Showing posts with label Cancer. Show all posts
Showing posts with label Cancer. Show all posts

Health Tips & Info : The End of Common Diseases.


This picture presents the latest available statistics of the World Health Organization regarding the main causes of death in Europe, the United States, and other industrialized countries at the end of the twentieth century. Every year 12 million people worldwide die of the results of atherosclerosis, heart infarctions, and strokes. These are by far the most common causes of death of our time


Cellular Medicine has already found an answer to this epidemic: atherosclerosis and its consequences, heart infarction and stroke are early forms of scurvy. Based on this knowledge, coronary heart disease will be reduced to a fraction of the current figures over the next decades. 

The second-largest common disease is cancer—malignant tumors. Coronary disease and cancer together are responsible for over 80% of all deaths in industrialized countries. Incidences of cancer keep increasing on a global scale. There is only one plausible explanation for this: conventional medicine does not know the causes for cancer nor how this disease spreads. Because of this there is no effective cancer therapy available and the disease can keep expanding on a global scale. 

The most common diseases and causes of death in developing countries are infectious diseases, including the AIDS epidemic. These serious infectious diseases can only continue spreading the way they do because the knowledge of cellular health has been not efficiently used. This book will also provide the solution for the control of these diseases.

From : Cellular Health Series Cancer Book. By Matthias Rath, M.D.

Health Tips & Info :Collagen Dissolving in Cancer.



All forms of cancer spread with the help of the tissue-dissolving mechanism. This illustration shows an example of the development of liver cancer. The liver is the body’s central metabolic organ, and it is responsible for neutralizing and removing toxins from the body. 



The toxins entering the body from the diet, such as pesticides and preservatives, are the most common cause of liver cancer. Also, all pharmaceutical drugs have to be detoxified in the liver. In this context, in January 1996, the Journal of the American Medical Association (JAMA) issued a warning that all cholesterol-lowering medications (statins) used on the market at that time were carcinogenic (cancer causing).

 Liver cells that are exposed to these poisonous substances can either be destroyed or permanently damaged. This damage often involves an error in the genetic program of the cells (cell’s software), similar to what we have seen in virus infections. This damage can trigger two processes that facilitate the development of cancer:

1. Uncontrolled cell multiplication. The software of a cancer cell is reprogrammed in such a way that it causes constant reproduction and multiplication of the cell. This uncontrolled cellular multiplication is the first precondition for cancer to develop.

2. Mass production of collagen-digesting enzymes. The second precondition is the production of enzymes that
destroy the surrounding connective tissue that would otherwise keep the cancer cells confined.

Research has established that the more enzymes a cancer cell produces, the more aggressively the cancer develops. The faster the cancer can spread through a body, the shorter the life expectancy of the patient if the mechanism is not stopped.

From : Cellular Health Series, Cancer Book. By Matthias Rath, M.D.

Health Tips & Info : Is Something Wrong With The War On Cancer?



“Beating cancer: the new frontier of molecular medicine,” enthuses a cover story of The Economist. An opposite mood pervades a cover story of Fortune, “Why we’re loosing the war on cancer.” Both articles appeared in 2004, thirty-three years after President Richard Nixon signed the National Cancer Act that declared “war on cancer.” 

The difference between them would not be the last in a long line of controversies on cancer research that stretched back to the beginning of the war if not earlier. Undoubtedly all sides are united in their hope of beating cancer. They disagree, sometimes bitterly, on the manner in which the war is waged and the achievements so far. The debates involve many issues, including science under siege. Here we will concentrate on problems regarding the levels of complexity, more specifically, how much scientific knowledge on the level of cancer genes contribute to needs on the level of health care.

Americans have poured roughly $200 billion, in inflation-adjusted dollars, into cancer research and cancer drug development between 1971 and 2004. Almost one-half of the bills went to several government agencies, the balance to philanthropies and pharmaceutical companies. In comparison, the government put up about $ 3 billion, matched by a similar contribution from the private sector, for the thirteen-year-long human genome project. That research money bought duplicate catalogs of human genes. What has the much larger fund for cancer research bought?

In 1986, the director of National Cancer Institute predicted the eradication of cancer by 2000. Reality was not anywhere close. In 2004, a new director envisioned “the elimination of the suffering and death due to cancer by 2015.”13 Critics deem such unbridled optimism irresponsible; unending rosy promises raise false hopes that turn into cruel disappointments for patients and their families. 

Sure, generous research funding has bought enormous knowledge about the biology of cancer. However, critics complain that this knowledge about mechanisms on the molecular and cellular levels has little practical impact. Few new cancer drugs have resulted, and drying pipelines hang like a stubborn black cloud over the pharmaceutical industry. On the level of human suffering and death, the 1.5 million papers on molecular cancer biology seem to contribute less than the campaign to dissuade people from smoking.

Cancer death rate in America, after climbing unrelentingly for a century, peaked in 1990. Since then it has dropped by 12 percent back to its level in 1960. It was a welcomed relief, but hardly a victory. The largest decline occurred in lung cancer, which was attributable less to breakthrough research than to decreasing prevalence of smoking among men. Furthermore, cancer still claimed 564 thousand American lives in 2004, which constituted 24 percent of deaths from all causes.

The picture is a little different in the developing countries, where cancer death rate is lower but rising. Worldwide in 2000, cancer caused 6.7 million deaths or 12 percent of total. The World Health Organization estimated that if unchecked, annual global cancer deaths could rise to 15 million by 2020.

Although cancer is an ancient disease that afflicts humans and other animals, its prominence in the Western world rose from the nineteenth century to become “a disease of civilization.” There are several explanations of this. Cancer is primarily a disease of elders; its risk increases roughly as the fourth power of age. Thus it was less threatening when infectious diseases and grinding poverty killed before it could strike. Its turn came when gradual alleviation of harsh conditions lengthened life expectancy, first of the aristocracy then of the general population. 

A subtle and complex disease, it was difficult to diagnose. Identification of cases increased with development of microscopy and scientific knowledge. Case load itself also increased, less because of environmental pollutions than because of changes in diet and life style. An affluent diet rich in meat and refined carbohydrates is enjoyable but not always healthy, so is a comfortable life spared of physical exertion. Widespread tobacco usage is the worse scourge. These demographic and life-style trends are being repeated in the developing world. The “disease of civilization” is spreading.

Not all is grim, however. Much could be done to stem the trend, although it would not be easy. The World Health Organization stated: “World Cancer Report provides clear evidence that action on smoking, diet and infections can prevent one third of cancers, another third can be cured.” Is this cautious optimism warranted?


From : Sunny Y. Auyang Journal


Health Tips & Info : Analysis And Synthesis In Cancer Research.


Consider a medical phenomenon, cancer. Which of the following do you think true?

A. Cancer is essentially a genetic disease.

B. Cancer is a disorder of unregulated proliferation of abnormal cells.

C. Smoking accounts for roughly 30 percent of all cancer deaths in the United States, overweight and obesity  account for 15-20 percent.

D. Inherited genetic dispositions contribute significantly to 5-10 percent of breast cancer and 5-13 percent of colon cancer incidences.

E. In the industrialized nations, roughly 7 percent of cancer deaths are attributable to viral infections; 4 percent to occupational hazards; 2 percent to sunlight; 2 percent to pollutions of air, water, and soil; and less than 1 percent to food additives and industrial products.

F. All of the above.


It is F, according to available scientific data, although some people reject any answer that does not conform to their pet ideology. Statements A to E describe cancer from the perspectives of different organizational levels: molecular, cellular, personal, familial, and environmental. A major achievement in cancer research is the introduction of a framework that accommodates phenomena in these levels and roughly explains their interrelationships. Its center of gravity lies on the molecular and cellular levels. Nevertheless, its explanations of how certain viruses, chemicals, and radiations contribute to cancer suggest links to environmental and social researches on people’s exposure to these carcinogens.

Cancer research underscores the systematic approach that makes natural science and modern engineering so powerful. Faced with a complex phenomenon, scientists analyze or reduce it to components and simpler factors that can be investigated thoroughly, for instance analyzing cancer development into cellular dynamics and gene mutations. The fruitfulness of the reductive approach is apparent when one compares the abundant solid knowledge it yields to the empty rhetoric of mystical holism that insists all is a seamless web impervious to analysis.

To analyze, however, is not to analyze away. Reducing cancer to genes is not subscribing to a dogmatic reductionism that regards a patient as nothing but a bag of genes. Despite the success and glamour of genetics and molecular biology in disease research, few if any researcher would disagree with the editors of a recent segment on complex diseases in Science: “It’s not just the genes.”

Holism that reviles analysis and reductionism that reviles synthesis are both detrimental to science, in which analysis and synthesis are complementary. For scientific research, reduction of a phenomenon into elements is incomplete if not followed by integration of relevant elements for the goal of explaining the original phenomenon. Socrates recommended the methods of division and collection. Galileo’s methods were described as resolution and composition. Newton explained the effects of analysis and synthesis in scientific investigations. Descartes followed a similar vein and went further to combine analysis and synthesis as two steps of a single method.

Perhaps the most comprehensive articulation comes from engineers. In designing complex systems such airplanes, engineers must ensure the functions of the airplane as an integral whole and specify minute details of its ten thousand parts that must work together. To rationalize design processes, they have developed systems engineering, in which analysis and synthesis are graphically depicted as the letter “V.” The downward stroke of the V represents the decomposition of a system into smaller and smaller parts and the upward stroke the assemblage of the parts into the system as a whole.

The systems-engineering V model can be extrapolated to science. Twentieth century biology mainly follows the downward stroke as it anatomizes organisms into organs and cells and molecules. Now that molecular biology has completely cataloged the genes for human and many other species, biology is turning the corner of the V. Centers of systems biology, which begin to appear in Harvard and other places, turn to study how molecular dynamics contributes to life phenomena on higher levels.

From : Sunny Y. Auyang Journal