Tisra Til
2021-07-20 22:34:55 UTC
“Scientists have never demonstrated that a virus can enter the body from outside, penetrate a cell and cause it to become diseased (Gunn, 2014, ch. 4). There is no evidence that the viruses associated with a particular disease can actually cause that illness through skin contact, when breathed in or when ingested. A virology textbook mentions that experiments on the transmission of rhinovirus (cold virus) from a person on one side of a table to a person sitting opposite proved ‘singularly unsuccessful’. The transmission of influenza from a naturally infected husband/wife to his/her spouse was equally unsuccessful (Dimmock & Primrose, 1987, p. 230). All that can be said for certain is that a small percentage of people who have been in the presence of other sick people will develop a similar disease, while most will not. Allen et al. (1973) reported that six out of 12 men wintering at an isolated Antarctic base unexpectedly developed symptoms of a common cold after 17 weeks of complete isolation. Although specimens taken from the men failed to reveal a causative agent, it was assumed that the cause was probably a virus that had become reactivated after a sharp drop in temperature.
All viruses are made by cells, and they are mostly species- and organ-specific. Cells make viruses by producing short lengths of genetic code and wrapping part of their own outer membrane around them as they bud them out. One view is that this is a way of disposing of faulty genetic sequences (Quanten, 2004). Another view is that they are ‘repair proteins’ evolved from microzymas (Young, 2016a). In some cases, cells are believed to splice the genetic codes they receive from viruses into their own DNA. In contrast to viruses, cells are immensely complex: they respond intelligently to their surroundings and constantly communicate with one another. Photos of alleged viruses ‘injecting themselves’ into a cell actually show the cell engulfing the ‘virus’. This is a standard process – known as phagocytosis (‘cell-eating’) – that cells use to ingest bacteria, dead tissue debris and other errant cells (Baker, 2005).
Bacteria and viruses are very different. A bacterium is regarded as a living, self-replicating organism. Viruses are far smaller and simpler than bacteria, and consist of tiny bits of genetic material (RNA or DNA) – less than one billionth the size of the cell’s genetic code – contained within a protein capsule. They are inert particles with no respiratory, circulatory or digestive system; they display no metabolic activity and cannot move, grow or reproduce by themselves. They are therefore not alive as defined by science. The official view is that they reproduce by ‘hijacking’ a host cell, but nowhere in nature does any living thing reproduce anything other than its own kind. Viruses are also said to mutate very fast in a ‘cunning’ effort to defend themselves and survive. They allegedly lose the ability to take over other cells within a few hours of being outside the host body. However, the idea of an intelligent, highly sophisticated cell being taken over and killed by an inert particle a million times smaller than itself is absurd. In addition, no one has explained how the death of a cell is able to induce a fever or skin rash, or any of the other symptoms of a ‘viral’ disease. It is also unclear how a virus, which is not motile, manages to escape from the host cell and ‘hitch’ itself to a particle of saliva or mucus that is then ejected during a sneeze or cough. It is noteworthy that neither bacteria nor viruses can be grown on healthy tissue. They can only be cultured by using things like beef broth, albumen-based broth, or eggs to stimulate their growth. All these things are dead organic matter – the food that scavengers love.
Viruses were invented in the late 19th century to explain certain diseases that were not associated with bacteria; it was assumed that these viral microbes were too small to be observed under a light microscope. In practice, ‘viral’ infections are mostly diagnosed on the basis of clinical symptoms, not by directly detecting, isolating and identifying the virus. Indirect detection methods are also used. Sometimes people are said to be ‘infected’ if tests show that they have high antibody levels – even though the antibodies could have been produced in response to other things, and high antibody levels are also often cited as evidence that a person has been infected with a virus in the past and is now protected against it. Sometimes DNA or RNA fragments that are thought to be associated with a virus are looked for in diseased cells or fluids, and a technique known as polymerase chain reaction (PCR) is used to replicate them millions or billions of times and make them easier to find. But again it is impossible to know for certain whether such fragments actually come from the virus, since the genome of a purified virus has never been sequenced.”
https://www.davidpratt.info/ozone.htm
All viruses are made by cells, and they are mostly species- and organ-specific. Cells make viruses by producing short lengths of genetic code and wrapping part of their own outer membrane around them as they bud them out. One view is that this is a way of disposing of faulty genetic sequences (Quanten, 2004). Another view is that they are ‘repair proteins’ evolved from microzymas (Young, 2016a). In some cases, cells are believed to splice the genetic codes they receive from viruses into their own DNA. In contrast to viruses, cells are immensely complex: they respond intelligently to their surroundings and constantly communicate with one another. Photos of alleged viruses ‘injecting themselves’ into a cell actually show the cell engulfing the ‘virus’. This is a standard process – known as phagocytosis (‘cell-eating’) – that cells use to ingest bacteria, dead tissue debris and other errant cells (Baker, 2005).
Bacteria and viruses are very different. A bacterium is regarded as a living, self-replicating organism. Viruses are far smaller and simpler than bacteria, and consist of tiny bits of genetic material (RNA or DNA) – less than one billionth the size of the cell’s genetic code – contained within a protein capsule. They are inert particles with no respiratory, circulatory or digestive system; they display no metabolic activity and cannot move, grow or reproduce by themselves. They are therefore not alive as defined by science. The official view is that they reproduce by ‘hijacking’ a host cell, but nowhere in nature does any living thing reproduce anything other than its own kind. Viruses are also said to mutate very fast in a ‘cunning’ effort to defend themselves and survive. They allegedly lose the ability to take over other cells within a few hours of being outside the host body. However, the idea of an intelligent, highly sophisticated cell being taken over and killed by an inert particle a million times smaller than itself is absurd. In addition, no one has explained how the death of a cell is able to induce a fever or skin rash, or any of the other symptoms of a ‘viral’ disease. It is also unclear how a virus, which is not motile, manages to escape from the host cell and ‘hitch’ itself to a particle of saliva or mucus that is then ejected during a sneeze or cough. It is noteworthy that neither bacteria nor viruses can be grown on healthy tissue. They can only be cultured by using things like beef broth, albumen-based broth, or eggs to stimulate their growth. All these things are dead organic matter – the food that scavengers love.
Viruses were invented in the late 19th century to explain certain diseases that were not associated with bacteria; it was assumed that these viral microbes were too small to be observed under a light microscope. In practice, ‘viral’ infections are mostly diagnosed on the basis of clinical symptoms, not by directly detecting, isolating and identifying the virus. Indirect detection methods are also used. Sometimes people are said to be ‘infected’ if tests show that they have high antibody levels – even though the antibodies could have been produced in response to other things, and high antibody levels are also often cited as evidence that a person has been infected with a virus in the past and is now protected against it. Sometimes DNA or RNA fragments that are thought to be associated with a virus are looked for in diseased cells or fluids, and a technique known as polymerase chain reaction (PCR) is used to replicate them millions or billions of times and make them easier to find. But again it is impossible to know for certain whether such fragments actually come from the virus, since the genome of a purified virus has never been sequenced.”
https://www.davidpratt.info/ozone.htm