VACCINATIONS: NEED, RISK AND BENEFITS
PREAMBLE ADDED JUNE 2,2020
By Dr Michael W. Fox
We need certain vaccines because of the ways and where we live, work, educate our children and raise farmed animals for human consumption, all under crowded and often unsanitary conditions with poor air and water quality. These and other environmental factors increase the probability of infectious and contagious disease and rather than addressing these essential elements of preventive human and veterinary medicine from the perspective of One Health we have come to over-rely on vaccines and antibiotics and other drugs. While they are profitably promoted as preventive medicine ( as was using DDT in the home decades ago), governments and public health authorities are failing to address these other aspects of disease prevention.
Over-reliance and overuse of antibiotics have led to the evolution of highly resistant strains of bacteria increasing human and farmed animal mortalities. The same can be said about highly toxic herbicides and insecticides leading to the evolution of resistant “weeds” and insect pests. Overuse of vaccines have resulted in an increase in autoimmune and other so-called vaccinosis diseases in dogs and humans alike. Some vaccines that are composed of weakened viral strains like measles and polio may cause temporary shedding from recipients leading to infection of non-vaccinated children and greater susceptibility to other infections in those who are malnourished and have compromised immune systems.
Vaccinations have helped reduce the incidence of zoonoses, disease transmissible from animals to humans, such as rabies and tuberculosis. Expanded potential immunization of animals as barriers against human exposure–rabies being a prime example—has been proposed ( *https://pubmed.ncbi.nlm.nih.gov/24060567/ via https://dev.onehealthinitiative.com/wp-content/uploads/2020/05/2ST26-B-Kaplan-8877.pdf ). This demands further, advanced utilization against several other zoonotic diseases. Species-specific diseases that can decimate local populations of cats and dogs such as feline panleukopenia and canine distemper and parvovirus have been effectively controlled in many communities with vaccinations. Human small pox has been eradicated globally thanks not only to vaccinations but to international collaboration and the fact that there are no domestic or wild animal reservoirs of this disease.
Humans are susceptible to few of the estimated 260,000 to more than 1.6 million animal viruses that exist in nature, but changes in the human-animal interface increase the chances for zoonosis, and experts warn that humans can also transmit viruses to animals. “Any time viruses have the potential to mix and mingle with others, it can cause serious issues, especially when they can jump between animals and people in either direction,” said veterinarian Casey Barton Behravesh, director of the CDC’s One Health Office. Full Story: Scientific American online (5/20)
But with rising human and farmed animal populations and incursion into wildlife habitats the emergence of new diseases like COVID-19 is inevitable. The SARS-CoV-2 .virus responsible for this disease will be a challenge to develop effective vaccinations, if ever, because coronaviruses rapidly multiply, mutate and recombine to create new strains which could potentially infect a person simultaneously, and have RNA repair mechanisms that other types of virus lack, preventing mutations that could weaken it, To a far lesser degree we see this vaccination-effectiveness issue with the failure of influenza vaccines with newly recombined and unanticipated viral strains coming from factory farmed poultry and pigs from around the world, also widely spread by international travelers, migratory birds and some believe by the microbiome in the upper atmosphere that encircles our planet. Ironically, influenza vaccinations may increase susceptibility to other viral infections such as coronavirus while a natural influenza infection may provide some degree of protection.
Bioremediation—restoring healthy, disease-preventing natural ecosystems protected from human encroachment along with more effective human population control through family planning, and spay-neuter and anti-rabies vaccination programs for community dogs and cats especially in third world countries would be significant progress. But not without a reduction in the use of climate-changing and polluting fossil fuels and world- wide factory- farmed animal production, their population being supplanted, and the acres used to feed these poor animals restored, by the rise of organic, regenerative and sustainable food production systems.
Giving life to such long- overdue initiatives now, future generations will have greater health, economic and food security than the millions who are needless suffering today. For them, the promise of more vaccines and drugs is as false as the truth others live by, not striving to live like the trees who give more to life than they take but to take all they can for themselves, so often under the false canopy of philanthropy.
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By way of introduction to this critical review, I wish to make it clear at the onset that I am not opposed to the judicious use of vaccines. My approval is conditioned on the proviso that the deployed vaccines have high levels of proven safety and effectiveness for each species upon which they are used, and requires that they become part of an integrated, holistic health care and disease prevention program. When used as a sole therapy, vaccines do not constitute an effective preventive medicine regime. The myth of infectious and contagious diseases having a single cause—the infective organism—is at long last being abandoned as other co-factors are now being more widely recognized, extending the narrow view that developing a specific vaccine is all one requires to reduce the morbidity and mortality of a given disease.
As a veterinarian I am concerned about the consequences of the widespread dissemination of modified live virus (MLV) and genetically engineered (GE) virus strains through the mass vaccinations of humans, livestock and poultry, and in-house companion animals. Some GE vaccines have been widely used in several countries in bait to stop rabies in foxes, jackals, and other wild carnivores. These vaccines all contain live viruses, and supposedly weakened attenuated or inactivated strains recombined, like the pox virus which is used as an infective carrier, spliced with an attenuated strand of rabies virus DNA. In a different context, this is akin to the Cauliflower mosaic virus that is used as a carrier of engineered genes in GE crops conferring herbicide tolerance and the manufacture of insecticidal proteins (Bt in corn). But there is one big difference. The aim of vaccination is to trigger an antibody immune response to the antigens in the vaccine. A poor response could lead to actual disease from the vaccine or vaccine failure, just as immunologic over-reaction (via aggressive anti-self antibody production) could mean death to the recipient.
The US Government’s Agriculture Fact Book 98 states that the Animal and Plant Health Inspection Service “regulates the licensing and production of genetically engineered vaccines and other veterinary biologics. These products range from diagnostic kits for feline leukemia virus to genetically engineered vaccines to prevent pseudorabies, a serious disease affecting swine. — Since the first vaccine was licensed in 1979, a total of 79 genetically engineered biologics have been licensed; all but 20 are still being produced. More than a half-century ago, there were perhaps a half a dozen animal vaccines and other biologics available to farmers. Now there are 2,379 active product licenses for these animal vaccines and other biologics and 110 licensed manufacturers.” *
Hundreds of thousands of cats have been injected with a non-adjuvanted recombinant rabies vaccine spliced with the canary pox virus used as a ‘vector’. According to Meeusen et al (2007) ‘Vectored vaccines are genetically modified organisms that have the genes responsible for encoding the desired antigens incorporated into the genetic code of a “carrier” organism. The vector is non-infectious to the recipient and transmits the desired immunizing DNA/gene to susceptible cells where the antigens are produced and presented to immune cells. The vector with the hybridized DNA is also called a chimera—having genes of two or more unrelated agents. The common vectors are capripox and canarypox viruses, adenoviruses and flaviviruses. These vaccines stimulate both antibody and cell mediated immunity and, coincidentally, immunize with one dose. A concern is that repeated vaccinations may result in immunity to the vector virus eliminating its ability to infect/transmit the desired genes to the immune system. Currently, several vectored vaccines are used in companion animals.
Some genetically engineered viral vaccines consist of chimera viruses that combine aspects of two infective viral genomes. One example is the live flavivirus chimera vaccine against West Nile virus (WNV) in horses (PreveNile), registered in the United States in 2006. The structural genes of the attenuated yellow fever YF-17D backbone virus have been replaced with structural genes of the related WNV. Chimera avian influenza virus vaccines have been produced on a backbone of an existing, attenuated Newcastle disease virus vaccine strain to protection against wild-type influenza virus as well as against Newcastle disease virus.
DNA vaccines are also being developed that consist of gene segments of infectious organisms. They are injected directly into cells for the production of the desired immunizing antigens. Intradermal injectors are used to deliver the DNA directly to the dendritic cells of the dermis. This system induces antibody and cell mediated immunity with a single injection and provides prolonged immunity. A DNA vaccine is being tested for feline leukemia virus. A DNA vaccine licensed with the USDA has been developed to protect horses against viremia caused by WNV. WNV infection, caused by a flavivirus belonging to the Japanese encephalitis virus complex, is enzootic in parts of Africa and Asia. It was first detected in 1999 in the US in an outbreak involving birds, horses, and humans in New York, subsequently spreading rapidly to many states.
I was particularly concerned by research being conducted at Philadelphia’s Thomas Jefferson University, Jefferson Vaccine Center under the direction of a Dr. Matthias J. Schnell who co-authored a scientific paper entitled ‘Rabies virus-based vectors expressing human immunodeficiency’. The following is the Center’s own synopsis of the research and development that is underway at this institution:
Research interests of the laboratory are the development of novel vaccines and viral pathogenesis.
Vaccines: Our laboratory develops Rhabdovirus-based [Rabies] vectors as vaccines against other infectious diseases. We are particularly interested in using molecular adjuvants and other molecules to enhance antigen-specific immunity and manipulate and retarget immune cells. Using different molecular approaches, we perform detailed studies of highly attenuated RVs expressing HIV-1 or SIV genes and analyze their immunogenicity in mice. Our most promising HIV vaccine candidates are currently being analyzed in a monkey model for AIDS. Other approaches include using genetically modified RV G proteins or RV capsids to carry antigens of other pathogens as vaccines against Anthrax and Botulism. We also seek to develop safer and more potent RV vaccines for wildlife and humans.
Pathogenesis: We are interested in understanding the interaction of rabies with the infected host at the molecular level. The molecular mechanism of rabies virus pathogenesis is not well understood, and our research analyzes the different functions of the rhabdoviral proteins (e.g. rabies virus) and their interactions with host proteins and the immune system.
Current projects are directed toward understanding: RV virus neurotropism and neuroinvasiveness; The transport of RV within neurons and the interaction of the RV phosphoprotein and glycoprotein with host proteins (receptors and transporter molecules); Immune responses of wild-type RV and RV-based vectors in the infected host (innate and adaptive)
GE virus developers Dongming Zhou, Ann Cun, Yan Li, and co-workers with Philadelphia’s Wistar Institute, posted on line on June 22, 2006, (doi:10.1016/j.ymthe.2006.03.027 ) a report entitled A Chimpanzee-Origin Adenovirus Vector Expressing the Rabies Virus Glycoprotein as an Oral Vaccine against Inhalation Infection with Rabies Virus. Their summary read as follows:
Rabies has the highest fatality rate of all human viral infections and the virus could potentially be disseminated through aerosols. Currently licensed vaccines to rabies virus are highly effective but it is unknown if they would provide reliable protection to rabies virus transmitted through inhalation, which allows rapid access to the central nervous system upon entering olfactory nerve endings. Here we describe preclinical data with a novel vaccine to rabies virus based on a recombinant replication-defective chimpanzee-origin adenovirus vector expressing the glycoprotein of the Evelyn Rokitniki Abelseth strain of rabies virus. This vaccine, termed AdC68rab.gp, induces sustained central and mucosal antibody responses to rabies virus after oral application and provides complete protection against rabies virus acquired through inhalation even if given at a moderate dose.
These researchers used rodents, dogs, and primates in their research, and cultures of chicken fibroblasts. They use the term “immunoprophylaxis by gene transfer” or IGT.
Vaccines Backfire: Veterinary Vaccines Found to Combine Into New Infectious Viruses
ScienceDaily (July 12, 2012) — Research from the University of Melbourne has shown that two different vaccine viruses- used simultaneously to control the same condition in chickens- have combined to produce new infectious viruses, prompting early response from Australia’s veterinary medicines regulator.
According to Australian researchers, two new infectious laryngotracheitis viruses have arisen from vaccines used to prevent the disease in chickens. The study, which compared the new viruses to two ILT vaccines widely used in Australia’s poultry industry, found that the live portions of the vaccines recombined, forming the two new strains. The study supports the need for regulating the use of attenuated live vaccines across all species to protect against the formation of new viruses, researchers said.
The vaccines were used to control infectious laryngotracheitis (ILT), an acute respiratory disease occurring in chickens worldwide. ILT can have up to 20% mortality rate in some flocks and has a significant economic and welfare impact in the poultry industry.
The research found that when two different ILT vaccine strains were used in the same populations, they combined into two new strains (a process known as recombination), resulting in disease outbreaks.
Neither the ILT virus or the new strains can be transmitted to humans or other animals, and do not pose a food safety risk.
The study was led by Dr Joanne Devlin, Professor Glenn Browning and Dr Sang-Won Lee and colleagues at the Asia-Pacific Centre for Animal Health at the University of Melbourne and NICTA’s Victoria Research Laboratory.
Dr Devlin said the combining of live vaccine virus strains outside of the laboratory was previously thought to be highly unlikely, but this study shows that it is possible and has led to disease outbreaks in poultry flocks.
“Live vaccines are used throughout the world to control ILT in poultry. For over 40 years the vaccines used in Australia were derived from an Australian virus strain. But following a vaccine shortage another vaccine originating from Europe was registered in 2006 and rapidly became widely used,” Dr Devlin said.
“Shortly after the introduction of the European strain of vaccine, two new strains of ILT virus were found to be responsible for most of the outbreaks of disease in New South Wales and Victoria. So we sought to examine the origin of these two new strains.”
The team sequenced all of the genes (the genome) of the two vaccines used in Australia, and the two new outbreak strains of the virus. Following bioinformatic analysis on the resulting DNA sequence, in conjunction with Dr John Markham at NICTA’s Victoria Research Laboratory, they found that the new disease-causing strains were combinations of the Australian and European origin vaccine strains.
“Comparisons of the vaccine strains and the new recombinant strains have shown that both the recombinant strains cause more severe disease, or replicate to a higher level than the parent vaccine strains that gave rise to them,” Dr Lee said.
Professor Glenn Browning said recombination was a natural process that can occur when two viruses infect the same cell at the same time.
“While recombination has been recognised as a potential risk associated with live virus vaccines for many years, the likelihood of it happening in viruses like this in the field has been thought to be so low that it was considered to be very unlikely to lead to significant problems,” he said.
“Our studies have shown that the risk of recombination between different vaccine strains in the field is significant as two different recombinant viruses arose within a year. We also demonstrated that the consequences of such recombination can be very severe, as the new viruses have been responsible for the deaths of thousands of Australian poultry.”
“The study suggests that regulation of live attenuated vaccines for all species needs to take into account the real potential for vaccine viruses to combine. Measures such as those now being taken for the ILT vaccines will need to be implemented.”
Journal Reference:
Sang-Won Lee, Philip F. Markham, Mauricio J. C. Coppo, Alistair R. Legione, John F. Markham, Amir H. Noormohammadi, Glenn F. Browning, Nino Ficorilli, Carol A. Hartley, and Joanne M. Devlin. Attenuated Vaccines Can Recombine to Form Virulent Field Viruses. Science, 13 July 2012: 188 DOI: 10.1126/science.1217134
A new study in the U.S. has shown that pigs vaccinated against one strain of influenza were worse off if subsequently infected by a related strain of the virus.
H.Golding et al Vaccine-Induced Anti-HA2 Antibodies Promote Virus Fusion and Enhance Influenza Virus Respiratory Disease, Sci Transl Med 28 August 2013: Vol. 5, Issue 200, p. 200ra114 Sci. Transl. Med. DOI: 10.1126/scitranslmed.3006366
Abstract
Vaccine-induced disease enhancement has been described in connection with several viral vaccines in animal models and in humans. We investigated a swine model to evaluate mismatched influenza vaccine-associated enhanced respiratory disease (VAERD) after pH1N1 infection. Vaccinating pigs with whole inactivated H1N2 (human-like) virus vaccine (WIV-H1N2) resulted in enhanced pneumonia and disease after pH1N1 infection. WIV-H1N2 immune sera contained high titers of cross-reactive anti-pH1N1 hemagglutinin (HA) antibodies that bound exclusively to the HA2 domain but not to the HA1 globular head. No hemagglutination inhibition titers against pH1N1 (challenge virus) were measured. Epitope mapping using phage display library identified the immunodominant epitope recognized by WIV-H1N2 immune sera as amino acids 32 to 77 of pH1N1-HA2 domain, close to the fusion peptide. These cross-reactive anti-HA2 antibodies enhanced pH1N1 infection of Madin-Darby canine kidney cells by promoting virus membrane fusion activity. The enhanced fusion activity correlated with lung pathology in pigs. This study suggests a role for fusion-enhancing anti-HA2 antibodies in VAERD, in the absence of receptor-blocking virus-neutralizing antibodies. These findings should be considered during the evaluation of universal influenza vaccines designed to elicit HA2 stem-targeting antibodies.
Kanduc D. (2012) Peptide cross-reactivity: the original sin of vaccines. Front Biosci (Schol Ed). Jun 1;4:1393-401.
Abstract
Recent numerous studies have demonstrated that an extensive peptide identity platform characterizes entities spanning the entire evolutionary arc from viruses to humans and establishes an immune cross-reactivity potential among viruses and bacteria, as well as between microbial organisms and humans. This peptide commonality presents obstacles to diagnostics, burdens therapeutic vaccinology with harmful collateral effects, and can result in autoimmune diseases. The present study 1) recapitulates the significance of cross-reactivity from the molecular mimicry hypothesis to the phenomenon of microbial immunoevasion; 2) analyzes the implications of cross-reactivity for the self-nonself discrimination issue; 3) highlights the negative role exerted by cross-reactions in translating immunology to effective vaccines; 4) outlines the vicious circle connecting peptide commonality, microbial immune escape, adjuvanted vaccines and autoimmune cross-reactions; and 5) conclusively indicates sequence uniqueness as a basic criterion for designing effective vaccines exempt from autoimmune cross-reactions.
OBESITY VACCINE FOR DOGS AND CATS
A U.S. patent has been issued on April 23, 2013 for the treatment of phenotypic obesity in dogs and cats by vaccination, and covers ‘methods for enhanced somatostatin immunogenicity in the treatment of obesity’. This genetically engineered vaccine was developed by Braasch Biotech based in South Dakota, which specializes in developing and commercializing a new class of biopharmaceutical products for the human and animal health care market. Additional patent applications are pending in Canada, Europe, Japan and other countries.
Given that obesity, which has reached epidemic proportions in the U.S. and many other countries in both humans and companion animals, such a vaccine could be extremely profitable since reported studies indicate that it can help promote weight loss. But how safe is it? Vaccines can notoriously fickle when it comes to genotypic variables in immune response, susceptibility to autoimmune diseases and vaccinosis
When the known physiological, regulatory and other complex functions of somatostatin are considered, we must question what the short and long term consequences could be when a vaccine is given to block these functions. They include:
Somatostatin, a polypeptide hormone, produced in the brain, stomach, intestine and pancreas, inhibits secretion of somatotropin growth hormone, thyroid stimulating hormone from the hypothalamus and inhibits insulin production by the pancreas.
In the stomach, somatostatin acts on the acid-producing parietal cells parietal cells via G-coupled receptor to reduce secretion. Somatostatin also indirectly decreases stomach acid production by preventing the release of other hormones, including gastrin and histamine. It decreases the rate of gastric emptying, and reduces smooth muscle contractions and blood flow within the intestine.
Suppresses the release of pancreatic hormones
Inhibits insulin release when somatostatin is released from delta cells of pancreas.
Inhibits the release of glucagon.
Suppresses the exocrine secretory action of the pancreas.
The rationale behind this vaccine is that it triggers the body into producing anti-somatostatin antibodies, effectively removing the inhibition of growth hormone (GH) and insulin-like growth factor (IGF-1) which increase metabolism and weight loss. One immediate concern of mine is the link between elevated IGF-1 and certain cancers, a reason why the U.K. and Europe banned recombinant genetically engineered bovine growth hormone for use in dairy cows because it caused elevation of IGF-1 in the milk which could put consumers at risk.
GH induces growth promoting and other effects by stimulating the liver to increase production of the natural Insulin-like Growth Factor-1 (IGF-1) whose blood levels normally decline with advancing age. However, there are numerous publications in prestigious peer reviewed scientific journals showing that elevated IGF-1 levels are strongly associated with major excess risks of colon, prostate and breast cancers according to Dr. Samuel Epstein. (Source: Cancer Prevention Coalition Press Release – March 14, 2000)
Several studies have shown that somatostatin can have a modulating effect on tumor suppressor genes. ( e.g. see Xing, Z. et al. XAF1 expression and regulatory effects of somatostatin on XAF1 in prostate cancer cells J Exp Clin Cancer Res. 2010; 29(1): 162). An anti-somatostatin vaccine, such as the one developed to induce weight loss, could block this effect and thus increase the possibility of recipients developing cancer.
With appropriate dietary modifications, supplements such as L-carnitine, regular exercise and microbiome enhancement with probiotics or fecal infusion, most cases of obesity show dramatic improvement. In my professional opinion as a long-time critic of overvaccianation of companion animals (see Healing Animals & the Vision of One Health, CreatSpace/Amazon.com) and advocate of wise use of vaccines and biopharmaceuticals, I cannot endorse such vaccine treatment of obesity in dogs and cats especially since this condition is often associated with diabetes, liver and heart disease which could be aggravated by a lack of somatostatin. In the absence, to my knowledge, of published peer reviewed clinical trials and only basic resarch on obesity prone mice from my alma mater, the Jackson Laboratory, Bar Harbor ME, I do not believe that this vaccine has a place in veterinary treatment of metabolically compromised dogs and cats suffering from obesity. For additional details on the role of good nutrition in promoting and maintaining anu=imals’ health and well-being, see the book that I co-authored with two other veterinarians, Not Fit for a Dog: The Truth About Manufactured Cat & Dog Foods.
FLU VACCINE HELPS UNRAVEL COMPLEX CAUSES OF NARCOLEPSY
Science News December 2013 by Deborah MacKenzie.
“It was as unexpected as it was tragic: children in northern Europe who got one particular vaccine against the 2009 swine flu pandemic were at a much higher risk of developing narcolepsy, a lifelong disorder in which people fall asleep involuntarily and experience spells of muscle weakness Exposure to swine flu itself could also lead to the disorder: after the pandemic, China saw a fourfold rise in narcolepsy in children who didn’t receive any flu vaccine. New research has now revealed the link between the two: part of a surface protein on the pandemic virus looks very similar to part of a brain protein that helps keep people awake. When a person’s immune system learns to recognise and fight the virus, it mistakes the brain protein for an invader, too. The discovery could make flu vaccines safer and might also make narcolepsy the first autoimmune disease to have its complex causes picked apart.”
VACCINES, ADJUVANTS AND AUTOIMMUNITY
C.A.Shaw and L. Tomiljenovic Aluminum in the central nervous system (CNS): toxicity in humans and animals, vaccine adjuvants, and autoimmunity. Immunol Res. 2013 Jul;56(2-3):304-16. doi: 10.1007/s12026-013-8403-1.
Abstract
We have examined the neurotoxicity of aluminum in humans and animals under various conditions, following different routes of administration, and provide an overview of the various associated disease states. The literature demonstrates clearly negative impacts of aluminum on the nervous system across the age span. In adults, aluminum exposure can lead to apparently age-related neurological deficits resembling Alzheimer’s and has been linked to this disease and to the Guamanian variant, ALS-PDC. Similar outcomes have been found in animal models. In addition, injection of aluminum adjuvants in an attempt to model Gulf War syndrome and associated neurological deficits leads to an ALS phenotype in young male mice. In young children, a highly significant correlation exists between the number of pediatric aluminum-adjuvanted vaccines administered and the rate of autism spectrum disorders. Many of the features of aluminum-induced neurotoxicity may arise, in part, from autoimmune reactions, as part of the ASIA syndrome.
The book Vaccines and Autoimmunity, edited by Yehuda Shoenfeld, Nancy Agmon-Levin and Lucija Tomljenovic (Wiley Blackwell, 2015) provides critical review articles by 77 contributors from 15 different countries assessing the role of vaccine contents and protocols in the genesis of autoimmune diseases in humans and animals. It should be mandatory reading for all involved in the manufacture and distribution of vaccines and is a wakeup call for all health care providers in human and veterinary medicine.
Scientists insert avian influenza gene into duck enteritis vaccine
Scientists used CRISPR-Cas9 gene editing to insert avian influenza virus genes into the duck enteritis virus vaccine to protect ducks, geese and swans against both viruses. Domestic ducks in Southeast Asia are a primary reservoir of highly pathogenic avian influenza strains and are important targets for vaccination efforts.
Poultry World (Netherlands) (4/3/18)
Influenza vaccines and dengue-like disease
Injecting influenza vaccines can trigger dengue-like fever, cytokine storm and fatalities especially after prior sensitization with influenza vaccination. BMJ 2018; 360 doi: https://doi.org/10.1136/bmj.k1378 (Published 23 March 2018) Cite this as: BMJ 2018;360:k1378 —” When a person making anti-H3N2 IgE is infected with H3N2, one can expect the course of the flu to be significantly worse. So the “cytokine storm” being observed in severe cases is likely to be an infection concurrent with an allergic reaction. Death is caused by anaphylactic shock but due to the presence of an infection, it is wrongly classified as septic shock.
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WILBUR LA, EVERMANN JF, LEVINGS RL, et al. (1994) Abortion and death in pregnant bitches associated with a canine vaccine contaminated with bluetongue virus. J Am Vet Med Assoc; 204:1762–5.
ADDENDUM
Vaccination protocols are under more intense scrutiny internationally for both children (visit http://vaccineresistancemovement.org/?p=7320) and companion animals (1).. Noting the correlation in children receiving the MMR vaccination (triple live measles, mumps and rubella) and their subsequent development of inflammatory bowel disease(2), I see a possible parallel in puppies receiving the standard triple modified live distemper, hepatitis and parvovirus vaccine as a factor contributing to the evident increase in inflammatory bowel disease in dogs. But I would not rule out the possibility of dietary co-factors, especially considering the novel proteins in GM foods, (3,4), and also glyphosate and other herbicide residues contributing to dysbiosis and inflammatory bowel disease.
(1 ) Fox, M.W. Healing Animals and the Vision of One Health. Tallevast, FL One Health Vision Press/Amazon.com 2011
(2) Kawashima, H., Mori, T., Kashiwagi, Y., Takekuma, K., Hoshika, A., & Wakefield, A. Detection and sequencing of measles virus from peripheral mononuclear cells from patients with inflammatory bowel disease and autism. Dig Dis Sci 45:723-9, 2000..
(3) Dona A. and Arvanitoyannis,I.S., Health Risks of Genetically Modified Foods. Critical Reviews in Food Science and Nutrition. 49: 164-175, 2009
(4) Smith, J.M. Genetic Roulette: The Documented Health Risks of Genetically Engineered Foods Fairfield. Iowa Yes! Books 2007.
* For more details see www.twobitdog.com/DrFox/ and . OIE/world Organization for Animal Health, Manual of Diagnostic tests and Vaccines for Terrestrial Mammals, (2008). www.oieint/eng/normes/mmanual/A_00099.htm)
*This paper is included in the following Proceedings which provide further, extensive documentation of human risks of vaccinations from researchers and doctors from around the world:
http://www.ecomed.org.uk/publications/the-health-hazards-of-disease-prevention
Additional References & Resources
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American Veterinary Medical Association letter, re Center for Veterinary Biologics Notice Draft No. 327: Studies to Support Label Claims of Duration of Immunity dated October 27 2008: 092007.pdf”>http://www.wsava.org/PDF/Misc/VGG092007.pdf
Delves, P. J., T. Lund, & I. M. Roitt. (2002). Antifertility vaccines. Trends Immunol. 23:213-219.
de Vries, J.,& Meier, P., and Wackernagel, W. 2004. Microbial horizontal gene transfer and the DNA release from transgenic crop plants. Plant and Soil, 266: 91-104.
England, J. (2008). New Vaccine Technologies: Destined for Cattle Vaccines, CVC Proceedings. August 1st.
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Friedrich, F. et al (1996). Temporal association between the isolation of Sabin-related poliovirus vaccine strains and the Guillan-Barre syndrome Rev Inst Med Trop. Sao Paulo, Jan-Feb; 38(1):55-8
Hardham, J., M. Reed, J. Wong,et al (2005). Evaluation of a monovalent companion animal periodontal disease vaccine in an experimental mouse periodontitis model. Vaccine 23:3148-3156.
Isaguliants, M.G., Iakimtchouk, K., Petrakova, N.V.,et al (2004) Gene immunization may induce secondary antibodies reacting with DNA. Vaccine 2004, 22(11-12),1576-85
Kirpensteinjn, J.(2006) Feline injection site-assiciated sarcoma: Is it a reason to critically evaluate our vaccination policies? Vet Microbiol. 117: 59-65
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Kuiken, T., G. Rimmelzwaan, D. van Riel,et al (2004) Avian H5N1 influenza in cats. Science 306:241
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Lappin, M.R.,Sebring RW, Porter M, et al (2006) Effects of a single dose of an intranasal feline herpesvirus 1, calicivirus, and panleukopenia vaccine on clinical signs and virus shedding after challenge with virulent feline herpesvirus 1. J Fel. Med. Surg 8:158-163.
Ledwith, B.J., Manam, S., Troilo, P.J.,et al (2000) Plasmid DNA vaccines: Investigation of integration into host cellular DNA following intramuscular injection in mice. Intervirology 43(4-6), 258-72.
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Mouzin, D.E.,Lorenzen, M.J., Haworth K., et al (2004) Duration of serologic response to five viral antigens in dogs. J Am Vet Med Assoc 224: 55-60
Mouzin, D.E., Lorenzen, M.J., Haworth, K et al (2004) Duration of serologic response to three viral antigens in cats. J Am Vet Med Assoc 224: 61-66
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Pashine, A., N., M. Valiante,& J. B Ulmer. (2005)Targeting the innate immune response with improved vaccine adjuvants. Nat. Med. 11:S63-S68.
Paul, M.A., Appel, M.J., Barrett, et al (2003) Report of the American Animal Hospital Association (AAHA) Canine Vaccine Task Force: 2003 Canine Vaccine Guidelines, Recommendations, and Supporting Literature:
Vascellari, M., Melchiotti E., Bozza, M.A et al (2003) Fibrosarcomas at presumed sites of injection in dogs: x characteristics and comparison with non-vaccination site fibrosarcomas and feline post-vaccinal fibrosarcomas. J Vet Med 50: 286-291
Villarreal, L.P. (2004) Viruses and the Evolution of Life. Washington DC, ASM Press.
World Small Animal Veterinary Association Dog and Cat Vaccination Guidelines:
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