Otto Warburg On The Prime Cause &Prevention of Cancer: Respiration ofOxygen in Normal Body Cells vs.Fermentation of Sugar in Cancer Cells

The Prime Cause and Prevention of Cancerwith two prefaces on prevention

Revised lecture at the meeting of the Nobel Laureates onJune 30, 1966 at Lindau, Lake Constance, Germany

byOtto Warburg

Director, Max Planck-Institute for Cell Physiology, Berlin-Dahlem

English Edition by Dean BurkNational Cancer Institute, Bethesda, Maryland, USA

The Second Revised EditionPublished by Konrad Triltsch, Würzburg, Germany, 1969

Otto Warburg1883-1970

Preface to the Second Revised German Edition ofthe Lindau Lecture

(The way to prevention of cancer)

Since the Lindau lecture of June 1966 many physicians haveexamined - not unsuccessfully - the practical consequencesof the anaerobiosis of cancer cells. The more who participatein these examinations, the sooner will we know what can beachieved. It is a unique aspect of these examinations thatthey can be carried out on human patients, on the largestscale, without risk; whereas experiments on animals havebeen misleading many times. The cure of human cancer willbe the resultant of biochemistry of cancer and ofbiochemistry of man.

A list of selected active groups of respiratory enzymes willsoon be published, to which we recently added cytoheminand d-amino-Levulinic acid, the precursor of oxygen-transferring hemins. In the meantime commercial vitaminpreparations may be used that contain, besides othersubstances, many active groups of the respiratory enzymes.Most of these may be added to the food. Cytohemin andvitamin B 12 may be given subcutaneously. (A synonym of"active group" is “prosthetic" group of an enzyme.)

There exists no alternative today to the prevention of canceras proposed at Lindau. It is the way that attacks the primecause of cancer most directly and that is experimentallymost developed. Indeed millions of experiments in man,through the effectiveness of some vitamins, have shown,that cell respiration is impaired if the active groups of therespiratory enzymes are removed from the food; and that

cell respiration is repaired at once, if these groups are addedagain to the food. No way can be imagined that isscientifically better founded to prevent and cure a disease,the prime cause of which is an impaired respiration. Neithergenetic codes of anaerobiosis nor cancer viruses arealternatives today, because no such codes and no suchviruses in man have been discovered so far; butanaerobiosis has been discovered.8

What can be achieved by the active groups, when tumorshave already developed? The answer is doubtful, becausetumors live in the body almost anaerobically, that is underconditions that the active groups cannot act.

On the other hand, because young metastases live in thebody almost aerobically, inhibition by the active groupsshould be possible. Therefore we propose first to remove allcompact tumors, which are the anaerobic foci of themetastasis. Then the active group should be added to thefood, in the greatest possible amount, for many years, evenfor ever. This is a promising task. If it succeeds, then cancerwill be a harmless disease.

Moreover, we discovered recentlya) in experiments withgrowing cancer cells in vitro that very low concentrations ofsome selected active groups inhibit fermentation and thegrowth of cancer cells completely, in the course of a fewdays. From these experiments it may be concluded that de-differentiated cells die if one tries to normalize theirmetabolism. It is a result that is unexpected and that

encourages the task of inhibiting the growth of metastaseswith active enzyme groups.

As emphasized, it is the first precondition of the proposedtreatment that all growing body cells be saturated withoxygen. It is a second precondition that exogenouscarcinogens be kept away, at least during the treatment. Allcarcinogens impair respiration directly or indirectly byderanging capillary circulation, a statement that is provedby the fact that no cancer cell exists, the respiration of whichis not impaired. Of course, respiration cannot be repaired ifit is impaired at the same time by carcinogens.

It has been asked after the Lindau lecture why the repair ofrespiration by the active groups of the enzymes wasproposed as late as 1966, although the fermentation of thecancer cell was discovered as early as 1923. Why was somuch time lost?

He who asked this questions ignored that in 1923 thechemical mechanism of enzyme action was still a secret ofliving nature alone.1 The first active group of an enzyme,"Iron, the Oxygen-Transferring Part of the RespiratoryEnzyme" was discovered in 19242. There followed in twodecades the discoveries of the O2-transferringmetalloproteins, the flavoproteins and the pyridinproteins, aperiod that was concluded by the "Heavy Metals asProsthetic Groups of Enzymes"3 and by the "HydrogenTransferring Enzymes"4 in 1947 to 1949.

Moreover, during the first decades after 1923 glycolysis andanaerobiosis were constantly confused, so that nobodyknew what was specific for tumors. The three famous anddecisive discoveries of DEAN BURK and colleagues5 of theNational Cancer Institute at Bethesda were of the years1941, 1956 and 1964: first, that the metabolism of theregenerating liver, which grows more rapidly than mosttumors, is not cancer metabolism, but perfect aerobicembryonic metabolism; second, that cancer cells, descendedin vitro from one single normal cell, were in vivo the moremalignant, the higher the fermentation rate; third, that invivo growing hepatomas, produced in vivo by differentcarcinogens, were in vivo the more malignant, the higherthe fermentation rate. Furthermore, the very unexpectedand fundamental fact, that tissue culture is carcinogenic andthat a too low oxygen pressure is the intrinsic cause werediscovered6-8 in the years 1927 to 1966. Anaerobiosis ofcancer cells was an established fact only since 1960 whenmethods were developed7 to measure the oxygen pressureinside of tumors in the living body.

This abridged history shows that even the greatest geniuswould not have been able to propose in 1923, what wasproposed at Lindau in 1966. As unknown as the primecause of cancer was in 1923 was the possibility to prevent it.

Life without oxygen in a living world that has been createdby oxygen9 was so unexpected that it would have been too

much to ask that anaerobiosis of cancer cells should beaccepted at once by all scientists. But most of the resistancedisappeared when at Lindau it was explained that on thebasis of anaerobiosis there is now a real chance to get rid ofthis terrible disease, if man is willing to submit toexperiments and facts. It is true that more than 40 yearswere necessary to learn how to do it. But 40 years is a shorttime in the history of science.10

Wiesenhof über Idar-Oberstein, August 1967OTTO WARBURG

a) In press in Hoppe-Seylers Zeitschrift für PhysiologischeChemie 1967. 10 g riboflavin per ccm or 10 g d-Aminolevulinic acid inhibit in vitro growth andfermentation completely but inhibit respiration less. Asexpected, ascites cancer in vivo is not cured.

Two years after the Lindau lecture LINUS PAULING(Science Vol. 160, Page 265, 1968) proposed to controlmental diseases by adding to the food the active groups ofrespiratory enzymes. But here the experimental basis waslacking. No mental disease is known so far, the prime causeof which is an impairment of the respiration of brain cells.

Preface to the First Edition(Prevention of endogenous cancer)

Most experts agree that nearly 80% of cancers could beprevented, if all contact with the known exogenous

carcinogens could be avoided. But how can the remaining20%, the endogenous or so-called spontaneous cancers, beprevented?

Because no cancer cell exists, the respiration of which isintact1, it cannot be disputed that cancer could be preventedif the respiration of the body cells would be kept intact.

Today we know two methods to influence cell respiration.1The first is to decrease the oxygen pressure in growing cells.If it is so much decreased that the oxygen transferringenzymes are no longer saturated with oxygen, respirationcan decrease irreversibly and normal cells can betransformed into facultative anaerobes.

The second method to influence cell respiration in vivo is toadd the active groups of the respiratory enzymes to thefood of man. Lack of these groups impairs cell respirationand abundance of these groups repairs impaired cellrespiration - a statement that is proved by the fact that thesegroups are necessary vitamins for man.2

To prevent cancer it is therefore proposed first to keep thespeed of the blood stream so high that the venous bloodstill contains sufficient oxygen; second, to keep high theconcentration of hemoglobin in the blood; third to addalways to the food, even of healthy people, the activegroups of the respiratory enzymes; and to increase thedoses of these groups, if a precancerous state3 has already

developed. If at the same time exogenous carcinogens areexcluded rigorously, then most cancers may be preventedtoday.

These proposals are in no way utopian. On the contrary,they may be realized by everybody, everywhere, at anyhour. Unlike the prevention of many other diseases theprevention of cancer requires no government help, and noextra money.

Wiesenhof, August 1966Otto Warburg

The Prime Cause and Prevention of Cancer

(Revised Lindau Lecture)

By OTTO WARBURG(Director, Max Planck Institute for Cell Physiology, Berlin-

Dahlem, Germany) English Edition by DEAN BURK*),National Cancer Institute, Bethesda, Maryland*)

Note by DEAN BURK: Adapted from a lecture originallydelivered by O. Warburg at the 1966 annual meeting of

Nobelists at Lindau, Germany. O. Warburg won the NobelPrize in Medicine in 1931 for his discovery of the oxygen-transferring enzyme of cell respiration, and was voted a

second Nobel Prize in 1944 for his discovery of the activegroups of the hydrogen transferring enzymes. Many

universities, like Harvard, Oxford, Heidelberg have offeredhim honorary degrees. He is a Foreign member of the Royal

Society of London, a Knight of the Order of Merit foundedby Frederick the Great, and was awarded the Great Crosswith Star and Shoulder ribbon of the Bundesrepublik. Hismain interests are Chemistry and Physics of Life. In both

fields no scientist has been more successful.

There are prime and secondary causes of diseases. Forexample, the prime cause of the plague is the plaguebacillus, but secondary causes of the plague are filth, rats,and the fleas that transfer the plague bacillus from rats toman. By a prime cause of a disease I mean one that is foundin every case of the disease.

Cancer, above all other diseases, has countless secondarycauses. But, even for cancer, there is only one prime cause.Summarized in a few words, the prime cause of cancer isthe replacement of the respiration of oxygen in normalbody cells by a fermentation of sugar. All normal bodycells meet their energy needs by respiration of oxygen,whereas cancer cells meet their energy needs in great partby fermentation. All normal body cells are thus obligateaerobes, whereas all cancer cells are partial anaerobes. Fromthe standpoint of the physics and chemistry of life thisdifference between normal and cancer cells is so great thatone can scarcely picture a greater difference. Oxygen gas,the donor of energy in plants and animals is dethroned inthe cancer cells and replaced by an energy yielding reactionof the lowest living forms, namely, a fermentation ofglucose.

The key to the cancer problem is accordingly the energetics

of life, which has been the field of work of the Dahleminstitute since its initiation by the Rockefeller Foundationabout 1930. In Dahlem the oxygen transferring andhydrogen transferring enzymes were discovered andchemically isolated. In Dahlem the fermentation of cancercells was discovered decades ago; but only in recent yearshas it been demonstrated that cancer cells can actually growin the body almost with only the energy of fermentation.Only today can one submit, with respect to cancer, all theexperiments demanded by PASTEUR and KOCH as proofof the prime causes of a disease. If it is true that thereplacement of oxygen-respiration by fermentation is theprime cause of cancer, then all cancer cells withoutexception must ferment, and no normal growing cell oughtto exist that ferments in the body.

An especially simple and convincing experiment performedby the [US] Americans MALMGREN and FLANEGANconfirms the view. If one injects tetanus spores, which cangerminate only at very low oxygen pressures, into the bloodof healthy mice, the mice do not sicken with tetanus,because the spores find no place in the normal body wherethe oxygen pressure is sufficiently low. Likewise, pregnantmice do not sicken when injected with the tetanus spores,because also in the growing embryo no region exists wherethe oxygen pressure is sufficiently low to permit sporegermination. However, if one injects tetanus spores into theblood of tumor-bearing mice, the mice sicken with tetanus,because the oxygen pressure in the tumors can be so lowthat the spores can germinate. These experiments

demonstrate in a unique way the anaerobiosis of cancercells and the non-anaerobiosis of normal cells, in particularthe non-anaerobiosis of growing embryos.

The Fermentation of Morris Hepatomas

A second type of experimentation demonstrates aquantitative connection between fermentation of tumorsand growth rate of tumors.

If one injects rats with cancer-inducing substances ofdifferent activities, one can create, as HAROLD MORRIS ofthe National Cancer Institute in Bethesda has found, livercancers (hepatomas) of very different degrees ofmalignancy. Thus, one strain of tumor may double its massin three days, another strain may require 30 days. RecentlyDEAN BURK and MARK WOODS 3), also of the NationalCancer Institute, measured the in vitro rates of anaerobicfermentation in different lines of these hepatomas, andobtained a curve (Fig. 1) that shows a quantitativerelationship between fermentation and growth rate, andtherefore between fermentation and malignancy, in thesevarious tumor strains. The fermentation increases with themalignancy, and indeed the fermentation increases evenfaster than the malignancy.

Special interest attaches to the fermentation of the mostslowly growing hepatomas, because several investigators inthe United States believed that they had found *) that suchtumors had no fermentation; that is that anaerobiosis cannot

be the prime cause of cancer.

*) For example see C. H. BÖHRINGER SON, Ingelheim amRhein, the factory Work-Journal "Das Medizinische Prisma", Vol. 13, 1963. Here a lecture of VAN POTTER (Madison,Wisconsin) is reprinted where owing to the slow-growingMorris-tumors anaerobiosis as prime cause of cancer isrejected and the lack of "intracellular feeding back" isclaimed to be the real cause of cancer.

Fig. 1. Velocity of growth and fermentation of the Morris-Hepatomas, according to DEAN BURK and MARK WOODS

DEAN BURK and MARK WOODS saw immediately fromtheir curves that in the region of the zero point the rate offermentation was so small that it could no longer bemeasured by the usual gross methodology employed by theaforementioned workers, whereas in the same region thesmallest growth rate was always easily measurable. BURKand WOODS saw, in other words, that in the region of thezero pint of their curves the growth test was more sensitive

than the usual fermentation test. With refined and adequatemethods for measuring fermentation of sugar (glucose) theyfound, what any physical chemist after a glance at the curvewould realize, that even the most slow-growing Morrishepatomas fermented sugar.

The results of DEAN BURK and MARK WOODS wereconfirmed and extended by other workers withindependent methods. PIETRO GULLINO, also in Bethesda,developed a perfusion method whereby a Morris hepatomagrowing in the living animal could be perfused for longperiods of time, even weeks, by means of a single artery andsingle vein, and the blood entering and leaving any giventumor could be analyzed. GULLINO found with thismethod that the slow-growing Morris hepatomas alwaysproduced fermentation lactic acid during their growth. Thiswas in contrast to liver, where, as known since the days ofCLAUDE BERNARD, lactic acid is not produced butconsumed by liver; the difference between liver and Morristumors in vivo is thus infinite (+ vs. -). GULLINO furtherfound that tumors grow in vivo with diminished oxygenconsumption. In summary, GULLINO’s findings indicatethat the slow-growing Morris hepatomas are partialanaerobes. SILVIO FIALA, a biochemist at the University ofSouthern California, found that not only did the slow-growing hepatomas produce lactic acid, but also that thenumber of their oxygen-respiring grana was reduced.

The slow-growing Morris hepatomas are therefore farremoved from having refuted the anaerobiosis of tumors.

On the contrary, they are the best proof of this distinctivecharacteristic. For forty years cancer investigators havesearched for a cancer that did not ferment. When finally anon-fermenting tumor appeared to have been found in theslow-growing Morris tumors, it was shown to be amethodological error.

Transformation of Embryonic Metabolism into Cancer Metabolism

A third type of experiment, from the institute in Dahlemwith coworkers GAWEHN, GEISSLER and LORENZ, islikewise highly pertinent. Having established thatanaerobiosis is that property of cancer cells thatdistinguishes them from all normal body cells, we attackedthe question, namely, how normal body cells may becometransformed into anaerobes 6)7)8).

If one puts embryonic mouse cells into a suitable culturemedium saturated with physiological oxygen pressures,they will grow outside the mouse body, in vitro, and indeedas pure aerobes, with a pure oxygen respiration, without atrace of fermentation. However, if during the growth oneprovides and oxygen pressure so reduced that the oxygenrespiration is partially inhibited, the purely aerobicmetabolism of the mouse embryonic cells is quantitativelyaltered within 48 hours, in the course of two cell divisions,into the metabolism characteristic of fermenting cancer cells.Fig. 2 illustrates the very simple experimental procedureinvolved.

If one then brings such cells, in which during their growthunder reduced oxygen pressure a cancer cell metabolismhas been produced, back under the original high oxygenpressure, and allows the cell to grow further, the cancermetabolism remains. The transformation of embryonic cellmetabolism into cancer cell metabolism can thus beirreversible, and important result, since the origin of cancercells from normal body cells is an irreversible process. It isequally important that these body cells whose metabolismhas thus been transformed into cancer metabolism nowcontinue to grow in vitro as facultative anaerobes. Theduration of our experiments is still too limited to haveyielded results of tests of inoculation of such cells back intomice, but according to all previous indications such cellswill later grow as anaerobes upon transplantation intoanimals.

In any case, these experiments belong to the most importantexperiments in the field of cancer investigation since thediscovery of the fermentation of tumors. For cancermetabolism, heretofore, measured so many thousand oftimes, has now been induced artificially in body cells by thesimplest conceivable experimental procedure, and with thisartificially induced cancer metabolism the body cells divideand grow as anaerobes in vitro*).

*) The experiments were at once repeated, when they werepublished, of course without acknowledgment. See forexample Th. Goodfriend, D. M. Sokol and N. O. Kaplan, J.molecular Biol. 15, 18, 1966.

In recent months we have further developed ourexperimental arrangements so that we can measuremanometrically the oxygen respiration and fermentation ofthe growing mouse embryonic cells during the metabolictransformation. Fig. 3 shows the experimental arrangement.We find by such experiments that 35 percent inhibition ofoxygen respiration already suffices to bring about such atransformation during cell growth**). Oxygen pressures thatinhibit respiration 35 percent can occur at the end of bloodcapillaries in living animals, so that the possibility arisesthat cancer may result when too low oxygen pressuresoccur during cell growth in animal bodies.

**) These experiments show, like the curve of Dean Burkand Mark Woods in Fig. 1, that it is more correct todesignate tumor cells as "partial anaerobes" rather than"facultative anaerobes". A body cell is transformed into atumor cell if only a part of the respiration is replaced byfermentation.

Fig. 2. Method to transform embryonic metabolism intocancer metabolism by decreasing the oxygen pressure

(Weniger O2 = Less O2 Viel O2 = Much O2)

The induction of cancers by solid materials injected intoanimals is a further experimental indication of thispossibility. If one implants discs of solid substances underthe skin of rats, the discs will soon be surrounded bycapsules of living tissue that will be nourished with bloodvessels from the hypodermis. Sarcomas very frequentlydevelop in these capsules. It is immaterial whether the soliddiscs are chemically plastics, gold, or ivory, etc. Whatproduces the cancer is not the chemical nature of the soliddiscs, but the special kind of blood nourishment supplied tothe tissue encapsulating the discs. This blood provisionvaries with the site and in adequacy within a given animal,and induces cancer from the low oxygen pressure in theencapsulating disc.

Fig. 3. Method to measure manometrically respiration andfermentation during the transformation of embryonic into

cancer metabolism*)(Luft = Air)

*) The vessels are not shaken, because shaking inhibitsgrowth. Therefore, the oxygen pressure in the liquid phaseat the bottom of the vessels is much lower than in thegasphase. For example, when the oxygen pressure in the gasphase was 2000 mm H2O it was at the bottom of the vessels130 mm H2O. (O. Warburg, A. Geissler and S. Lorenz,Zeitschr. für Naturforschung 20b, 1070, 1965.)

Thermodynamics

If a lowered oxygen pressure during cell growth may causecancer, or, more generally, if any inhibition of respirationduring growth may cause cancer, then a next problem is toshow why reduced respiration induces cancer. Since wealready know that with a lowering of respirationfermentation results, we can re-express our question: Whydoes cancer result if oxygen-respiration is replaced byfermentation?

The early history of life on our planet indicates that lifeexisted on earth before the earth’s atmosphere containedfree oxygen gas. The living cells must therefore have beenfermenting cells then, and, as fossils show, they wereundifferentiated single cells. Only when free oxygenappeared in the atmosphere - some billion years ago - didthe higher development of life set in, to produce the plantand animal kingdoms from the fermenting, undifferentiated

single cells. What the philosophers of life have called"Evolution créatrice" has been and is therefore the work ofoxygen.

The reverse process, the dedifferentiation of life, takes placetoday in greatest amount before our eyes in cancerdevelopment, which is another expression fordedifferentiation. To be sure, cancer development takesplace even in the presence of free oxygen gas in theatmosphere, but this oxygen may not penetrate in sufficientquantity into the growing body cells, or the respiratory apo-enzymes of the growing body cells may not be saturatedwith the active groups. In any case, during the cancerdevelopment the oxygen-respiration always falls,fermentation appears, and the highly differentiated cells aretransformed to fermenting anaerobes, which have lost alltheir body functions and retain only the now uselessproperty of growth. Thus, when respiration disappears, lifedoes not disappear, but the meaning of life disappears, andwhat remains are growing machines that destroy the bodyin which they grow.

But why oxygen differentiates and why lack of oxygendedifferentiates? Nobody would dispute that thedevelopment of plants and animals and man fromunicellular anaerobes is the most improbable process of allprocesses in the world. Thus there is no doubt, thatEINSTEIN descended from a unicellular fermentingorganism - to illustrate the miracle, molecular O2 achieved.But according to the thermodynamics of Boltzmann,

improbable processes require work to take place.

It requires work to produce temperature differences in auniformly temperatured gas; whereas the equalization ofsuch temperature differences is a spontaneous process thatdoes not require work. It is the oxygen-respiration thatprovides in life this work, and dedifferentiation begins atonce when respiration is inhibited in any way. In thelanguage of thermodynamics, differentiation represents aforced steady state, whereas dedifferentiation - that is,cancer - is the true equilibrium state. Or, illustrated by apicture: the differentiated body cell is like a ball on aninclined plane, which, would roll down except for the workof oxygen-respiration always preventing this. If oxygenrespiration is inhibited, the ball rolls down the plane to thelevel of dedifferentiation.

But why respiratory energy and not fermentation energycan differentiate, whereas in general, for example in growth,respiratory energy and fermentation energy are equivalent?Obviously, there would be no cancer if there were not thisdiscrimination of fermentation energy, that is, iffermentation like respiration could differentiate. Then, whenrespiration is replaced by fermentation, fermentation wouldtake over differentiation, and a high state of differentiationwould be maintained even in the fermenting body cells.

Chemistry

Physics cannot explain why the two kinds of energy are not

equivalent in differentiation; but chemistry may explain it.Biochemists know that both respiration energy andfermentation energy do their work as phosphate energy, butthe ways of phosphorylation are different. If one appliesthis knowledge to carcinogenesis, it seems that onlyoxidative phosphorylation but not fermentativephosphorylation can differentiate, a result, that may infuture explain the mechanism of differentiation.

Yet Biochemistry can explain already today whyfermentation arises, when respiration decreases. Figure 4shows that the pathways of respiration and fermentationare common as far as pyruvic acid. Then the pathwaysdiverge. The endproducts of fermentation is reached by onesingle reaction, the reduction of pyruvic acid by dihydro-nicotinamide to lactic acid. On the other hand, theendproducts of the oxidation of pyruvic acid, H2O andCO2, are only reached after many additional reactions.Therefore, when cells are harmed, it is probable that firstrespiration is harmed.

In this way the frequency of cancer is explained by reasonsof probability.

Figure 4

To sum up:

1. Impairment of respiration is [more] frequent thanimpairment of fermentation because respiration is morecomplicated than fermentation.

2. The impaired respiration can be easily replaced byfermentation, because both processes have a commoncatalyst, the nicotinamide.

3. The consequence of the replacement of respiration byfermentation is mostly glycolysis, with death of the cellsby lack of energy. Only if the energy of fermentation isequivalent to the lost energy of respiration, is theconsequence anaerobiosis. Glycolysis means death byfermentation, anaerobiosis means life by fermentation.

4. Cancer arises, because respiration, but not fermentation,can maintain and create the high differentiation of bodycells.

To conclude the discussion on the prime cause of cancer, thevirus-theory of cancer may be mentioned. It is the mostcherished topic of the philosophers of cancer. If it were true,it would be possible to prevent and cure cancer by themethods of virology; and all carcinogens could be eaten orsmoked freely without any danger, if only contact with thecancer virus would be avoided.

It is true that some virus-caused cancerb) occur in animals,

but no one sure human virus-cancer has been observed sofar, whereas innumerable substances cause cancer withoutviruses in animals and man. Thus viruses do not meet thedemands of Pasteur, that is must be possible to trace theprime cause in every case of the disease. Therefore scienceclassifies viruses as remote causes of cancer, leading toanaerobiosis, the prime cause that meets the demands ofPasteur.

b) The chicken Rous sarcoma, which is labeled today as avirus tumor, ferments glucose and lives as a partialanaerobe like all tumors. O. WARBURG, Bioch. Zeitschrift160, 307, 1925; F. WIND, Klinische Wochenschrift, Nr. 30,1926.

Many may remember how anaerobiosis as prime cause ofcancer was recently disputed emphatically, when one singlecancer - the slow Morris hepatomas - was believed(wrongly) to lack in fermentation. In contrast the virustheory is adhered to although all cancers of man are lackingin virus-origin. This means the surrender of the principlesof Pasteur and the relapse into bygone times of medicine.

Applications

Of what use is it to know the prime cause of cancer? Here isan example. In Scandinavian countries there occurs a cancerof throat and esophagus whose precursor is the so-calledPlummer-Vinson syndrome. This syndrome can be healedwhen one adds to the diet the active groups of respiratory

enzymes, for example: iron salts, riboflavin, nicotinamide,and pantothenic acid. When one can heal the precursor of acancer, one can prevent this cancer. According to ERNESTWYNDER 3) of the Sloan-Kettering Institute for CancerResearch in New York, the time has come when one canexterminate this kind of cancer with the help of the activegroups of the respiratory enzymes.

It is of interest in this connection that with the help of one ofthese active groups of the respiratory enzymes, namelynicotinamide, tuberculosis can be healed quite as well aswith streptomycin, but without the side effects of the latterc). Since the sulfonamides and antibiotics, this discoverymade in 1945 is the most important event in the field ofchemotherapy generally, and encourages, in associationwith the experiences in Scandinavia, efforts to preventcancer by dietary addition of large amounts of the activegroups of the respiratory enzymes. Since there can scarcelybe overdosage, such experiments can do no harm.

c) V. CHORINE: C. R. sci. Paris, 220, 150 (1945). – H. FUSTand A. STUDER, Schweizerische Z. für allgemeinePathologie, Band 14; Fasc 5 (1951).

I would like to go further and propose always makingdietary additions of large amounts of the active groups ofthe respiratory enzymes after successful operations whenthere is danger from metastatic growths. One could indeednever succeed in redifferentiating the dedifferentiatedcancer cells, since during the short duration of human life

the probability of such a back-differentiation is zero. Butone might increase the respiration of growing metastases,and thereby inhibit their fermentation, and - on the basis ofthe curve of DEAN BURK and MARK WOODS obtainedwith the Morris hepatomas - thereby inhibit the growth ofmetastases to such an extent that they might become asharmless as the so-called "sleeping" cancer cells in theprostates of elderly men.

A Second Example of Application

The physicist MANFRED VON ARDENNE has recentlyattacked the problem of the therapy of cancer. ARDENNEdiscovered that cancer cells owing to their fermentation, aremore acid – inside and on their surface – than normal cellsand hence are more sensitive to high temperatures. On thisbasis, he and his medical colleagues have treated cancerpatients, after surgical removal of the primary tumors, byraising the body temperature of the patients to about 109ºFahrenheit for an hour, in the hope that the metastases willthen be killed or their growth so slowed up as to becomeharmless. It is not yet decided whether this idea can bedescribed as a practical success. But the provisional work ofARDENNE is already of great significance in a field wherehopes of conventional chemotherapy have been dimmedbut might be brightened by combination with extreme ormoderate hyperthermy.

A third application. According to an estimate by K. H.Bauer of the Cancer Institute in Heidelberg, at least one

million of the now living twenty five million maleinhabitants of West Germany will die of cancer of therespiratory tract; still more will die from other cancer. Whenone considers that cancer is a permanent menace, onerealizes that cancer has become one of the most dangerousmenaces in the history of medicine.

Many experts agree that one could prevent about 80% of allcancers in man, if one could keep away the knowncarcinogens from the normal body cells. This prevention ofcancer might involve no expenses, and especially wouldrequire little further research to bring about cancerprevention in up to 80 percent *).

*) Since this estimate was published, some thought 80%even too low. Yet prevention remained taboo and earlydiagnosis was the only consolation that was offered.

Why then does it happen that in spite of all this so little isdone towards the prevention of cancer? The answer hasalways been that one does not know what cancer or theprime cause of cancer [might] be, and that one cannotprevent something that is not known.

But nobody today can say that one does not know whatcancer and its prime cause [may] be. On the contrary, thereis no disease whose prime cause is better known, so thattoday ignorance is no longer an excuse that one cannot domore about prevention. That prevention of cancer will comethere is no doubt, for man wishes to survive. But how longprevention will be avoided depends on how long the

prophets of agnosticism will succeed in inhibiting theapplication of scientific knowledge in the cancer field. In themeantime, millions of men must die of cancer unnecessarily.

Literature to Preface of Second Edition:

1. WILLSTAETTER, WIELAND and EULER, Lectures onenzymes at the centenary of the Gesellschaft DeutscherNaturforscher. Berichte der Deutschen ChemischenGesellschaft, 55, 3583, 1922. The 3 lectures of the 3 chemistsshow that in the year 1922 the action of all enzymes wasstill a mystery. No active group of any enzyme was known.2. OTTO WARBURG, Biochem. Zeitschrift, 152, 479, 1924.3. OTTO WARBURG, Heavy Metals as prosthetic groups ofenzymes, Clarendon Press, Oxford, 1949.4. OTTO WARBURG, Wasserstoffübertragende Fermente,Verlag Werner Sänger, Berlin, 1948.5. DEAN BURK, 1941. On the specificity of glycolysis inmalignant liver tumors as compared with homologous adultor growing liver tissues. In Symposium of RespiratoryEnzymes, Univ. of Wisconsin Press. pp. 235-245,1942. DEANBURK, Science 123,314,1956. Woods, M. W., Sandford, K. K.,Burk, D., and Earle, W. R. J. National Cancer Institute 23,1079-1088, 1959. DEAN BURK, Burk, D., Woods, M. andHunter, J. On the Significance of Glucolysis for CancerGrowth, with Special Reference to Morris Rat Hepatomas.Journ. National Cancer Institute 38, 839-863, 1967.6. O. WARBURG und F. KUBOWITZ, Bioch. Z. 189, 242,1927; H. GOLDBLATT und G. CAMERON, J. Exper. Med.97, 525, 1953.

7. O. WARBURG, 17. Mosbacher Kolloquium, April 1966.Verlag Springer, Heidelberg, 1966.8. O. WARBURG, K. GAWEHN, A. W. GEISSLER, D.KAYSER and S. LORENZ, Klinische Wochenschrift 43, 289,1965.9. O. WARBURG, Oxygen, The Creator of Differentiation,Biochemical Energetics, Academic Press, New York, 1966.10. O. WARBURG, New Methods of Cell Physiology, GeorgThieme, Stuttgart, and Interscience Publishers, New York,1962.

Literature to Preface of First Edition:

1. OTTO WARBURG, A. W. GEISSLER, and S. LORENZ:Über die letzte Ursache und die entfernten Ursachen desKrebses. 17. Mosbacher Kolloquium, April 1966. VerlagSpringer, Heidelberg 1966.2. Any book on vitamins, such as Th. Bersin. Biochemie derVitamine. Akad. Verlags.-Ges. Frankfurt 1966.3. ERNEST L. WYNDER, SVEN HULTBERG, FOLKEJACOBSSON, and IRWIN J. BROSS, Environmental Factorsin Cancer. Cancer, Vol. 10, 470, 2057.

A comment by Wilhelm H on the relationship of cancerresearcher Dr. Johanna Budwig with Otto Warburg, Szent-

Györgyi and other illustrious scientists:

The lecture of Warburg is very interesting. It is obviouslyvery good since he was the discoverer of the importance of

oxygen in cell respiration. Yet it was also a sad witness ofhis closed mind towards Dr. Budwig's discovery. He gavethe lecture some 15 years after Dr. Budwig had found themissing link which he had unsuccessfully searched for. Dr.Budwig was by this time in full swing of healing cancerpatients with her Oil-Protein Diet. Here is what Dr. Budwigsaid:"I assumed that Professor Warburg would recognize thesignificance of my discovery regarding the essential fattyacids and their role in the electro-kinetic power of the cell.In 1952 I repeatedly sent him my works and wrote to him.He refused to meet with me to discuss it." Official history unscrupulously omits Dr. Budwig'scontribution, and telling the truth tarnishes some shiningnames. Warburg was not the only Nobel winner to ignoreDr. Budwig's vital discovery. Other giants of scientifichistory missed the significance of "fat."

Dr. Budwig is quoted in an interview in the followingmanner: "Szent-Gyorgyi dealt with my published works,but he never acknowledged me," she said bitterly. "Forexample, he ignored me in his book Electronic Biology andCancer, even though he was fully aware of my discovery."

More on Budwig’s relationships to other scientists atLinseed and Fatty Acids: Johanna Budwig. For a thorough

introduction to the subject of Johanna Budwig’s naturalhealing protocol for cancer and other degenerative disease,

see Dr. Budwig’s Healing Diet & Protocol, including the

complete list of Healing Cancer Naturally articles on Dr.Budwig’s protocol. Unsolicited visitor’s comment: ”I havebeen educating myself on the Budwig protocol and your

site is by far the most informative.”

Also see Sugar and Cancer and Cancer Bacteria (breastcancer).

While the animal research (vivisection results) quoted byDr. Warburg may indeed be transferrable to humans in thatin the cited cases humans react similarly as did the animals,

in the great majority of cases the opposite is true, seeAnimal Experimentation Unscientific: Physicians

Convincingly Argue That Animal Testing SeriouslyImpedes Progress in Human Medicine While Vivisection

Industry Profits.

www.healingcancernaturally.comCancer Causes

Page 2

Introduction and complete list of Healing Cancer Naturallyarticles on ”known”, suspected and probable causes of

cancere

Suppressed and forgotten cancer microbe research couldhold the keyto the cause and cure of this dread disease2004 by Alan Cantwell, Jr., M.D.P.O.Box 29532, Los Angeles, CA 90029Email: alancantwell at sbcglobal.net

Despite a century of cancer research the cause of breastcancer remains unknown. Age, diet, stress, hormone factors,genetic predisposition, and cancer viruses are all suspectedas possible causative factors, but totally ignored areinfectious bacteria which have been implicated in breastcancer, as well as other forms of cancer.

Over the past century physicians such as James Young,John Nuzum, Virginia Livingston, and numerous otherresearchers have reported on the existence of a specificmicrobe associated with cancer. The microbe is aubiquitous, pleomorphic organism with a complex life cycle.A review of this literature suggests that the cancer microbeplays an important role in the development ofmalignancy. Because the etiology of cancer remainsunknown, this research deserves further examination andreaappraisal.

William Russell (1852-1940) and ”the parasite of cancer”

A century ago when major diseases like tuberculosis,leprosy, and syphilis were discovered to be bacterial (notviral) infections, many physicians suspected bacteria mightalso cause cancer. At the close of the nineteenth century (when the science of microbiology was in its infancy), manydifferent microbes (variously called ”cancer coccidia,””sporozoons” and ”cancer parasites”) were cultured fromcancer. A few of these microbes produced cancer tumorswhen injected into animals, but many did not.

On December 3, 1890 William Russell, a pathologist in theSchool of Medicine at the Royal Infirmary in Edinburgh,gave an address to the Pathological Society of London inwhich he outlined his histopathologic findings of ”acharacteristic organism of cancer” that he observedmicroscopically in fuchsine-stained tissue sections from allforms of cancer that he examined, as well as in certain casesof tuberculosis, syphilis and skin infection (1).

The parasite was seen within the tissue cells (intracellular)and outside the cells (extracellular). The size of Russell’sparasite ranged from barely visible, up to ”half again aslarge as a red blood corpuscle.” The large size of some ofthese bodies suggested a fungal or yeast-like parasite.Russell provisionally classified the parasite as a possible”blastomycete” (a type of fungus); and called the roundforms ”fuchsine bodies” because of their bluish-red stainingqualities.

The idea of a cancer germ (especially one that could also be

identified in TB and syphilis) was received cautiously. Nineyears later in 1899, in another report on ”The parasite ofcancer” appearing in The Lancet (April 29), Russelladmitted that finding cancer parasites in diseases other thancancer was indeed a ”stumbling block.” By this time aconsiderable number of scientists concluded that Russellbodies were merely the result of cellular degeneration ofone kind or another. Furthermore, no consistent microbewas cultured from tumors; and the inoculation of thesemicrobes into animals produced conflicting and oftennegative results (2).

Russell was trained as a pathologist, not as a microbiologist,and he avoided getting into the bacteriologic controversiesregarding various microbes grown from cancer. He simplyconcluded, ”It seems almost needless to add that thereremains abundant work to be done in this important andattractive field.”

After three years’ work at the New York State PathologicalLaboratory of the University of Buffalo, Harvey Gaylordconfirmed Russell’s research in a 36 page report titled ”Theprotozoon of cancer”, published in May, 1901, in theAmerican Journal of the Medical Sciences. Gaylord foundthe smallest round forms, which were the size of ordinarystaphylococci, as well as the larger spherical bodies whichwere the size of fungal spores (3) .Russell’s 1899 paperended his writings of a cancer parasite, but his discoveryquickly became known to pathologists as ”Russell bodies.”These bodies continue to fascinate researchers and

physicians (like myself) up to the present time.

When Russell died at the age of 89 in 1940, the BritishMedical Journal published a large obituary noting that hewas universally respected and had served at one time asPresident of the Royal College of Physicians. No mentionwas made of his ”cancer parasites” or his ”bodies”, exceptto remark that ”in his earlier years Russell devoted muchtime to the study of the cancer cell. (For further details, see”The Russell body: The forgotten clue to the bacterial causeof cancer” at www.rense.com/general44/russell)

The microbiology of cancer

The idea of a cancer parasite was finally dismissed in 1919by noted American pathologist James Ewing. In his populartextbook, Neoplastic Diseases, he declared: ”Few competentobservers consider it (the parasitic theory) as a possibleexplanation in cancer.” In Ewing’s opinion, cancer did notact like an infection. Therefore, he concluded that microbescouldn’t possibly cause it. He wrote: ”The general facts ofthe genesis of tumors are strongly against the possibility ofa parasitic origin.” [4] Subsequently, few doctors dared tocontradict Ewing by investigating bacteria in cancer.

Nevertheless, during the 1920s a few persistent physicianslike pathologist John Nuzum of the University of IllinoisCollege of Medicine; surgeon Michael Scott from Butte,Montana; and obstetrician James Young of Edinburgh,Scotland, continued to publish research showing that

bacteria were implicated in breast cancer and other forms ofcancer.

Working independently of one another, all three researcherscultured unusual bacteria from breast cancer, as well asfrom breast cancer tumors in mice. The peculiar growth ofthe ”pleomorphic” cancer germ defied the established lawsof microbiology by its ability to change shape and form,depending on how it was cultured in the laboratory, as wellas the amount of oxygen supplied for growth and the age ofthe culture.

At first, the germ was barely visible as tiny round coccalforms. Later, these cocci enlarged into rod-shaped bacteria,which could connect together to form chains resembling afungus. Small cocci could also enlarge into larger yeast andfungal-like spore forms.

Nuzum grew his ”micrococcus” from 38 of 41 early breastcancers, and from the cancerous lymph nodes andmetastatic tumors resulting from spread of the cancer toother parts of the body.[5-6] During his 6 years of intensivebacteriological study, he learned the microbe could passthrough a filter designed to hold back bacteria, indicatingthat some forms of the microbe were as small as the size ofsome viruses. With special stains he detected these smallround coccoid forms within the breast cancer tumor cells.Although Nuzum couldn’t produce cancer tumors in mice,he was able to induce breast cancer tumors in 2 of 5 dogsinjected with the microbe.

In a dangerous human experiment he injected the groin of a70-year-old man with the bacteria he cultured from breastcancer. After 62 injections over an 18-week period, a skincancer formed in the man’s groin. This experiment showedthat breast cancer microbes were also capable of producinga different kind of cancer, such as skin cancer. [6]

Young found his microbe in 16 cases of breast cancer, and intwo mice with breast cancer. He identified ”spore forms”and clumped ”spore balls” in microscopic sections preparedfrom the mouse tumors. [7-8]

Scott described three stages in the life cycle of his parasite:rod forms, spore or coccus-like forms, and large spore-sacsresembling a fungus. [9-10] He treated cancer patients withan effective antiserum against these microbes, and spent therest of his life trying to alert his colleagues to the infectiouscause of cancer. But the antagonism of the medicalprofession to Scott’s cancer parasites and his antiserum wasoverwhelming, and he died a forgotten man.

Virginia Livingston and the cancer microbe

During the last half of the twentieth century cancer microberesearch was barely kept alive by a quartet of women, nowall deceased. The published research of Virginia Wuerthele-Caspe Livingston-Wheeler (a physician), EleanorAlexander-Jackson (a microbiologist), Irene Diller (a cellularbiologist) and Florence Seibert (a chemist) providesindisputable evidence that bacteria are implicated in cancer.

Livingston, who never let the male-dominated medicalprofession intimidate her, independently discovered thecancer microbe in the late 1940s and never stopped talkingabout it until her death in 1990, at the age of 84. Aided byAlexander-Jackson, who supplied the bacteriologicexpertise, they became an unstoppable research team. [11-15]

The two women found a special stain (the acid-fast stain)that allowed the microbe to be recognized in culture andwithin the cancer tumor. Like the researchers back in the1920s, they confirmed the microbe was filterable; andelectron microscopic photos provided further proof that thefilterable forms were indeed viral-size. Livingston namedthe microbe ”Progenitor cryptocides”, which greatlyangered cancer experts, microbiologists, and AmericanCancer Society spokespersons, all of whom insisted thecancer microbe did not exist!

In the 1950s Irene Diller of the Institute for Cancer Researchat Fox Chase, Philadelphia, discovered fungus-like microbesin cancer cells. Joining forces with the Livingston team,Diller worked with specially bred mice with a proven cancerincidence. By injecting them with microbes cultured frombreast cancer and other tumors, she was able to more thandouble the cancer incidence of the mice. [16]

She injected healthy animals with cancer bacteria. Whencancer tumors developed she successfully cultured themicrobe from the tumors—thus proving that these bacteriawere implicated in the production of cancer. Utilizing

Livingston’s methods, Diller also grew the microbe from theblood of cancer patients.

Florence Seibert and cancer bacteria

In the early 1960s Florence Seibert became so impressedwith Diller’s research that she quit retirement to help provethat bacteria cause cancer. Back in the 1920s Seibert deviseda method to make intravenous transfusions safe byeliminating contaminating ubiquitous bacteria. Later, as oneof the foremost authorities investigating the chemistry andimmunology of the acid-fast bacteria that causetuberculosis, she perfected the skin test for tuberculosis thathas been used worldwide ever since. In 1938, she wasawarded the famed Trudeau Medal, the highest prize givento tuberculosis research.

Experiments conducted by Seibert and her research teamshowed these acid-fast and TB-like cancer microbes werenot contaminants because they were able to isolate bacteriafrom every piece of tumor (and every acute leukemic blood)they studied. [17]

In her autobiography, Pebbles on the Hill of a Scientist,published privately in 1968, she wrote: ”One of the mostinteresting properties of these bacteria is their greatpleomorphism. For example, they readily change theirshape from round cocci, to elongated rods, and even tothread-like filaments depending upon what medium theygrow on and how long they grow. This may be one of the

reasons why they have been overlooked or considered to beheterogeneous contaminants...And even more interestingthan this is the fact that these bacteria have a filterable formin their life cycle; that is, that they can become so small thatthey pass through bacterial filters which hold back bacteria.This is what viruses do, and is one of the main criteria of avirus, separating them from bacteria. But the viruses alsowill not live on artificial media like these bacteria do. Theyneed body tissue to grow on. Our filterable form, however,can be recovered again on ordinary artificial bacterial mediaand will grow on these. This should interest the virusworkers very much and should cause them to askthemselves how many of the viruses may not be filterableforms of our bacteria.”

Seibert’s provocative papers, some published by theprestigious Annals of the New York Academy of Sciences,should have caused a stir. But with the quartet slowlyclosing in on the infectious cause of cancer, funds fromprevious supporters (like the American Cancer Society)suddenly dried up. All cancer microbe researcherseventually discovered that studying cancer bacteria was thekiss of death as far as funding was concerned. And withoutadequate funding, this type of cancer research was mademore difficult.

But coming from thirty years of research into the acid-fastbacteria that cause tuberculosis, Seibert knew that thediscovery of a pleomorphic and acid-fast microbe in cancerwas tremendously important. She fervently believed that

knowledge of this microbe would be instrumental indeveloping a possible vaccine and more effective antibiotictherapy against cancer. In Pebbles she confided: ”It is verydifficult to understand the lack of interest, instead of greatenthusiasm, that should follow such results, a lack ofcertainty not in the tradition of good science. The contrastbetween the progress made in tuberculosis where we knowthe cause, where we have good general diagnostic tests,where we have a vaccine and effective antibiotic controls,and that made in cancer with the millions invested, is verystriking. Some dedicated scientists should indeed find itrewarding to confirm or deny these painstaking and time-consuming experiments, for the sake of establishing the firstnecessary step in the important problem of the etiology ofcancer.”

Like the other women, Seibert observed the virus-like formsof the cancer microbe within the nucleus of the cancer cells.She theorized this infection could disrupt and transformnuclear genetic material that could lead to malignantchange. Even though cancer microbes might appear to besimple and common microbes, their ability to infiltrate thenucleus of cells meant they were far from harmless.

In 1990, at the age of 92, Florence Seibert was inducted intothe National Women’s Hall of Fame, along with BarbaraJordan (Government), Billie Jean King (Athletics) andMargaret Bourke-White (Arts). When she died the followingyear her passage was noted in Time and People magazines,and in major newspapers like The Los Angeles Times. All the

obituaries mentioned her contributions to the safety ofintravenous fluids and her great achievement with the TBskin test. But not a word was written about her cancermicrobe research, to which she devoted the last thirty yearsof her life.

Breast cancer and cancer-associated bacteria

Each year 190,000 American women are diagnosed withbreast cancer. And the prognosis is still dismal for womenwhose breast cancer has spread to the lymph nodes andbeyond. Yet the medical establishment remains adamantlyand irrationally opposed to cancer microbe research. It isperhaps understandable from an economic viewpoint thatthe medical profession would not welcome a proposedinfectious cause of cancer that would challenge the highlylucrative multibillion-dollar cancer industry.

Physicians confidently ignore cancer bacteria because theyhave been carefully taught in medical school that there areno significant bacteria detectible in cancer. They still believethat cancer microbes represent contaminant bacteria orbacteria of no significance. Thus, published reports of cancermicrobe research are rarely cited and the subject remainsvirtually unknown.

The idea of a microbe with virus, bacteria, and fungal-likestages is also anathema to most doctors. However, over thepast several decades the study of cell-wall deficient bacteriaand ”mycoplasma-like” bacteria (which are both bacterial

and viral-like) indicates that microbes indeed have acomplex life cycle. In 1919, when Ewing offered hisdamning opinion of ”cancer parasites”, none of thesemicrobiologic peculiarities was recognized!

In some instances, cancer microbe research appears to bedeliberately suppressed. For example, the National CancerInstitute informs viewers about Virginia Livingston andstates: ”There is no scientific evidence to confirm hertheories of cancer causation or to justify her treatments.”(bccancer.bc.ca/PPI/UnconventionalTherapies/LivingstonTherapy.htm)Obviously, this official judgment is not accurate because, aswe have noted, Livingston’s discoveries have beenconfirmed by many competent scientists.

In addition, Livingston has written three books on thecancer microbe: Cancer: A New Breakthrough (1972), TheMicrobiology of Cancer (1977), and The Conquest of Cancer(1984). [18-20] More recent books on bacteria in cancerinclude Alan Cantwell’s The Cancer Microbe (1990) [as wellas his Four Women Against Cancer: Bacteria, Cancer & theOrigin of Life published in 2005] and Can Bacteria CauseCancer? (1997) by David J Hess. [21,22]

Next

Cancer Causeswww.healingcancernaturally.com

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Introduction and complete list of Healing Cancer Naturallyarticles on ”known”, suspected and probable causes of

cancer

Breast Cancer and Cancer Bacteria ctd.Suppressed and forgotten cancer microbe research couldhold the keyto the cause and cure of this dread disease2004 by Alan Cantwell, Jr., M.D.ctd. from previous page

As discovered by Virginia Livingston, the acid-fast stain isthe essential stain to detect cancer bacteria inhistopathologic microscopic tissue sections from breastcancer. Using acid-fast staining techiques, bacteria havebeen identified in breast cancer, lymphoma, Kaposi’ssarcoma (the so-called ”gay cancer” of AIDS) and otherforms of cancer. [23-25] Figure 1-5 show bacteria identifiedin breast cancer and in the metastasis to the skin. Figure 6-8show the appearance of Staphylococcus epidermidiscultured from the breast tumor metastasis to the skin. Allthese microphotographs are from a woman who died ofbreast cancer at age 40, one year after her breast cancer andseveral positive lymph nodes were removed. A careful

perusal of these photographs reveals that the cocci culturedfrom the tumor are similar, if not identical, to the coccoidforms seen in the original breast cancer tissue. Smallernumbers of microbes were also identified in ”normal” andcancer-free breast tissue removed at the time of surgery.This suggests that the bacteria are not ”secondary invaders”because they are identifiable in areas before the tissue hasbeen invaded by cancer cells. [23]

Click on each figure to see a larger, higher-resolutionrendering.

Fig. 1: Histopathologic tissue section from infiltrating ductalcarcinoma of the breast. Long arrows point to a cluster of

intracellular coccoid forms; short arrows point to scatteredextracellular coccoid forms. Intensified Kinyoun’s (acid-fast)

stain; magnification x 1000, in oil.

Fig. 2: Tissue section of breast cancer. The long arrow pointsto a collection of variably-sized round & coccoid formstightly packed around a cell nucleus. The larger round

forms have the appearance of Russell bodies. Short arrowspoint to tiny coccoid forms resembling the size of ordinary

staphylococci at the periphery of the cell. IntensifiedKinyoun’s (acid-fast) stain; magnification x1000, in oil.

Fig. 3: Tissue section of breast cancer. Arrows point to afocus of tiny extracellular coccoid forms. Intensified

Kinyoun’s (acid-fast) stain; magnification x1000, in oil.

Fig. 4: Tissue section of breast cancer. Arrows point to asmall focus o extracellular coccoid forms scattered amongthe cancerous cells. Intensified Kinyoun’s (acid-fast) stain,

magnification x1000, in oil.

Fig. 5 A, B: Black and white photo of tissue section of skinshowing metastasis of breast cancer to the skin. Arrows

point to intra and extracellular collections of coccoid formsin the dermis of the skin. Intensified Kinyoun’s (acid-fast)

stain, magnification x1000, in oil.

Fig. 6: Gram’s-stained smear of Staphylococcus epidermidiscultured from the metastasis of the breast cancer to the skin,illustrated in fig. 5. The bacteria are Gram-variable; Some ofthe forms stain purple, the typical color of ”Gram-positive”

staphylococci. Other cocci stain pink, suggesting poorly-staining, possible cell-wall-deficient forms of staphylococci.

Fig. 7: Same culture as Fig. 6, but showing the appearanceof the staphylococci when stained with the Ziehl-Neelson

(acid-fast) stain. Note that the size and shape of thestaphylococci are identical in size and shape to the small

coccoid forms seen in the original breast tumor (Figures 1-4)and in the skin tumor metastasis (Figure 5). Magnification

x1000, in oil.

Fig. 8 : Ziehl-Neelson (acid-fast) stain of Staphylococcusepidermidis cultured from a metastatic skin lesion frombreast cancer. Note the large dark-stained granules from

which acid-fast (red and pink) thin, sharp ”spicules”emerge. In their 1970 paper [13], Livingston and Alexander-Jackson showed exactly the same type of acid-fast spiculegrowth in culture from the urine of a cancer patient (theirFigure 12A). (Their research regarding "a specific type of

organism cultivated from malignancy" was presented at theNew York Academy of Sciences in November 1969.)

Radical treatment and the need for more bacteria research

The current lack of knowledge about the cause of breastcancer has resulted in the recommendation of some veryexpensive and death-defying treatments for this horrendousdisease. Bone marrow transplants, which carry a 5% deathrate, are being proposed as a routine treatment, at a minimalcost of $100,000 per patient.

As described in Karen Stabiner’s To Dance with the Devil: TheNew War on Breast Cancer (1997), the procedure is not pretty.[26] First, a catheter is placed in a woman’s chest to deliverthe drugs. A surgical treatment is then performed to scrapeout bone marrow from her pelvis, followed by 7 days ofgrowth hormone injections. Then starts days of intravenouschemotherapy that can cause kidney and bladder damage.A catheter is placed in the bladder, followed by a round ofintravenous BCNU, or carmustine, a drug that makes a

woman feel like she is falling down drunk. Patients becomesleepy, sullen, disoriented, agitated, and angry. Loss ofbowel control and vomiting are common. After all this,women are put into isolation because the white count dropsprecipitously, making her vulnerable to all sorts ofinfections. There may be inexplicable spiking fevers andrashes, and the inevitable loss of hair. After three weeks,patients are allowed to go home where they are told towatch for ”interstitial pneumonitis,” a potentially fatalaftereffect if not diagnosed and treated early.

Bone marrow transplant for breast cancer is not guaranteed,nor is it considered a cure. Women have been known to dieof cancer three months after the procedure, proving thatsome patients do not respond to chemotherapy no matterhow high the dose.

Even with radiation, chemotherapy and surgery, the cost ofdying of cancer is not cheap. At the price patients arepaying, physicians should not have the luxury of beingignorant about cancer microbe research, particularly whenthese microbes can be identified in cancer tumors.

With 40,000 American women dying annually from breastcancer, it is time medical science reevaluated the parasite ofcancer that James Ewing so casually dismissed in 1919.Perhaps if he hadn’t been so adamant about cancer microberesearch, his colleagues might have been able to do more tosave him when he himself eventually died of bladdercancer.

References:

1. Russell W. An address on a characteristic organism ofcancer. Br Med J. 1890; 2:1356-1360.2. Russell W. The parasite of cancer. Lancet. 1899;1:1138-1141. 3. Gaylord HR. The protozoon of cancer. Amer J Med Sci.1901;121:501-539.4. Ewing J: The parasitic theory. In, Ewing J (Ed): NeoplasticDiseases (Ed1). Saunders, Philadelphia, 1919, pp 114-126. 5. Nuzum JW: A critical study of an organism associatedwith a transplantable carcinoma of the white mouse. SurgGynecol Obstet 33:167-175, 1921. 6. Nuzum JW: The experimental production ofmetastasizing carcinoma in the breast of the dog andprimary epithelioma in man by repeated inoculation of amicrococcus isolated from human breast cancer. SurgGynecol Obstet 11:343-352, 1925. 7. Young J: Description of an organism obtained fromcarcinomatous growths. Edinburgh Med J (New Series)27:212-221,1921.8. Young J: An address on a new outlook on cancer:Irritiation and infection. Brit Med J, Jan 10, 1925, pp 60-64.9. Scott MJ: The parasitic origin of carcinoma. NorthwestMed 24:162-166, 1925.10. Scott MJ: More about the parasitic origin of malignantepithelial growths. Northwest Med 25:492-498, 1925. 11. Wuerthele Caspe (Livingston) V, Alexander-Jackson E,Anderson JA, et al: Cultural properties and pathogenicity ofcertain microorganisms obtained from various proliferative

and neoplastic diseases. Amer J Med Sci 220:628-646, 1950. 12. Wuerthele-Caspe Livingston V, Alexander-Jackson E:An experimental biologic approach to the treatment ofneoplastic disease. J Amer Med Women’s Assn 20:858-866,1965. 13: Wuerthele-Caspe Livingston VW, Alexander-Jackson E.A specific type of organism cultivated from malignancy:bacteriology and proposed classification. Ann N Y Acad Sci.1970 Oct 30;174(2):636-54.14. Wuerthele Caspe Livingston V, Livingston AM: Somecultural, immunological, and biochemical properties ofProgenitor cyptocides. Trans NY Acad Sci 36(6):569-582,1974.15. Alexander-Jackson E: A specific type of microorganismisolated from animal and human cancer: Bacteriology of theorganism. Growth 18:37-51, 1954.16. Diller IC: Growth and morphologic variability ofpleomorphic, intermittently acid-fast organisms isolatedfrom mouse, rat, and human malignant tissues. Growth26:181-209, 1962. 17. Seibert FB, Yeomans F, Baker JA, et al: Bacteria intumors. Trans NY Acad Sci 34(6):504-533, 1972.18. Wuerthele Caspe Livingston V: Cancer, A NewBreakthrough. Nash Publishing Corp, Los Angeles, 1972. 19. Livingston-Wheeler VWC, Wheeler OW: TheMicrobiology of Cancer. Livingston Wheeler Medical ClinicPublication, San Diego, 1977. 20. Livingston-Wheeler VWC, Addeo EG: The Conquest ofCancer. Franklin-Watts, New York, 1984.21. Cantwell AR Jr: The Cancer Microbe: The Hidden Killer in

Cancer, AIDS, and Other Immune Diseases. Aries Rising Press,Los Angeles, 1990.22. Hess DJ: Can Bacteria Cause Cancer? Alternative MedicineConfronts Big Science. New York University Press, NewYork, 1997. 23. Cantwell AR Jr, Kelso DW: Microbial findings in cancerof the breast and in their metastases to the skin. J DermatolSurg Oncol 7:483-491, 1981.24. Cantwell AR Jr: Histologic observations of variably acid-fast coccoid forms suggestive of cell wall deficient bacteriain Hodgkin’s disease. A report of four cases. Growth 45:168-187, 1981.25. Cantwell AR Jr: Kaposi’s sarcoma and variably acid-fastbacteria in vivo in two homosexual men. Cutis 32:58-64,68,1983. 26. Stabiner K: To Dance with the Devil: The New War onBreast Cancer. Delacourt Press, New York, 1997.

Biography:

Dr. Cantwell is a retired dermatologist, and anAIDS and cancer researcher. He is the author of“The Cancer Microbe”, “AIDS and the Doctors of

Death” and “Four Women Against Cancer: Bacteria, Cancer& the Origin of Life”.(all published by Aries Rising Press, Los Angeles). Corresponding Address: PO Box 29532, Los Angeles, CA90029. He can be reached at alancantwell at sbcglobal.net.

You can support this site by buying any of these books (or

other items) through my Amazon links (US, UK & Canada)and take advantage of Amazon’s (often) low prices.

"This article was originally published by Patient Focus, Inc.The mission of Patient Focus is to build humanity back intocancer treatment and make it more bearable while a cure forcancer continues to escape us. Patient Focus has a keeninterest in research pertaining to the microbiology of cancer.Also please note that Dr. Cantwell's work regarding cancer-associated bacteria is not related (in his view) to theresearch of Hulda Regehr Clark and her theories of cancercausation."

Addendum by Dr. Alan Cantwellregarding a BBC News report of October 10, 2004, on thesubject of “Antibiotic (doxycycline) can 'turn off cancer'”(see below):

“For more than a century a small group of researchers,including myself, have implicated bacteria in cancer (see mybook, THE CANCER MICROBE, Aries Rising Press). Now itturns out that a common antibiotic -- doxycycline -- can turnoff a gene in mice that leads to liver cancer.

Let's hope it doesn't take another century for scientists andphysicians to follow up on this, and to explain why theykeep ignoring cancer-causing bacteria. For more informationon "cancer microbes" -- [do an internet search] and type in

those exact words.”

Antibiotic can 'turn off cancer'

adapted from BBC MMIV

Scientists have shown that a common antibiotic can turn offcancer cells in mice, offering hope of new treatments forcancer patients.

The antibiotic worked by turning off a gene called Myc,which is known to trigger cancer.

Mice remained cancer free for as long as they took the drug.When it was stopped they developed liver cancer, theStanford University team found.

Cancer experts said the Nature study held promise forhuman cancer drugs.

Cancer switch

The findings might also apply to cancers of the breast,bowel and prostate, the researchers hope.

This is because all of these cancers, as well as liver cancer,begin in cells that line the body called epithelial cells.

According to Cancer Research UK, the gene may contributeto as many as one in seven cancer deaths.

”Drugs blocking Myc might be effective cancer treatments

in the future.” Dr Elaine Vickers from Cancer Research UK

The Stanford scientists studied mice whose liver cells hadbeen altered to carry a modified Myc gene known to causecancer.

Myc controls cell division. Unlike the normal version of thegene, the modified version stayed permanently switched on,meaning cells were constantly dividing and some becamecancerous.

Feeding the mice the antibiotic doxycyline turned the faultyMyc gene off so cancer growth was blocked.

When the researchers stopped the doxycycline the micedeveloped aggressive liver cancer.

Reintroducing doxycycline into their feed not only turnedMyc back off, blocking further cancer growth, but it alsoturned the cancer cells back to normal.

Reversing cancer

Lead researcher Dr Dean Felsher said: "The exciting thing isyou can turn cancer cells into something that appears to benormal."

But he said even though the cells looked normal, they stillhad the ability to become cancerous if the antibiotic were tobe stopped.

This could explain why some cancers come back after

people have had chemotherapy, he said.

"This is a terrible cancer. Anything that is encouraging inliver cancer may be important," he said.

Dr Elaine Vickers, science information officer for CancerResearch UK, said: "The Myc gene is known to be overactivein many types of cancer."Estimates suggest that the genemay contribute to as many as one in seven cancer deaths.

"This research is very interesting.

"It adds to the weight of evidence suggesting that drugsblocking Myc might be effective cancer treatments in thefuture."

Compare Cancer Causes, On Differences Between Species:Animal Experiment Results Often Not Transferable toHumans, Breast Cancer Treatment Advice & Healing

Cancer Naturally.