temperature variation, laser[30], ultrasound, vacuum and pressure.
3. The bi-directional regulation effect of acupuncture: Conventional nerve stimulation usually result in uni-directional effect. For example, vagal stimulation slows down heart rate. Opioids inhibits gut motility. However, acupuncture at PC6 accelerates bradycardia and decelerates tachycardia. Acupuncture at ST36 suppresses hyperfunction (as in diarrhea) and stimulates hypofunction (as in constipation) of the gut motility.[31] Therefore, proper use of acupuncture causes few side effects[32,33,34,35] as demonstrated in randomized controlled trials[36,37], unlike most of the conventional nerve-stimulation therapies.

The morphogenetic singularity theory

The morphogenetic singularity theory[38] developed over the last 2 decades is compatible with the neurohumoral findings of acupuncture effect and also can explain many phenomena in acupuncture beyond the neurohumoral theory.

Acupuncture points are singular points in surface bioelectric field

Epithelia usually maintain a 30-100 mV voltage difference across themselves.[39] This voltage is the potential difference across cell layers, not membrane potential. An acupuncture point which has high density of gap junctions and local maximum electric conductance will also have locally maximum electric current density – a converging point of surface current. It is a singular point of abrupt change in electric current flow. A singular point is a point of discontinuity as defined in mathematics. It indicates abrupt transition from one state to another. Small perturbations around singular points can have decisive effects on a system. As James Maxwell observed: “Every existence above certain rank has its singular points ... At these points, influence whose physical magnitude is too small to be taken account of by a finite being, may produce results of the greatest importance.”[40] The pattern of electromagnetic field on the human scalp mapped by SQUID (Superconducting QUantum Interference Device)[41] shows that the acupuncture point GV20 Baihui is a singular point at the surface magnetic field where the surface magnetic flux trajectories converge and enter the inside of the body. (Dr. Magnus Lou, personal communication) The Governor Vessel is a converging pathway of magnetic flux on the scalp and also a separatrix which divides the surface magnetic field into two symmetrical domains of different flow directions. A separatrix is a trajectory or boundary between spatial domains in which other trajectories have different behavior.[42] Morphologically, the Governor Vessel is also the axis of symmetry on the scalp. This pattern is consistent with the pattern of the meridian system, but different from the distribution of any major nerve, lymphatic or blood vessel on the scalp. The morphogenetic singularity theory suggests that the meridian system is related to the bioelectric field in morphogenesis and growth control.[38]

The role of electric field in growth control and morphogenesis

A variety of cells are sensitive to electric fields of physiological strength.[43] Somite fibroblasts migrate to the negative pole in a voltage gradient as small as 7 mV/mm.[44] Asymmetric calcium influx is crucial in the migration which can be blocked or even reversed by certain calcium channel blockers and ionophores.[45] In most cases, there is enhanced cell growth toward cathode and reduced cell growth toward anode in electric fields of physiological strength.[46,47] Fast growing cells tend to have relative negative polarity. This polarity is due to the increased negative membrane potential generated by the mitochondria at high rate of energy metabolism.[48] Imposed electric fields can cause polarization of mouse blastomeres,[49] reversal of anterior-posterior polarity[50] and dorsal-ventral polarity[51] in lower animal morphogenesis.

Organizing centers have high electric conductance

In development, the fate of a larger region is frequently controlled by a small group of cells, which is termed an organizing center.[52] Organizing centers are the high electric conductance points on the body surface:[38] The amphibian blastopore, a classic organizing center, has high electric conductance and current density.[53] Similar phenomena have also been observed in higher vertebrates.[54] The high conductance phenomenon is further supported by the finding of high density of gap junctions at the sites of organizing centers.[55,56,57,58] At the macroscopic level, organizing centers are singular points in the morphogen gradient and electromagnetic field.38 Disruption of electric field at the organizing center can cause malformation.[53]

Change of electric activity at the organizing centers correlates with signal transduction and can precede morphologic change.[59,60] For example, in amphibians, an outward current can be detected at the site of a future limb bud (an organizing center) several days before the first cell growth.[61]

Acupuncture points originate from organizing centers.

Both acupuncture points and organizing centers have high electric conductance, current density, high density of gap junctions and can be activated by nonspecific stimuli. Therapeutic effect of acupuncture can be achieved by a variety of stimuli as mentioned above. Similarly, morphogenesis of organizing centers can be induced by various stimuli such as mechanical injury and injection of nonspecific chemicals.[52,62]

Meridian – Separatrix - Boundary

At early stages of embryogenesis, gap junction mediated cell-cell communication is usually diffusely distributed which results in the entire embryo becoming linked as a syncytium. As development progresses, gap junctions become restricted at discrete boundaries, leading to the subdivision of the embryo into communication compartment domains.[63] These boundaries are major pathways of bioelectric currents and divide the body into domains of different electric current directions. Separatrices can be folds on the surface or boundaries between different structures and often connect singular points.[38,64] Meridians are separatrices[38] and related to a under-differentiated,[9] interconnected cellular network that regulates growth and physiology. The attributes of separatrix is consistent with the observation in the Inner Classic (Nei Jing) that meridians lie at the boundaries between different muscles. For example, part of the lung meridian runs along the borders of biceps and brachioradialis. Part of pericardium meridian runs between palmaris longus and flexor carpi radialis. Part of gallbladder meridian runs between sternocleidomastoid and trapezius. Trigger points also tend to locate at the boundaries of muscles.[65] The Governor Vessel and the Conception Vessel are the axis of symmetry of the body surface and the boundaries of many different structures. They are also regarded as the convergence of all meridians in traditional acupuncture. In consistence with the under-differentiation of the meridians, it has been observed that the most apical part of folds remain undifferentiated in morphogenesis,66including organizing centers such as apical ectodermal ridge.[67]

Why do auricles have the highest density of acupuncture points?

The distribution of acupuncture points and organizing centers is closely related to the morphology of the organism. For example, the auricle, which has the most complex surface morphology, also has the highest density of acupuncture points. Although an auricle has no important nerves or blood vessels and no significant physiological function other than sound collection, its morphology is one of the most sensitive signs of malformations in other organs. Auricular malformation has been observed in Turner syndrome, Potter syndrome, Treacher-Collins syndrome, Patau syndrome, Edwards syndrome, Noonan syndrome, maternal diabetes, atherosclerosis,[68] Goldenharr syndrome, Beckwith syndrome, DiGeorge syndrome, Cri-du-chat syndrome and fragile X syndrome. It is recommended in a standard textbook of pediatrics that any auricular anomaly should initiate a search for malformations in other parts of the body.[69]

Based on the phase gradient model in developmental biology, [38,70] many organizing centers are at the extreme points of curvature on the body surface such as the locally most convex points (e.g., the apical ectodermal ridge and other growth tips) or concave points (e.g., the zone of polarizing activity). Similarly, almost all the extreme points of the body surface curvature are acupuncture points, for example, the convex points include EX-UE11 Shixuan, EX-LE12 Qiduan, ST17 Ruzhong, ST42 Chongyang, ST45 Lidui, SP1 Yinbai, SP10 Xuehai, GV25 Suliao, EX-HN3 Yintang ... The concave points include CV17 Danzhong, KI1 Yongquan, LI5 Yangxi, LU 5 Chize, LU7 Lieque, LU8 Jingqu, LU10 Yuji, SI19 Tinggong, TE21 Ermen, GB20 Fengchi, GB30 Huantiao, BL40 Weizhong, HT1 Jiquan, SI18 Quanliao, BL1 Jingming, CV8 Shenque, ST35 Dubi ...

The role of the meridian system in evolution and physiology

In ontogeny, the development of organizing centers in the growth control system precedes the development of the nervous system and other physiological systems. The formation and maintenance of all the physiological systems are directly dependent on the activity of the growth control system. As the individual embryonic development recapitulates the evolution of the species,(ontogeny recapitulates phylogeny) the evolutionary origin of the meridian system as an intercellular signal transduction system of growth control is likely to have preceded all the other physiological systems, including the nervous system. Its genetic blueprint might have served as a template from which the newer systems evolved. Consequently, it overlaps and interacts with other systems but is not simply part of the nervous system. The meridian signal transduction is embedded in the activity of the function-based physiological systems. The regulation of many neural, circulatory or immune processes is through growth control mechanisms such as hypertrophy, hyperplasia, atrophy, apoptosis with shared messenger molecules and common signal transduction pathways involving growth control genes such as proto-oncogenes.[71,72,73,74,75] Acupuncture also induces the expression of proto-oncogene c-fos. [76,77] Many “non-excitable” cells have shown electrochemical oscillation, coupling, long range intercellular communication [60,78,79] and can participate in the meridian signal transduction.

A unified basis of meridian system and chakra system

Based on the morphogenetic singularity theory, the distribution of meridian system is related to both internal and external structures, and not solely determined by nerves, muscles or blood vessels. The distribution is a result of morphogenesis. Therefore, acupuncture points which are not at obvious extreme points of surface curvature or meridians which are not at obvious surface boundaries may be vestigial or more related to internal structures. The under-differentiated, inter-connected cellular network is not limited to the body surface. The distribution pattern of a certain type of primary tumors reflects the distribution of its normal counterpart. For example, the distribution of primary pheochromocytoma reflects the distribution of normal sympathetic ganglion cells. One type of the least differentiated cells is germ cell. The germ cell tumors [80,81] have a midline and para-axial distribution pattern which spans from the sacrococcygeal region, through anterior mediastinum, tongue, nasopharynx, to pineal gland. It appears to concentrate at 7 locations: sacrococcygeal region, gonads, retroperitoneum, thymus,[82] thyroid, [83] suprasellar region, and pineal gland.[84] The pattern resembles the chakra system used in yoga and acupuncture,[85] suggesting the existence of under-differentiated cells which may be highly inter-connected in a normal state as part of the “inner meridian system” and provide important regulatory functions.[86]

Mechanism of meridian system based diagnosis and therapy

As the electrical conductance of organizing centers varies with morphogenesis, the conductance of acupuncture points also varies and correlates with physiological change3 and pathogenesis.[87,88] The fact that the change in electric field precedes morphologic change61 and manipulation of the electric field can affect the change[89] may shed light on the diagnosis[90] and treatment of many diseases. According to the theory,[38] the network of organizing centers retain its regulatory function through high levels of intercellular communication correlated with relatively low levels of cell differentiation after embryonic development. This prediction is consistent with the finding that the high electric conductance persists at the organizing centers after early embryogenesis.[91] The organizing centers may communicate with other parts of the body to maintain proper forms and functions. Gap junctional communication has been shown to play a crucial role in morphogenesis.[92] The gap junction genes can also behave as classical tumor suppressor genes both in culture and in animal tests in restoring growth regulatory properties to metastatic cancer cells.[93] An anomaly inside the organizing center network may be detected by measuring the electrical parameters of some points on its surface at the early signal transduction stage and treated by manipulation of the interconnected organizing centers.

The activation of organizing centers is likely to be involved in the restoration of proper form and function in wound healing and stress response. Acupuncture can speed up the wound healing process [94] and cause an exaggerated systemic wound healing and stress response.[95,96] The response can include excessive release of endorphin which stimulates epithelial cell growth[97] as well as analgesia. Other neuro-humoral factors induced by acupuncture such as serotonin[98] and ACTH[99] also have growth-control effects.[100]

A principle in electroacupuncture is that positive (anode) pulse stimulation of a point inhibits its corresponding function while negative (cathode) pulse stimulation enhances the function.[101] This polarity effect is similar to the finding that cell growth is enhanced toward cathode and reduced toward anode,[46,47] consistent with the theory that the mechanism underlying acupuncture overlaps with that of growth control.

Why does acupuncture has normalizing effect and few side effects?

In acupuncture, the often nonspecific perturbation at singular points (acupuncture points) may not directly antagonize a pathological process but may indirectly adjust the process and restore normal function by activating the network of organizing centers in the organism. The activation of the self-organizing activity is less likely to cause the side effects resulted from directly antagonizing a pathological process which often overlap with other normal and beneficial physiological processes.

Summary

The morphogenetic singularity theory outlines the common ground shared among meridian system, chakra system and modern sciences. It is compatible with the findings from neurohumoral studies. It explains several long-standing puzzles in both developmental biology and acupuncture research. These include the distribution of meridian system, chakra system and germ cell tumors, the non-specific activation of acupuncture points and organizing centers, the high electric conductance of acupuncture points, the polarity effect of electroacupuncture and side effect profile of acupuncture, as well as the ontogeny, phylogeny and physiological function of the meridian system. Most of these have not been explained by any neurohumoral theory. In several ‘prospective blind trials’,[53,55,56,57,65] main-stream biomedical researchers, who were unaware of the theory, confirmed its corollary on the role of singularity and separatrix in morphogenesis, and its predictions of the high electrical conductance and high density of gap junctions at the organizing centers such as blastopore and zone of polarizing activity.

Techniques involving the stimulation of the meridian system such as acupuncture and qigong[102,103] may activate the self-organizing system of an organism and improve its structure and function at a more fundamental level than symptomatic relief. Development of these techniques may enable the diagnosis and treatment of a pathologic process at the early signal transduction stage prior to the anatomical or morphological change.

Prospects

The advances reviewed above have broad implications in biomedicine beyond acupuncture. The current stage of research on acupuncture and medicine is analogous to that of physics in early 19th century – at the transition from Newtonian mechanics to electromagnetics. Many questions remain unanswered. More spectacular advances similar to that of relativity and quantum physics may await us in the next century and will depend on the further development of meridian “electromagnetics”. Many other areas such as psychophysiology, chronobiology,[104] and pulse analysis105 related to the meridian system are awaiting more rigorous studies. Many details of the current theories remain to be clarified and tested.

Besides the neurohumoral studies, the following directions of research are likely to be important in further understanding acupuncture and meridian system:
1. Mapping of meridian system and the dynamics of its electromagnetic field with high resolution techniques such as SQUID.
2. The relation between the physical parameters of meridian system and various pathological or physiological changes, including changes during acupuncture and qigong practice.
3. Develop acupuncture related techniques of early diagnosis and treatment and establish their cost-effectiveness.
4. Clarify the role of meridian system in morphogenesis and growth control.
5. Cell differentiation and signal transduction in meridian system.
6. Mapping the body surface curvature through embryonic development with imaging techniques and study its relation with meridian system.

References
1. World Health Organization. A proposed standard international acupuncture nomenclature: report of a WHO scientific group. World Health Organization, Geneva, 1991.
2. Pomeranz B. Scientific basis of acupuncture. In: Stux G, editor. Basics ofAcupuncture. New York: Springer-Verlag. 1997:30-2.
3. Comunetti A, Laage S, Schiessl N, Kistler A. Characterisation of human skin conductance at acupuncture points. Experientia 1995;51:328-31.
4. Bergsman O, Wooley-Hart A. Differences in electrical skin conductivity between acupuncture points and adjacent skin areas. Am J Acupunct 1973;1:27-32.
5. Wensel LO. Acupuncture in medical practice Reston: Reston Publishing, 1980:128.
6. Nakatani Y, Yamashita K. Ryodoraku acupuncture. Ryodoraku Research Institute, Osaka:1977.
7. Reichmanis M. Electroacupuncture. In: Marino AA. Ed. Modern Bioelectricity New York: Dekker; 1988. p.762-765.
8. Eory A. In-vivo skin respiration (CO2) measurements in the acupuncture loci. Acupunct Electro-Ther Res 1984;9:217-23.
9. Mashansky VF, Markov UV, et al. Topography of the gap junctions in the human skin and their possible role in the non-neural signal transduction. Arch Anat Histol Embryol 1983;84:53-60.
10. Cui H-M. Meridian system - specialized embryonic epithelial conduction system. Shanghai J Acupunct 1988; 3: 44-45.
11. Fan JY. The role of gap junctions in determining skin conductance and their possible relationship to acupuncture points and meridians. Am J Acupunct 1990;18:163-170.
12. Zheng JY, Fan JY, Zhang YJ, Guo Y, Xu TP. Further evidence for the role of gap junctions in acupoint information transfer. Am J Acupunct 1996;24:291-6.
13. Zhang D. Fu W. Wang S. Wei Z. Wang F.[Displaying of infrared thermogram of temperature character on meridians]. [Chinese] Chen Tzu Yen Chiu Acupuncture Research. 1996; 21:63-7.
14. Eory A. In-vivo skin respiration (CO2) measurements in the acupuncture loci. Acupunct Electro-Ther Res 1984;9:217-23.
15. Bowsher D. Mechanisms of acupuncture. In: Filshie J, White A, editors. Medical Acupuncture. Edinburgh: Churchill Livingston, 1998: 69-80.
16. Chiang CY, Chang CT. Peripheral afferent pathway for acupuncture analgesia. Scientia Sinica 1973;16:210-7.
17. Liu Z. [Meridian pharmacology research.] [Chinese] Jinluo Luntan Meridian Forum 1998;5:1-4.
18. Anonymous. A preliminary investigation of the mechanism of anti-pain and counter-injury effects of the acupuncture anaesthesia. Scientia Sinica. 1976;19:529-56.
19. Chang HC, Xie YK, Wen YY, Zhang SY, Qu JH, Lu WJ. Further investigation on the hypothesis of meridian-cortex-viscera interrelationship. Am J Chin Med 1983;11:5-13.
20. Cho ZH, Chung SC, Jones JP, Park JB, Park HJ, Lee HJ, et al. New findings of the correlation between acupoints and correspnding brain cortices using functional MRI. Proc Natl Acad Sci USA 1998;95:2670-73.
21. Pomeranz B, Chiu D. Naloxone blocks acupuncture analgesia and causes hyperalgesia: endorphin is implicated. Life Sci 1976;19:1757-1762.
22. Mayer DJ, Price DD, Raffii A. Antagonism of acupuncture analgesia in man by the narcotic antagonist naloxone. Brain Res 1977;121:368-72.
23. Takeshige C, Tanaka M, Sato T, Hishida F. Mechanism of individual variation in effectiveness of acupuncture analgesia based on animal experiment. Eur J Pain 1990;11:109-13.
24. Melzack R, Stillwell DM, Fox EJ. Trigger points and acupuncture points for pain: correlations and implications. Pain 1977;3:3-23.
25. Ulett GA. Beyond Yin and Yang: How Acupuncture Really Works. Warren H. Green, Inc. St. Louis, MO, 1992.
26. Mann F. A new system of acupuncture. In: Filshie J, White A, editors. Medical Acupuncture. Edinburgh: Churchill Livingston, 1998: 63.
27. Pearson P. An introduction to acupuncture. Norwell: MTP Press, 1987:75.
28. Vickers AJ. Can acupuncture have specific effects on health? A systematic review of acupuncture antiemesis trials. J R Soc Med 1996;89:303-11.
29. Altman S. Techniques and instrumentation. Probl Vet Med 1992;4:66-87.
30. Hornstein OP. Melkersson-Rosenthal syndrome--a challenge for dermatologists to participate in the field of oral medicine. J Dermatol 1997; 24:281-96
31. Li Y, Tougas G, Chiverton SG, Hunt RH. The effect of acupuncture on gastrointestinal function and disorders. Am J Gastroenterol 1992;87:1372 - 81.
32. Holden C. Acupuncture: stuck on the fringe. Science 1994;264: 770.
33. Carneiro NM, Li SM. Acupuncture technique. Lancet 1995;345: 1577.
34. Shiraishi T, Onoe M, Kojima T, Sameshima Y, Kageyama T. Effects of auricular stimulation on feeding-related hypothalamic neuronal activity in normal and obese rats. Brain Res Bull 1995;36:141-8.
35. Marwick C. Acceptance of some acupuncture applications. JAMA 1997;278:1725-1727.
36. Christensen BV, Iuhl IU, Vilbek H, Bulow HH, Dreijer NC, Rasmussen HF. Acupuncture treatment of severe knee osteoarthrosis. A long-term study. Acta Anaesthesiol Scand. 36(6):519-25, 1992.
37. Appiah R, Hiller S, Caspary L, Alexander K, Creutzig A. Treatment of primary Raynaud's syndrome with traditional Chinese acupuncture. J Intern Med 1997;241:119-24.
38. Shang C. Singular Point, organizing center and acupuncture point. Am J Chin Med 1989;17:119-127.
39. Jaffe LF. Electrophoresis along cell membranes. Nature 1977;265: 600-2.
40. Winfree AT. The Geometry of biological time New York: Springer-Verlag; 1980. p. 71.
41. Cohen D, Palti Y, Cuffin BN, Schmid SJ. Magnetic fields produced by steady currents in the body. Proc Natl Acad Sci USA 1980;77: 1447-1451.
42. Vinogradev IM. et al. Encyclopaedia of Mathematics Norwell, MA: Kluver Academic; 1992;8: 276, 346.
43. Erickson CA. Morphogenesis of the neural crest. In: Browder LW, editor. Developmental Biology. New York: Plenum, 1985;2:528.
44. McGinnis ME, Vanable JW Jr. Voltage gradients in newt limb stumps. Prog Clin Biol Res 1986; 210: 231-238.
45. Cooper MS, Schliwa M. Transmembrane Ca2+ fluxes in the forward and reversed galvanotaxis of fish epidermal cells. Prog Clin Biol Res 1986; 210: 311-318.
46. Nuccitelli R. The involvement of transcellular ion currents and electric fields in pattern formation. In: Malacinski GM, editor. Pattern formation. New York: Macmillan; 1984.
47. McCaig CD. Spinal neurite regeneration and regrowth in vitro depend on the polarity of an applied electric field. Development 1987;100: 31-41.
48. Chen LB. Fluorescent labeling of mitochondria. Methods in Cell biology 1989;29:103-120.
49. Wiley LM, Nuccitelli R. Detection of transcellular currents and effect of an imposed electric field on mouse blastomeres. Prog Clin Biol Res 1986;210: 197-204.
50. Marsh G, Beams HW. Electrical control of morphogenesis in regenerating Dugesia tigrina. J Cell Comp Physiol 1952;39: 191.
51. Kolega J. The cellular basis of epithelial morphogenesis. In: Browder LW, editors. Developmental Biology New York: Plenum, 1985;2:112-6.
52. Meinhardt H. Models of Biological Pattern Formation London: Academic; 1982. p.20.
53. Hotary KB, Robinson KR. Endogenous electrical currents and voltage gradients in Xenopus embryos and the consequences of their disruption. Dev Biol 1994;166:797.
54. Jaffe LF, Stern CD. Strong electrical currents leave the primitive streak of chick embryos. Science 1979;206:569-571.
55. Laird DW, Yancey SB, Bugga L, Revel JP. Connexin expression and gap junction communication compartments in the developing mouse limb. Dev Dyn 1992;195: 153-61.
56. Yancey SB, Biswal S, Revel JP. Spatial and temporal patterns of distribution of the gap junction protein connexin43 during mouse gastrulation and organogenesis. Development 1992;114: 203-12.
57. Coelho CN, Kosher RA. A gradient of gap junctional communication along the anterior-posterior axis of the developing chick limb bud. Dev Biol 1991;148: 529-35.
58. Meyer RA. Cohen MF. Recalde S. Zakany J. Bell SM. Scott WJ Jr. Lo CW. Developmental regulation and asymmetric expression of the gene encoding Cx43 gap junctions in the mouse limb bud. Dev Genet 1997; 21:290-300.
59. Nelson PG, Yu C, Fields RV, Neale EA. Synaptic connections in vitro modulation of number and efficacy by electrical activity. Science 1989;244: 585-7.
60. Shang C. Bioelectrochemical oscillations in signal transduction and acupuncture - an emerging paradigm. Am J Chin Med 1993;21: 91-101.
61. Nuccitelli R. Ionic currents in morphogenesis. Experientia 1988;44: 657-666.
62. Toivonen S. Regionalization of the embryo. In: Organizer – A milestone of a half- century from Spemann. Nakamura O, Toivonen S. editors. Amsterdam: Elsevier, 1978: p.132.
63. Lo CW. The role of gap junction membrane channels in development. J Bioenerg Biomembr 1996; 28:379-85,
64. Lee D, Malpeli JG. Global form and singularity: modeling the blind spot's role in lateral geniculate morphogenesis. Science 1994;263:1292-4.
65. Baldry P. Trigger point acupuncture. In: Filshie J, White A, editors. Medical Acupuncture. Edinburgh: Churchill Livingston, 1998: 35.
66. Toivonen S. Regionalization of the embryo. In: Organizer – A milestone of a half- century from Spemann. Nakamura O, Toivonen S. editors. Amsterdam: Elsevier, 1978: p.124.
67. Carlson MR. Bryant SV. Gardiner DM. Expression of Msx-2 during development, regeneration, and wound healing in axolotl limbs. J Experimental Zool 1998;282:715-23.
68. Petrakis NL. Earlobe crease in women: evaluation of reproductive factors, alcohol use, and quetelet index and relation to atherosclerotic disease. Am J Med 1995;99:356-361.
69. Cotton RT. The ear, nose, oropharynx and larynx. In: Rudolph AM, Hoffman JIE, Rudolph CD, editors. Rudolph’s Pediatrics. Stamford: Appleton & Lange, 1996:945.
70. Winfree AT. A continuity principle for regeneration. In: Malacinski GM, editor. Pattern formation New York: Macmillan; 1984. p.106-7.
71. Baldwin AS Jr. The NF-kappa B and I kappa B proteins: new discoveries and insights. Annu Rev Immunol 1996;14:649-83.
72. Berczi I. The role of the growth and lactogenic hormone family in immune function. Neuroimmunomodulation 1994;1:201-16.
73. Bailey CH, Bartsch D, Kandel ER. Toward a molecular definition of long-term memory storage. Proc Natl Acad Sci USA 1996;93:13445-52.
74. Miano JM, Topouzis S, Majesky M, Olson EN. Retinoid receptor expression and all-trans retinoic acid-mediated growth inhibition in vascular smooth muscle cells. Circulation 1996;93:1886-1895.
75. Tanaka H, Samuel CE. Mechanism of interferon action: structure of the mouse PKR gene encoding the interferon-inducible RNA-dependent protein kinase. Proc Natl Acad Sci USA 1994; 91:7995-9.
76. Pan B, Castro-Lopes JM, Coimbra A. Activation of anterior lobe corticotrophs by electroacupuncture or noxious stimulation in the anaesthetized rat, as shown by colocalization of Fos protein with ACTH and beta-endorphin and increased hormone release. Brain Res Bull 1996;40:175-82.
77. Lee JH, Beitz AJ. The distribution of brain-stem and spinal cord nuclei associated with different frequencies of electroacupuncture analgesia. Pain 1993;52:11-28.
78. Rink TJ, Jacob R. Calcium oscillations in non-excitable cells. Trends Neurosci 1989;12: 43-46.
79. Nedergaard M. Direct signaling from astrocytes to neurons in cultures of mammalian brain cells. Science 1994;263: 1768-71.
80. Azizkhan RG, Caty MG. Teratomas in childhood. Curr Opin Pediatr 1996;8:287-92.
81. Kountakis SE, Minotti AM, Maillard A, Stiernberg CM. Teratomas of the head and neck. Am J Otolaryngol 1994;15:292-6.
82. Dehner LP. Germ cell tumors of the mediastinum. Semin Diagn Pathol 1990;7:266-84.
83. Gonzalez-Crussi F. Extragonadal teratomas. Washington, D.C.: Armed Forces Institute of Pathology; 1982. p.118.
84. Kretschmar CS. Germ cell tumors of the brain in children: a review of current literature and new advances in therapy. Cancer Invest 1997;15:187-98.
85. Stux G. Chakra acupuncture. In: Stux G, editor. Basics of Acupuncture. New York: Springer-Verlag. 1997:298-302.
86. Nichols CR, Timmerman R, Foster RS, Roth BJ, Einhorn LH. Neoplasms of the testis. In: Cancer Medicine. Holland JF, Basst RC, Jr. Morton DL, Frei E III, Kufe DW, Weichselbaum RR, editors. 4th ed. Baltimore: Williams & Wilkins; 1997. p.2206.
87. Saku K, Mukaino Y, Ying H, Arakawa K. Characteristics of reactive electropermeable points on the auricles of coronary heart disease patients. Clin Cardiol 1993;16:415-9.
88. Oleson TD, Kroenig RJ, Bresler DE. An experimental evaluation of auricular diagnosis: The somatotopic mapping of musculoskeletal pain at acupuncture points. Pain 1980;8: 217-29.
89. Smith SD. Limb regeneration. In: Marino AA, editor. Modern bioelectricity New York: Dekker; 1988. p.526-55.
90. Ishchenko AN. Kozlova VP. Shev'yev PP. Auricular diagnostics used in the system of screening surveys. Med Prog Technol 1991;17:29-32.
91. Shi R, Borgens RB. Three-dimensional gradients of voltage during development of the nervous system as invisible coordinates for the establishment of embryonic pattern. Dev Dynamics 1996;202:101-114.
92. Ewart JL, Cohen MF, Meyer RA, Huang GY, Wessels A, Gourdie RG, et al. Heart and neural tube defects in transgenic mice overexpressing the Cx43 gap junction gene. Development 1997;124:1281-92.
93. Hirschi KK, Xu CE, Tsukamoto T, Sager R. Gap junction genes Cx26 and Cx43 individually suppress the cancer phenotype of human mammary carcinoma cells and restore differentiation potential. Cell Growth Differ1996; 7:861-70.
94. King GE, Scheetz J, Jacob RF, Martin JW. Electrotherapy and hyperbaric oxygen: promising treatments for postradiation complications. J Prosthet Dent 1989;62:331-4.
95. Wong WH, Brayton D. The physiology of acupuncture: effects of acupuncture on peripheral circulation. Am J Acupunct 1982;10:59-63.
96. Lin MT, Liu GG, Song JJ, Chen YF, Wu KM. Effects of stimulation of acupuncture Ta-Churi, Nei-Kuan and Tsu-San-Li points on physiological function of normal adults. Acupunct Res Quarterly 1980;4:11-19.
97. Kishi H, Mishima HK, Sakamoto I, Yamashita U. Stimulation of retinal pigment epithelial cell growth by neuropeptides in vitro. Curr Eye Res 1996;15:708-13.
98. Cheng RS, Pomeranz B. Electroacupuncture analgesia mediation by endorphin and non-endorphin systems. Life Sci 1979;25:1957-62.
99. Malizia E, Andreucci G, Paolucci D. Electroacupuncture and peripheral endorphin and ACTH levels. Lancet 1979;2:535-6.
100. Pakala R, Benedict CR. Effect of serotonin and thromboxane A2 on endothelial cell proliferation: effect of specific receptor antagonists. J Lab Clin Med 1998;131:527-37.
101. Kenyon JN. Modern techniques of acupuncture. Wellingborough: Thorsons, 1983;1: 51-58.
102. McGee CT, Sancier K, Chow EPY. Qigong in traditional Chinese medicine. In: Micozzi MS, editor. Fundamentals of complementary and alternative medicine. New York: Churchill-Livingston; 1996. p.225-226.
103. Lu Z. Scientific Qigong Exploration. Malvern, PA: Amber Leaf Press; 1997.
104. Li L, Chen H, Xi Y, Wang X, Han G, Zhou Y, Yang D, et al. Comparative observation on effect of electric acupuncture of PC6 at 7-9 AM vs. 7-9 PM on left ventricular function in patients with coronary artery disease. J Tradit Chin Med 1994:14;262-5.
105. Wang WK, Hsu TL, Wang YY. Liu-wei-dihuang: a study by pulse analysis. Am J Chin Med 1998;26:73-82.










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