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  IN THIS Article
 ::  Abstract
 ::  Bioelectricity
 ::  Hypotheses
 ::  CEM (CytoElectro...
 ::  Polarity, Comple...
 ::  Pancytologism
 ::  Yin-Yang
 ::  ToFi Duplicability
 ::  Differentiation
 ::  Cells: Gametic a...
 ::  The Need for Gametes
 ::  The Nature of Ga...
 ::  CEM, Yin-Yang
 ::  References
 ::  Article Figures

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ARTICLE
Year : 1978  |  Volume : 24  |  Issue : 1  |  Page : 4-19

Cells and Yin-Yang polarity- (Towards greater similarity between the animate and the inanimate)


Department of Anatomy, Seth G.S.Medical College, Bombay 400012, India

Correspondence Address:
M L Kothari
Department of Anatomy, Seth G.S.Medical College, Bombay 400012
India
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Source of Support: None, Conflict of Interest: None


PMID: 731611

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 :: Abstract 

A cell-plant or animal-is proving a bioelectric wonder al­ready boasting of pyro-, piezo-, ferroelectricity, solid state and electretism as eminent exhibits and probable functional mechan­isms. A cell, its parts, and its products owe the bioelectric boon to inherent and universal polarity pregnant with dipolar electro­magnetic moment.
The cytologic bipolarity prompts a hypothesis that the cell and its world may be no exception to the working of Yin-Yang, the Taoistic concept o f all-pervading reality. Nuclear, cytoplasmic, gametic and zygotic considerations compellingly suggest that Yin­Yang does prevail, making us and' our cells basically field-effects, thus erasing further the distinction between male and female, animate and inanimate, biomass and bioenergy.



How to cite this article:
Kothari M L, Mehta LA. Cells and Yin-Yang polarity- (Towards greater similarity between the animate and the inanimate). J Postgrad Med 1978;24:4-19

How to cite this URL:
Kothari M L, Mehta LA. Cells and Yin-Yang polarity- (Towards greater similarity between the animate and the inanimate). J Postgrad Med [serial online] 1978 [cited 2019 Nov 19];24:4-19. Available from: http://www.jpgmonline.com/text.asp?1978/24/1/4/42681


"The ultimate goal of all science is to devise and explain conceptual schemes about the nature of the universe in which we live. The more we learn of this nature the more we detect a basic unity in all science." [25] The latter gene­ralization in the foregoing is all the more vindicated by recent findings that reveal each cell-animal or plant-to be endow­ed, in its nooks and corners, with polarity that was hitherto obtained in physics only; the polarity endows the cell with electro­magnetism that Einstein [1] found as an all­-pervading fundamental physical reality to which also the cell responds in varied manners. [4],[39] This paper is an attempt at presenting a multidisciplinary synthesis that promises a better comprehension of cell structure and function.


 :: Bioelectricity Top


A living cell defies definition. As an acronym, CELL could read Cytologic Embodiment of a Law called Life, or Coordinated Energy-ensemble Labelled Life. With the prominence gained by DNA -"the most celebrated chemical of our time "[19] -a cell is rightly called a bioche­mical wonder. Recent insights into the electrical activities going on in a cell sug­gest it being a bioelectric wonder, too.

Lowenhaupt [28] at a recent symposium on "Electrically Mediated Growth Mecha­nisms in Living Systems," generalised that "the electricity of a living cell is at the essence of its life," subserving such diverse functions, [2],[28],[29] as cell growth, cell differentiation, intercellular commu­nication, wound healing, hormone actions, muscle tone, vision, other forms of sen­sory reception, photosynthesis, antibiotic action, the engram, cyclosis, and so on. Cells (plant or animal), their components including DNA, cell products such as cel­lulose, glucose, cholesterol, collagen, keratin and chitin, and tissues such as bone, tendon, nerves manifest, in varying degrees, piezoelectricity, pyroelectricity, ferroelectricity, solid state and electre­tism. [2],[3]

Athenstaedt [2] pointed out why the re­cognition of such forms of bioelectricity was delayed: "The fact that the existence of this material property (of pyroelectri­city) was generally assumed to require a crystalline pattern may explain why it was detected in organic structures at such a late stage." Similarly, as Gross [21] re­marked, "the strange behavior of electrets revealed by the early experiments,, rein­forced by Gemant's view that for theore­tical reasons `they should not exist,' did much to shroud the electret effect in my­stery." It hi now being appreciated that living systems possess electromagnetic sensitivities "several orders of magnitude greater than predictable by present con­cepts of cellular or organismal physiology." [4] Lerchenthal, [27] emphasized the gross conceptual and instrumental limita­tions of modern physics when it comes to measuring the intracellular events: "Even the finest available electrodes have diameters of about 1µm. This seems much worse than a sledge hammer and a fine wristwatch, because this diameter (1 µm) is many thousand times larger than ato­mic distances, which indeed is the level on which biologic systems operate." The potential gradient between two points, within a cell or a collagen molecule, may be thousands of volts per centimeter, not because the voltage is high, but because the distance is in angstroms. [18],[27] But such phenomena are extremely difficult to analyse by most techniques. [11],[27] Bio­electricity, a giant of the future, is still in its infancy at conceptual and instrumen­tal levels. Today, electrets are industrial­ly manufactured (e.g. microphones, [21] tef­lon vascular grafts [21] ), and our bones have been found to be the loudest electrets. [31]

The Curie brothers Jacques and Pierre discovered piezoelectricity in 1880; pyro­electricity was elucidated by Lord Kelvin in 1877, ferroelectricity in 1920 by Vala­sek, and the electret state was concep­tualized by Heaviside in 1890 and dis­covered by Eguchi in 1925. [2],[21] The fore­going have been recognized as attributes of living material only as recently as 1964 and after. Yet, it seems, a great begin­ning has been made. Piezoelectricity­ the "coupling between mechanical and electrical fields" [23] - involves production of electricity by mechanical changes, while the pyroelectric effect is produced by thermal changes. In ourselves, piezo­electricity may be realized from the ob­servation that it operates to make nerve "a lossless transmission line" [23] so that, although "nerves are such poor conduc­tors of electric current," [30] they manage to be "such excellent transmitters of elec­tric signals." [30] Ferroelectricity implies spontaneous electric polarization such that the polarization can be reversed by an electric field . [40] The significance of this may lie in a cell's or its component's abi­lity to check or reverse a course of ac­tion. Solid-state is a term borrowed from electronics implying the ability of such an object to control current without the presence of moving parts, heated filaments, or vacuum gaps. [40] Solid-state could also be defined as the physical state of matter in which the constituent molecules, atoms, or ions have no translatory mo­tion although they vibrate about the fix­ed positions they occupy. An electret is etymologically and functionally analogous to a magnet. "A magnet produces a sta­tic magnetic field, an electret produces a static electric field." [21] Just as we regard the magnetic field as a store of energy, [14] the electretic field is an energy store that by its effects could keep cells together, or help store and retrieve information. Bone, collagen, gelatin, DNA, cellulose and many other biopolymers behave as elec­trets, making it a universal property of all biopolymers. [31] Water bound to bio­polymers - "bound water" - is consi­dered of fundamental biologic importance, as it also possesses the electret state. [31],[32]

Bioelectricity is a boon derived from the "inherent dipole structure" [2] of all animal and plant tissues-a universal de­sign whereby morphologic polarity im­parts inherent direction of electric polari­zation that gives to the warp and woof of a cell, as its milieu "electric dipole mo­ment." [2] To name but a few structures that have been shown to be so polarized: DNA, collagen, keratin, chitin, feather, hair, teeth, bone, individual plant cells and organs, sensory receptors. At a gros­ser level, the human spinal cord consti­tutes "a permanent electric dipole over its entire length," [2] with the negative pole cranially, and the positive pole caudally­. The role of erect posture, legendarily emphasized in Yoga, may be related to the polarity of the central nervous axis that is best maintained with a straight back.


 :: Hypotheses Top


The universal prevalence of polarity and bioelectricity could be taken as start­ing points to construct a hypothetical pic­ture of cell structure and function. This communication presents 4 interrelated concepts: (a) CEM (CytoElectroMagnet­ism), (b) Polarity, (c) Pancytologism, and (d) Yin and Yang. The evidence for each of the concepts is sufficient, if not compelling.


 :: CEM (CytoElectroMagnetism) Top


Electricity and magnetism a la Oersted and Maxwell are two sides of the same coin. [14] Now that we know of cytoelec­tricity as a potent operating force, Cyto­ElectroMagnetism or CEM becomes ety­mologically and conceptually comprehen­sible. CEM, is then, the electromagnetic effect possessed/exhibited by a cell, its components or its products, not exclud­ing "bound water" which may be tied up to DNA or a protein. The current scien­tific limitation vis-a-vis detection and measurement of CEM is well brought out by Florey: [18] For purely technical rea­sons it is impossible to measure directly the electric potential differences between individual ions or even those between the organelles of a cell. Undoubtedly there are electric potentials, for instance, be­tween the surface of mitochondria and the surrounding cytoplasm, but there is no recording system small enough to mea­sure them." Florey's [18] 1966 observation warranted no alteration when Lerchen­thal' restated science's present limita­tions in 1974.

That CEM may have a lot to do has not yet hit the scientific conscious. The September 1976 issue of National Geogra­phic carries a 42 page article on the "Awesome Worlds Within a Cell." [19] The only allusion therein to electricity is with reference to mitochondrial ATP: "ATP is the electricity of the system." Cytolo­gic texts refer to the electrical potentials at a cell membrane, but there ends the story.

Becker [4] is at pains to underscore our ignorance and indifference: "Over the past decade, there has been a growing awareness that electrical and magnetic forces have specific effects on living or­ganisms. These effects are produced by forces of very low magnitude and are not explainable in such simplistic terms as Joule heating. They appear to indicate sensitivities on the part of living organ­isms several orders of magnitude greater than predictable by present concepts of cellular or organismal physiology." Bec­ker [4] then cites a number of biopheno­mena mediated by electromagnetism, in­cluding the direct relationship between reversals of earth's magnetic field and the extinction of whole species in the geologic past. `Unfortunately, none of the effects are based on an adequate foundation of biological theory, and in fact, the key proposition of these effects, namely, that cells are capable of sensing and responding in a specific fashion, to levels of electric current/voltage or electrical or magnetic fields, is hardly universally accepted." [4] A brick in the conceptual foundation desired by Becker [4] could be form­ed by the proposition that CEM [Figure 1] is a cardinal feature that permeates the length and breadth of a cell, and that CENT operates by its field effects.

The concluding para in The Evolution of Physics by Einstein and Infeld [14] bears the title "Physics and Reality", wherein the masters describe the mutation in phy­sical thought: "The difficulties connect­ed with the deflection of the magnetic needle, the difficulties connected with the structure of the ether, induced us to create a more subtle reality. The import­ant invention of the electromagnetic field appears. A courageous scientific imagi­nation was needed to realize fully that not the behaviour of bodies, but the be­haviour of something between them, that is, the field, may be essential for ordering and understanding events." The concept of CEM operating by its field may be taken as a paradigm of the "courageous scientific imagination," much needed in biology. As Einstein and Infeld [14] em­phasize, "The field language" dictates that "the action is determined by the field." Cybernetically speaking, CEM pregnant with EM wave with velocity "equal to the velocity of light" may account for some awe-inspiring megafeats achieved in a split second by a microminiaturization called a cel1. [14]

A typical animal cell-"each cell a bet­ter chemist and physicist than all the Nobel prize laureates put together" [36] - is a micro-universe brimming with 200 trillion molecules [19] comprising discrete pieces of life "each performing with ex­quisite precision, and often in thousandths of a second. "[19] The cell's master choreo, grapher DNA operates its over 100,000 genes in a mass no greater than 0.00000000001 (10 -11 ) gm by acting as an "information tape" that duplicates itself, with incredible point-to-point precision, by its pair of polynucleotide chains un­winding (and simultaneously rewinding) at the rate of 10,000 revolutions per minute, the mechanism of this unwinding being entirely unknown, there being no enzymes to mediate it. [11] The genic ge­nius of this information-tape lies in its capacity to give rise, in an almost omni­scient manner, a unique individual, an Einstein, an elephant or a cancer, each unfailingly unprecedented, unparalleled, and unrepeatable. The whole tape is so compactly packed that the total human DNA would occupy a space no greater than an ice cube, but if joined end-to-end could stretch 400 times to and fro the Sun [19] (37.2 x 10 [9] miles). Surely, we are dealing with entities that necessitate concepts that transcend the intricacies and the speed of the most advanced compu­ters. If it is the EM field that makes a computer work, it is very likely that it is CEM that makes a cell work, the way it does.

Each one of us is made up of about 100 trillion cells, bound into a cooperative whole without screws, rivets, or any "demonstrable intercellular material." [11],[19] (What of a blue whale whose tongue alone is the size of a fully grown ele­phant, and whose cells are no larger than that of a mouse or man). And yet in this closely packed cytogalaxy, cells move ceaselessly with planetary ease and speed, during health, disease and repair. The cells do so without any pseudopodia or the space for them. It is proposed that only CEM could account for this, so to say, mobility in inseparability by varia­tions of "attraction energy" and "repul­sion energy," [5] and by polarity that keeps the myriad cells stay put. [15]

Some other compelling facts are in or­der to drive home the conceptual impera­tiveness of CEM. A cell is a cold ma­chine [30] that carries out its activities at temperature and pressure, surprisingly low in mechanistic terms, a point favour­ing the consideration of a cell as an elec­tronic/electromagnetic entity. The tem­perature optima for unicellular and mul­ticellular life is well below 50°C [6] Cell membrane, stronger than stainless steel, can build up a potential difference across it so much as to generate 10,000 volts as in an eel. [30] The same membrane modi­fies itself to form receptors that trans­duce and amplify varied forms of input energy into a different form of output energy, with incredible sensitivity: "The hair cells in the mammalian cochlea and the sensory cells of the lyriform organs of spiders (to mention only two exam­ples) respond with generator potentials to vibrations, the amplitude of which is lower than the diameter of a hydrogen atom." [18] The human retina can respond to an energy input of 5 x 10 -17 watt, which at the input rate of 5 x 10 -17 watt/sec. would take 10 billion years to accumulate enough electricity to light up a 15 watt bulb for 1 second. [18]

A cybernetic view of the human ner­vous system may suggest that the me­mory storage and retrieval may be occurring in it in much the same way, as in a computer. The CEM fields of dividing/ divisible cells lack permanence that the inherently non-divisible nerve cells en­joy. Looking at it the other way, nerve cells had had to be indivisible so that the structural permanence allows the recording/reading-out of information. Arthur Koestler [26] cites neurologists as claiming that only about 3 per cent of the human brain's capacity is called into use under normal circumstances. In Leonardo da Vinci or Einstein, it may be 5 or 10 percent. That makes human brain unimagi­nably efficient in its function, which in the current cybernetic context, sounds very much computer-like. Even if a nerve cell engrams itself by manufacturing a protein, the latter has its own elec­trical activity, so that the concept of CEN remains relevant.


 :: Polarity, Complementality Top


In anatomic/biologic description, the popular descriptive term is bilateral symmetricality, a feature that allows the organism to be divided into "equivalent right and left halves." [25] But this equival­ence is more an assumption than a reality In a human being, the right hand differs from the left in shape, palm-print, finger print, the right cerebrum from the left in gyri and sulci, the right eye from the left in refractive error, the right testis from the left in vasculature and position and so on. May be we are not bilaterally symmetrical, but complemental, a feature that makes its start right at the DNA/cell level, a master stroke that keeps the whole bio-world going.

James Watson, [43] in his celebrated The Double Helix mentions that a starting point in his discovery of the DNA strut Lure was the realization that biologic things come in pairs. But then, in electricity also there are only two kinds of charge, and magnetic poles always occur in pairs. The electric/magnetic pairs are no way symmetrical but polar or com­plemental. The double helix that Watson and Crick gave to biologic thought com­prises of two spirals that are in no way symmetrical, but polar or complemental. One cannot but conclude that Nature works, not only in pairs, but polar ones at that. Opposites are apposites.

It has been generalized that the cell uses and may be found to be using me­chanisms that are not very different from processes which are already available in the surface films of nature. If one travels backwards from the Watson-Crick pairity right down to the day DNA was conceived and formed, terrestrially or extrater­restrially [41] by Nature, one could say that She took hint from, say, magnetism wherein the north pole instantaneously induces the south pole and vice versa. The outstanding quality of one DNA spiral is to induce the complementary spi­ral, and this singular feature seems to account for the whole history of biology. Such complementation by DNA extended to RNA solved the problem of manufac­turing proteins/enzymes, the key opera­tors in a cell. Life delights in begetting life precisely because the existing half-­life delights in inducing the other-half. Even the so-called repairing of DNA is. in fact, re-pairing as may be clear from what follows: In the "dark repair pro­cess" mediating "Repair of genetic mate­rial in living cells," the intact strand of the damaged double-stranded DNA is utilised to induce the formation of the damaged complementary strand, thus repairing itself, or more truly, re-pairing itself. [24] Hanawalt [24] generalized that "the existence of such a mechanism provides a possible explanation for the evolution of a double-stranded (redundant) form for the genetic blueprint in all living cells." Even the replication of "single-­stranded" virus [30] is no exception to the above re-pairing. The "+" (plus) viral strand gets into a bacterium to induce the "-" (minus) strand, thus forming, the double-helix which then copies itself as usual. [30] The branding of double-strand­ed DNA as "redundant" [24] form betrays (a) the obsession that only a single strand of DNA is enough for directing RNA for protein synthesis, and (b) the lack of ap­preciation of the polarity/complementa­lity that permeates a cell right up to its heart, called DNA. Does this redundancy idea mean that all the somatic cells carry­ing both paternal and maternal chromo­somes/DNA., have triply redundant DNA, as well as redundant chromosomes, the latter redundancy being thought of, since E. coli manages with a single unpaired chromosome, and since it has almost be­come an article of faith that if it happens in E. coli, it must also be happening in an elephant?
"For every paternal chromosome in diploid nucleus, there is usually corresponding maternal one with same form, size, and genetic function. Cell structure, function and replication become greatly clear if it is realized that the two sides-paternal and maternal-of a cell represent a fundamental polarity/ comple­mentality, or as the Chinese would put it, the Yin-Yang halves of a cell, Yin-Yang [Figure 2] represent the eternal opposition of, and balance between the female (Yin) and the male (Yang) principles of the universe. [44] The Taoists use this symbol to represent their basic law of existence: harmony through dynamic balance of opposites. [40] "One Yin and one Yang," so generalizes Alan Watts [44] in his The Two Hands o f God, "that is the fundamental principle. The passionate union of Yin and Yang and the copulation of husband and wife is the eternal rule of the uni­verse." Describing Yin and Yang as the polar-opposites, Watts [44] explains: "What, exactly, is polarity? It is something much more than simple duality or opposition. For to say that opposites are polar is to say much more than that they are far apart; it is to say that they are related and joined-that they are the terms, ends, or extremities of a single whole." As Lin Yutang, [46] the modern Chinese philosopher puts it, the interplay [Figure 3] of the dual forces-Yin and Yang-is "the basis of all life, all universe, and all history." The purpose of this article is to generalize that, taking, say, a human being as an example it is possible to appreciate the Yin-Yang pola­rity at gametic level (ovum as Yin, sperm as Yang), at the somatic cell level where throughout the cell Yin and Yang pola­rity prevails as best exemplified by the pairing of paternal and maternal chromo­somes, and at the molecular level where the polarity of charges gives the tiniest thing in the cell a dipole moment respon­sible for production of CytoElectroMag­netism (CEM) to run the affairs of the cell. Before taking up Yin-Yang, however, we may profitably be through with pancy­tologism.


 :: Pancytologism Top


Nucleus, chromosomes and mitosis have, for too long, dominated, as terms and concepts, the cytologic scene by the reason of their compelling visibility, making many more important aspects of cell structure and function appear insigni­ficant. "The development of cariology (nucleology) was somewhat detrimental to the study of the cell as a whole." [11] Chromosomes, representing a convenient organellar mechanism for conjugation and/or carriage during cell division, are basically functionless entities that form the most dominating feature of a "mor­phological event" [34] called mitosis. A functioning cell-interphase cell-shows no chromosomes, and non-dividing cells such as neurones show them never. A cell-to-divide doubles all its components during interphase-the most featureless and yet the truest, functioning state of the cell. [11],[34] The choreography of cell divi­sion (mitosis) needs the structural con­venience of chromosomes that show up during metaphase. And the chromosomes just show up: "The use of the electron microscope has contributed disappointing­ly little to precisely those areas of cyto­logy that were at their most developed stage during the heyday of the light microscope. The best electron micro­graphs of the metaphase chromosomes show only homogeneous granular masses." [30] The totally passive role of the oversung chromosomes even during the mechanical function of mitosis is piquant­ly expressed by Mazia [33] who parodied that "the role in mitosis of the chromo­some arms, which carry most of the gene­tic material, may be compared with that of a corpse at the funeral; they provide the reasons for the proceedings but do not take an active part in them." Signifi­cantly enough, RNA-synthesis (indicating that a cell is functioning) stops during mitosis because condensation of chromatin as chromosomes prevents all DNA func­tion. Nucleus, with its dominating chro­mosomes, is no longer the be-all and end-­all of a cell, as has been thought of and taught so far.

A change in cytologic thinking is dis­cernible. The neglected Cinderella named cytoplasm is coming into its own. Temin­ism-cytoplasmic RNA-directed DNA synthesis in the nucleus-is a disproof of the central dogma of molecular biology that has so far been denying cytoplasm this right to direct its presumed master, the nucleus. Various mitogenic stimuli are, directly or indirectly, controlled by the cytoplasm. [22],[34],[35] During mitosis, the nuclear membrane disappears, and the nucleoplasm is continuous with the cyto­plasm. [11],[34] Cytoplasm has "self-replicat­ing" organelles-centrioles, plastids, mito­chondria-that are endowed with genetic autonomy, a fact that underscores the role of the cytoplasm in transmission of the information from one cell generation to the next. [7],[11],[12],[34] Cellular differentiation involves not only the nucleus but all the cytoplasmic components as well. [7] Nuclear transplantation experiments involving transfer of nuclei from somatic cells into enucleate zygotes suggest that embryonic organizers are more likely a function of the cytoplasm rather than the nucleus. [17]

Summarizing, one could say that cell structure and function can no longer be viewed in such isolationistic concepts as of nucleus, chromosomes or mitosis. A cell should be viewed as a gestalt entity exhibiting throughout its length and breadth Yin-Yang polarity, vital to its existence and function.


 :: Yin-Yang Top


The assumption of Yin-Yang (female-­male Eve-Adam. negative-positive. Or homologous) polarity in a cell offers ex­planations for such remarkable cytologic features as rapid duplicability with total fidelity (ToFi), cell differentiation and function, gametogenesis, and embryo­genesis.


 :: ToFi Duplicability Top


Loewy and Siekevitz, [30] in the epilogue to their voluminous Cell Structure and Function remark almost in Galilean style, that although we are ignorant, "yet the cell replicates with remarkable precision and predictability."

The pancellular Yin-Yang polarity pro­vides a rapid, almost automatic and pre­cise way of duplicating a cell as unique as an individual organism. The astound­ ing rapidity-in a developing fetus, cells form at an average rate of 24000 per second; [37] repairing liver cells multiply as fast as the fastest liver cancer; [29] roots of rye plant grow by an aggregate length of 53 miles per day by average addition of 99,000 cells per second [38] -- is a function of Yin's ability to induce Yang and vice versa. The mitotic wave travels in a cell probably along a predetermined path, separating Yin and Yang pairs all along. Yin stays not without Yang and vice versa and the whole cell doubles itself. The double Yin and double Yang, so form­ed, repel each other leading to repulsion of the doubled cellular contents equally and precisely into two daughter cells, where restitution completes the formation of two individual daughter cells. The operational mechanism could be expres­sed as SIRRR: mitotic wave->Separation à Induction-> Replication -> Repulsion -> Restitution.

The converse corollary of the SIRRR mechanism is that in the absence of the mitotic wave the juxtaposed polar-oppos­ed Yin-Yang components exercise a restraining influence on each other pro­viding the cell great stability and no chance for any DNA duplication. The non-dividing cell populations, also called static or perennial, may be enjoying their legendary stability against a wide variety of mutagenic/mitogenic agents due to the facts that (a) there is no cytoplasmic arrangement for the transmission of a mitotic wave, and (b) the juxtaposed Yin and Yang stabilize each other. A proof of point (a) is available from the obser­vation that the never-dividing nerve cell nucleus readily duplicates when trans­planted into suitable cytoplasm. [10] The proof of (b) is an involved one: E. coli, for example, has almost continuous and rapid replication, [11] a unicellular feature dispensed with by Nature with the emer­gence of a multicellular organism which, for being itself, needed the faculty of eutely [25] meaning constancy of cell num­ber. Eutely is mediated by cell replica­tion, but more importantly by the check on replication-a faculty enjoyed by cells that have paired chromosomes with Yin­Yang polarity. Eutely in an organism and the diploidy of cells seem to have evolved hand in hand.

As a paradigm of the SIRRR process, one could take DNA, which in a body cell is in two polar forms-maternal and paternal. Juxtaposed, they form a stable quartet of 4 DNA-helices. Separated, on passage of mitotic wave, the two maternal helices replicate, and so do the paternal, leading to a double-dose of Yin (mater­nal) and Yang DNA. Yin repels Yin, Yang repels Yang, accounting for the so ­called cytokinesis whereby a pregnant cell separates into two. As a convenience, the helices condense as chromosomes which then travel over the mitotic spindle. Brown and Bertke, [7] in their chapter on mitosis, generalize that, "all of the extant hypotheses of chromosomal motion were discussed by Schrader in 1953. Then, as now (up to 1977), there was no accept­able hypothesis to account for all chromo­somal movements. But that is true of all cases of protoplasmic motion. Cells and cell organelles do move, but we cannot explain the movement, we can only de­scribe it." Yin-Yang polarity explains this and more. It is of interest that the mitotic spindle that stretches between two centrioles (which themselves multiply in Yin-inducing-Yang fashion) has close resemblance to a magnetic field between two magnetic poles. Further, the mecha­nical work of splitting the chromosomes and the cell is least energy-consump­tive, [11],[34] a point in favour of CEM operating.

The ToFi with which cell duplication occurs is a function of my Yin inducing only my Yang, and in my kidney cell, my kidney Yin inducing only my kidney Yang. It is common knowledge that a kidney cell is one in which the kidney genotype is manifest, all the rest of it be­ing suppressed. When a kidney cell duplicates itself, it should not happen that during the apparently chaotic process of cell-duplication, a change occurs and in­stead of two kidney cells, there get produced two gastric cells. With metazoism, came differentiation and with that came the need not only of a templatory ­mechanism but a regulatory-one too, to see that the liver cell begot liver cell and not a goblet cell, like the one lying in the adjacent intestine. With Yin and Yang together, Yin serves as a regulate for Yang and vice versa. An immediate corol­lary of this is that cells having only Yin (ovum) or only Yang (sperm) are nei­ther differentiated nor can multiply. How true! The gametes are the most non-func­tional and non-differentiated cells that are biological dead-ends, manufacturing no protein and incapable of dividing despite being endowed with enough double-heli­cal DNA. [7],[11] DNA, with all its genius for duplicating itself by templatory mechanism as so simplistically illustrated in textbooks, fails to replicate itself (in a gamete), being able to do so, (in somatic cells) only where it finds that a regulatory polar opposite is available.


 :: Differentiation Top

"In the case of phenomena such as cell differentiation, we have not even begun to conceive of a productive experimental approach." [30] We know nothing about cell differentiation-"a riddle wrapped in a mystery inside an enigma" [19] --whereby our 10,000 billion cells behave in a 100 different and specific ways despite the fact that each cell, like the parental zygo­tic cell, enjoys the total genotype. A la Jacob and Monod, such a process is ex­plained by "the modern but very signi­ficant aphorism that all genes do not func­tion all the time." [7] Another way of put­ting it is to say that "large amounts of DNA have no apparent function. Nobody knows why it is there. What all that ex­tra DNA is doing is one of biology's great riddles." [19] Yin-Yang concept could help.

A zygote is formed by union of Yin (ovum) and Yang (sperm) cells, both of which are metabolically inert, endow­ed as they are with totally "inactive DNA." [7],[11] No wonder that the zygotic cell is so featureless and functionless, secreting neither, say, saliva nor secretin. The zygote primarily functions [17] to rapid­ly form a large bunch of like cells which after a certain number of divisions, pro­grammedly secrete embryonic organisers that induce differentiation.

The way to make a cell be a gastric or prostatic cell when it could be everything else is to make Yin and Yang DNA (de­rived from mother and father) create field effects [Figure 4] in the functional area (less than 5%) of the genotype. This could be done by pushing Yin and Yang apart, making them thus look rarified and invisible - a prime structural feature of functioning DNA called euchromatin. In the much larger (over 95%) remaining genotype, the Yin and Yang could be al­lowed to be close together, too close in fact, automatically because of mutual at­traction, to obviate a field effect, and to create a compact, visible mass of DNA that is functionless and is called hetero­chromatin. As De Robertis et al [11] observe "heterochromatin represents con­densed regions of the chromosome. Elec­tron microscopic studies have demons­trated that it consists of chromatin fibers identical with those of the nonheterochromatic region, except that fibers in hetero­chromatin are more tightly folded. This property may account for some of the metabolic peculiarities of heterochroma­tin, particularly the absence of RNA syn­thesis, the genetic inertness and the late replication." This explains why cancer cells which are busy doing nothing have the highest quantity of heterochromatin that makes the nuclei hyperchromatic and pyknotic - a diagnostic feature of can­cer cells that cancer pathologists and cy­tologists heavily rely on, but falsely so for nuclear transplantation experiments [45] strongly suggest that the malignancy of a cancer cell lies in, and is governed by the cancer cell's cytoplasm, the nucleus play­ing a subservient role.

Differentiation thus becomes, in cells cancerous or normal, the selective syner­gization of Yin and Yang elements in a diploid cell. Such mechanism must be operating with ease and uniformity throughout the vertebrate phylogeny from the fishes to the ferrets making the liver cells from different species exhibit similarity-in fact, a clannish disposition.

What could be the mechanism of selec­tive Yin-Yang separation/fusion in the nucleus of a differentiated cell? (Cancer cell, too, is a differentiated cell). Cyto­plasm seems the answer. It is accepted that cytoplasm, "the true internal milieu of the cell", mediates cell differentiation by controlling nuclear DNA. [7],[8],[11],[14],[22],[34],[35] The cytoplasm of thyroid cell pulls apart the nuclear Yin from Yang in the thyroid region of the genome to create functional field-effect; the rest Yin-Yang not subjected to any pulls get struck to­gether, like the N and S poles of a mag­net to form the inert but very much visi­ble part of the nucleus. The early repli­cation of euchromatin and the late repli­cation of heterochromatin get explained by the fact that the former is already separated (thus sort of poised for SIRRR initiated by the mitotic wave) in contrast to the compactness of the latter.

Granting cytoplasm the onus of differ­entiating a cell brings home the relevance of pancytologism: A cell begetting a cell in ToFi fashion must not only have the nucleus duplicating it precisely point by point, but even the cytoplasm, for it is the latter that is going to keep the nucleus "differentiated." Let us hail pancytolog­ism and cytoplasm.


 :: Cells: Gametic and Zygotic Top

"A hen is only an egg's way of making another egg." [9] But Butler's facetious aphorism. [9] fails to convey the true story. A hen, can produce an egg, but an egg can­not reciprocate, being biologically but a dead-end. It can neither produce another egg, nor can it produce a hen (an organ­ism) unless complemented by another biologic dead-end, a sperm. An egg that makes a hen is not an egg, but a zygote. In polar parlance, an egg is Yin (a nega­tive cell) that must be complemented by the positive Yang before anything can happen.


 :: The Need for Gametes Top


In 1892, the need for meiosis (halving of chromosomes) in gametogenesis was intuitively theorized - "a postulate that was quickly confirmed cytologically by others". [25] But gametogenesis is not mere halving of a cell or its chromosomes, but the production of polar opposite cells: "Rather typically, the gametes that unite are somewhat different from one another .... the extreme contrast (is) of sperm and ova." [7] And these cells, although a great contrast one from another, have a pristine powerful affinity for each other - reminiscent of Yin's love for and de­pendence on Yang, and vice versa. In­troduction of a microneedle between the two pronuclei of a recently fertilized egg, revealed that the two pronuclei acted as if attempting to overcome the resistance and complete the conjugation. [7],[11]

The generalization that the "formation of gametes is more widespread than even sexuality" [7] more than emphasizes the in­dispensability of gametes in the genesis of metazoic organisms. At unicellular levels too, polarity exists as exhibited by the plus and minus strains of some algae, fungi, and protozoa. [7] Even a plus strand virus getting into a bacterium, first gets for itself a minus strand, and the two to­gether, constituting Yin with Yang, as it were, multiply. The host bacterium eventually releases only the plus strand to the outside. [30] This viral phenomenon most cogently illustrates what happens at the, say, human level: A sperm (plus gamete) meets an ovum (minus gamete), and the two put together form the adult male which then releases only the plus cells - sperms. If the adult is a female, only the minus cells are released - ova. Butler could be paraphrased to say that an egg meets a sperm to produce a hen or cock to get once again an ovum or a sperm.


 :: The Nature of Gametes Top


An ovum and a sperm are more import­ant than the sexes they represent. If in mammals and drosophila, it is the sperm that determines the sex of the offsprings, it is the ovum that dictates this in birds, reptiles and fishes. [11] In bees, it is the sperm that makes a female, the unsperm­ed egg producing a male. [25] Further dur­ing the meiotic conjugation preparatory to the formation of an ovum or a sperm, the paternally derived chromosomes freely exchange genetic material with the cor­responding (homologous) maternal chro­mosomes, [7],[11] sex chromosomes being no exception. [16] Thus [Figure 5] a testis pre­pares sperm without any paternal bias, and so does an ovary, without any mater­nal bias. What the testis does is to give rise to a Yang (active) cell, homologous to the Yin (passive) produced by the ovary.

Just as the foregoing asexualizes sperm and ovum, the individual they produce, female or male, is neither exclusively female nor exclusively male, but a balance of the two, a phenomenon that is the best tribute to the inseparability of and the cooperation between Yin and Yang. "Sex determination is the result of a genie balance between factors of maleness and femaleness that are pre­sent simultaneously in each sex." [11] In genetic terms, in every human being, fac­tors controlling maleness and femaleness are codominant. Each human being is thus a hermaphrodite, the HERMaphro­dite being males, and the hermAPHRO­DITE being females, depending on which way the balance tilts. (No wonder, there are many shades in between, mindwise and/or bodywise). "The realization of the wholeness of human personality al­ways depends on the development and in­tegration of both (feminine and mascu­line) sides. This discovery is deeply con­firmed by the Asian symbol of Tao, the great life swinging between the poles of Yin and Yang." [42]

It is interesting to note that testis pro­duces both adrogens and estrogens, and so does the ovary, in differing propor­tions. Even gross anatomic structures tend to be sex-indifferent: [20] "The arte­rial blood supply, venous and lymph drainage and the nerve supply of the structures comprising the external genital organs of the female are similar to those relating to the homologous structures in the male." In endocrinologic practice, the terms feminization of a male and the masculinization of a female speak for the inherent balance of two polar forces, in clinical terms.
"It is an intimidating thought that there is more information on organic chemical synthesis packed into the head of a sper­matozoon than in all the 200 volumes of The Journal of Biological Chemistry." [8] The same could be said of an ovum. Yet, left on its own, a sperm or an ovum be. haves as a biologic dead-end, incapable of doing anything. No cell could be me­tabolically more inert - "for weeks, months, or even years." [10],[11] Yet these dead cells (sperm can be stored frozen­dead for a millenium) beget life, once brought together. Could one say they constitute half-life or half-cell? Knowing the universality of Yin-Yang, it would be quite scientific to say that an ovum is Yin, sperm is Yang and we all are the em­bodiments of Yin-Yang, - the Wattsian Two Hands of God. [44]


 :: CEM, Yin-Yang Top


A la Einstein, [1] CEM (CytoElectroMag­netism) and Yin-Yang are, as concepts, free creations of mind which have the merit of allowing us cytologically, gene­tically, and biologically to take out more than we put in. As such the borderline between the animate and the inanimate is hazy; CEM and Yin-Yang erase the line further thus justifying the growing basic assumption that living matter and physical matter are part of the same con­tinuum and subject to the same natural laws. If Einstein abrogated the dicho­tomy between matter and energy, CEM and Yin-Yang could do a similar job by presenting all of we living as essentially field-effects. The molecules making us provide the matter, the abstract but grea­ter truth between the molecules makes us what we are, for better or worse.

Modern genetics and cytology has had a chequered career: We taught that there are 48 chromosomes in a human cell, till Tjio and Levan proved them, in 1956, to be 46. [16] We gave Beadle and Tatum No­bel prize for their one-gene-one-enzyme hypothesis. Soon things changed com­pletely, upsetting this Nobel-winning view. Without ever defining it precisely even for once, we have talked and talked of a gene or the gene, to learn only recently that a gene or the gene is far more complicated. [13] May be, one service that CEM and Yin-Yang may do is to provide some more denouements in our thinking on cytology and genetics. CEM and Yin­Yang claim no more than pointing a finger towards a possibly different way.

 
 :: References Top

1.Albert Einstein: Philosopher-Scientist. Ed. Schilpp, P. A., Tudor Publ. Co. New York, 1951, p. 378.  Back to cited text no. 1    
2.Athenstaedt, H.: Pyroelectric and piezo­electric properties of vertebrates. Ann. N.Y. Acad. Sci. 238: 68-93, 1974.  Back to cited text no. 2    
3.Bassett, C. A. L., Pawluk, R. J. and Pilla, A. A.: Acceleration of fracture repair by electromagnetic fields. A sur­gically noninvasive method. Ann. N.Y. Acad. Sci., 238: 242-261, 1974.  Back to cited text no. 3    
4.Becker, R. 0.: The basic biolcgical data transmission and control system influenc­ed by electrical forces. Ann. N. Y. Acad. Sci. 238: 236-241, 1974.  Back to cited text no. 4    
5.Brick, I., Schaeffer, B. F., Schaeffer, H. E. and Gennaro, J. F., Jr.: Electro­kinetic properties and morphologic char­acteristics of amphibian gastrula cells. Ann. N.Y. Acad. Sci. 238: 390-407, 1974.  Back to cited text no. 5    
6.Brock, T. D.: Life at high temperatures. Science, 158: 1012-1019, 1967.  Back to cited text no. 6    
7.Brown, W. V. and Bertke, E. M.: Text­bcok of Cytology. C. V. Mosby, Saint Louis, 1969.  Back to cited text no. 7    
8.Burnet, M.: The Integrity of the Body. Harvard Univ. Press, Cambridge, 1962, p. 72.  Back to cited text no. 8    
9.Butler, S.: Quoted by Gore, R. in 19, p. 382.  Back to cited text no. 9    
10.De Petrocellis, B. and Monroy, A.: Re­gulatory processes of DNA synthesis in the embryo. Endeavour, 33: 92-98, 1974.  Back to cited text no. 10    
11.De Robertis, E. D. P., Saez, F. A. and De Robertis, E. M. F., Jr.: Cell Bio­logy. W. . B. Saunders, Philadelphia, 1975.  Back to cited text no. 11    
12.Dewey, W. C. and Fuhr, M. A.: Quanti­fication of mitochondria during the cell cycle of Chinese hamster cells. Exptl. Cell Res., 99: 23-30, 1976.  Back to cited text no. 12    
13.Editorial: Building a genetic tool-kit. Lancet, 2: 779, 1976.  Back to cited text no. 13    
14.Einstein, A. and Infeld, L.: The Evolu­tion of Physics. Simon and Schuster. New Ycrk, 1967.  Back to cited text no. 14    
15.Elsdale, T. and Bard, J.: Cellular in­teractions in morphogenesis of epithelial mesenchymal systems. J. Cell Biol., 63: 343-349, 1974.  Back to cited text no. 15    
16.Emery, A. E. H.: Inheritance in fami­lies. In, "Elements of Medical Genetics." Churchill Livingstone, Edinburgh and London, 1975, pp. 96-117.  Back to cited text no. 16    
17.Epel, D., Pressman, B. C. and Weaver, A. M.: The programme of structure and metabolic changes following fertilization of sea urchin eggs. In, "The Cell Cycle". Ed. Padilla, G. M., Whitson, G. L. and Cameron, J. L. Academic Press, New York, 1969, pp. 280-298.  Back to cited text no. 17    
18.Florey, E.: The sense organs and sen­sory physiology. In, "An Introduction to General and Comparative Animal Physic­logy." W. B. Saunders, Philadelphia, 1966, pp. 609-645.  Back to cited text no. 18    
19.Gore, R.: The awesome worlds within a cell. National Geographic, 150: 355­395, 1976.  Back to cited text no. 19    
20.Gray's Anatomy. Ed. Warwick, R. and Williams, P. L., Longman, Edinburgh, 1973, p. 1364.  Back to cited text no. 20    
21.Gross, B.: The electret. Endeavour, 30: 115-119, 1971.  Back to cited text no. 21    
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23.Guzelsu, A. N. and Akcasu, A.: A piezoelectric model for nerve conduction. Ann. N.Y. Acad. Sci., 238: 339-349. 1974.  Back to cited text no. 23    
24.Hanawalt, P. C.: Repair of genetic ma­terial in living cells. Endeavour, 31: 83­87, 1972.  Back to cited text no. 24    
25.Hickman, C. P.: "Integrated Principles of Zoology." C. V. Mosby, St. Louis, 1966.  Back to cited text no. 25    
26.Koestler, A.: "The Sleepwalkers." Pen­guin, Harmondsworth, London, 1964, p. 40.  Back to cited text no. 26    
27.Lerchenthal, C. H.: Panel discussion: The electrophysical and electrochemical properties of living tissue. Ann. N. Y. Acad. Sci., 238: 233, 1974.  Back to cited text no. 27    
28.Lowenhaupt, B.: Thermodynamic consi­derations of bioelectric potential. Ann. N.Y. Acad. Sci., 238: 214-216, 1974.  Back to cited text no. 28    
29.Loewenstein, W. R. and Penn, R. D.: Intercellular communication and tissue growth. J. Cell Biol., 33: 2'35-241, 1967.  Back to cited text no. 29    
30.Loeway, A. G. and Siekevitz, P.: "Cell Structure and Function." Amerind, New Delhi, 1974.  Back to cited text no. 30    
31.Mascarenhas, S.: The electret effect in bone and biopolymers and the bound­water problem. Ann. N.Y. Acad. Sci., 238: 36-50, 1974.  Back to cited text no. 31    
32.Mascarenhas, S.: Panel discussion: The electrophysical and electrochemical pro­perties of living tissue. Ann. N. Y. Acad. Sci., 238: 229, 230, 1974.  Back to cited text no. 32    
33.Mazia, D.: Mitosis and physiology of cell division. In, "The Cell." III, Ed. Bra­chet, J. and Mirsky, A. K. Academic Press, New York, 1961, p. 80.  Back to cited text no. 33    
34.Mitchison, J. M.: "The Biology of the Cell Cycle." Cambridge Univ. Press, Cambridge, 1971.  Back to cited text no. 34    
35.Moore, J. A.: Nuclear transfer of em­bryonic cells of amphibia. In, "New Ap­proaches in Cell Biology." Ed. Walker, P.M.B., Academic Press, London and New York, 1960, pp. 1-14.  Back to cited text no. 35    
36.Myerscn, A.: Quoted in "Familiar Medi­cal Quotations." Ed. Strauss, M. B., Little Brown & Co., Boston, 1968, p. 2;87.  Back to cited text no. 36    
37.Nilsson, L.: "Behold Man." Harrap, London, 1973, p. 49.  Back to cited text no. 37    
38.Platt, R.: "Wonders of Nature." Purnell, London, 1973, pp. 102, 103.  Back to cited text no. 38    
39.Romero-Sierra, C.: Biological effects of nonionizing radiaticn: An outline of fun damental laws. Ann. N.Y. Acad. Sci., 238: 263-270, 1974.  Back to cited text no. 39    
40.The Random House Dictionary of the English Language. Ed. Stein, J., Ran­dom House, New York, 1967.  Back to cited text no. 40    
41.The Times of India, April 27, 1977, p. 8.  Back to cited text no. 41    
42.von Duerckheim, G. K.: Eastern influ­ence on recent trends in western spiri­tuality. Nehru Memorial Lecture 1974. German News, 16: 7-12, 1974.  Back to cited text no. 42    
43.Watson, J. D.: "The Double Helix." Penguin, Harmondsworth, 1974, p. 134.  Back to cited text no. 43    
44.Watts, A. W.: "The Two Hands of God: The Myths of Polarity." Collier Books, Toronto, 1969.  Back to cited text no. 44    
45.Weaver, R. F.: The cancer puzzle. Na­tional Geographic, 150: 396-399, 1976.  Back to cited text no. 45    
46.Yutang, L.: "The philosophy of suffering." Abbottempo, Book 3. Ed. Richardson, R. G. Abbott Universal Ltd., Illinois, 1969, pp. 34-36.  Back to cited text no. 46    


    Figures

  [Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5]



 

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Online since 12th February '04
İ 2004 - Journal of Postgraduate Medicine
Official Publication of the Staff Society of the Seth GS Medical College and KEM Hospital, Mumbai, India
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