' AChronic Illness Characterised by
Fatigue, Neurologic and Immunologic Disorders, and active Human
Herpesvirus Type 6 Infection ' Buchwald D, Cheney PR, Peterson
DL, Henry B, et al., Annals of Internal Medicine 116 (Jan. 15 1992):
103-13
Frequent HHV-6 reactivation in Multiple Sclerosis and Chronic Fatigue
Syndrome patients. DV. Ablashi, Journal of Clinical Virology, 2000, 16,
3, 179-19
Hickie I, et al. Post-infective and chronic fatigue syndromes precipitated by viral and non-viral pathogens: prospective cohort study. British Journal of Medicine 2006; 333 (7568):575.
Patnaik, M.; Komaroff, A. L.; Conley, E.; Ojo-Amaize, E. A.; Peter, J. B. (1995). "Prevalence of IgM Antibodies to Human Herpesvirus 6 Early Antigen (p41/38) in Patients with Chronic Fatigue Syndrome". Journal of Infectious Diseases172 (5): 1364–7.
Secchiero, P.; Carrigan, D. R.; Asano, Y.; Benedetti, L.; Crowley, R. W.; Komaroff, A. L.; Gallo, R. C.; Lusso, P. (1995). "Detection of Human Herpesvirus 6 in Plasma of Children with Primary Infection and Immunosuppressed Patients by Polymerase Chain Reaction". Journal of Infectious Diseases171 (2): 273–80.
Knox, et al.: Persistent active human herpesvirus 6 (HHV-6)
infections in patients with CFS. Presented 10/11/98, AACFS Biennial
Research Conference, Cambridge, MA.
Wagner, Mathias; Krueger, Gerhard; Ablashi, Dharam; Whitman, James (1996). "Chronic Fatigue Syndrome (CFS): A Critical Evaluation of Testing for Active Human Herpesvirus-6 (HHV-6) Infection". Journal of Chronic Fatigue Syndrome2 (4): 3–16.
Knox, K., et al. Systemic Leukotropic Herpesvirus Infections and Autoantibodies in Patients with Myalgic Encephalomyelitis – Chronic Fatigue Syndrome. 7th International Conference on HHV-6 and 7. March 1, 2011. Reston, VA.
Levine S (2001), "Prevalence in the cerebro spinal fluid of the following infectious agents in a cohort of 12 CFS subjects: Human Herpes Virus 6 & 8; Chlamydia Species; Mycoplasma Species, EBV; CMV and Coxsackie B Virus", Journal of Chronic Fatigue Syndrome, 9:91-2:41-51
Ablashi, et al.: Increased activation of HHV-6, but not HHV-7 or
HHV-8 in CFS patients. Presented 10/11/98, AACFS Biennial Research
Conference, Cambridge, MA.
Persistent human herpesvirus-6 infection in patients with an inherited form of the virus. Pantry, S. N., Medveczky, M. M., Arbuckle, J. H., Luka, J., Montoya, J. G., Hu, J., Renne, R., Peterson, D., Pritchett, J. C., Ablashi, D. V. and Medveczky, P. G. (2013), J. Med. Virol.
Lerner M, Beqaj S, Fitzgerald JT, Gill K, Gill C, Edington J (2010), "Subset-directed antiviral treatment of 142 herpesvirus patients with chronic fatigue syndrome", Virus Adaptation and Treatment, mei, Volume 2010:2, p.47-57
Source: Knox, K., et al. Systemic Leukotropic Herpesvirus Infections and Autoantibodies in Patients with Myalgic Encephalomyelitis – Chronic Fatigue Syndrome. 7th International Conference on HHV-6 and 7. March 1, 2011. Reston, VA..
Zorzenon, Marcella; Rukh, Gull; Botta, Giuseppe; Colle, Roberto; Barsanti, Laura; Ceccherini-Nelli, Luca (1996). "Active HHV-6 Infection in Chronic Fatigue Syndrome Patients from Italy". Journal of Chronic Fatigue Syndrome2: 3–12.
"Evidence of active HHV6 infection and its correlation with
RNaseL (LMW) protein in CFS patients was presented by Dharam Ablashi
(Washington, USA). His team had looked at HHV6 in plasma, CSF and
white blood cells. The aim was to correlate HHV6 with presence of the
37KDa protein. The 35 CFS patients studied showed that 65% had active
HHV6 infection with varying HHV6 IgM antibody and HHV6 infected PBMCs.
In the CSF, 26.7% had HHV6 DNA. Nested PCR showed 34% patients had
HHV6 in plasma, but using TaqMan PCR, 48.5% were shown positive in
plasma, and 40% in CSF. This test was therefore more sensitive in this
assay. HHV6 variant A was identified by TaqMan PCR in almost all
positive patients. Variant A tends to be acquired in adult life,
variant B in early childhood. Ratio of LMW to HMW(80KDa) protein was
detected in 70% PMBC samples. Correlation with HHV6 was significant
when the ratio was greater than 4. IgM antibody and PCR correlation
was less significant."
Research paper presented by Dharam Ablashi (Washington, USA) to The
Sydney ME / CFS Clinical and Scientific Conference, December 2001
Important lecture by Dr. Martin Lerner on the role of viruses in ME / CFS. Click on links to view videos.
Medical doctor with 40 years experience. Certified by the American Board of Internal Medicine and is an Infectious Disease Specialist. Residency, Internal Medicine, Harvard Medical Services. Boston City Hospital and Barnes Hospital, St. Louis, MO. Washington University School of Medicine, M.D. Two Years, National Institute of Allergy and Infectious Diseases, Epidemiology Unit.
Alumni Awardee, Washington University School of Medicine.
Three years research fellow in infectious diseases at the Thorndike Memorial Laboratory, Boston City Hospital and Harvard Medical School under the direction of *Dr. Maxwell Finland, (founder of subspecialty infectious diseases). Chief of the Division of Infectious Diseases and Professor of Internal Medicine at Wayne State University School of Medicine, 1963-1982. Established a clinical virology laboratory and trained 33 physicians in the subspecialty of infectious diseases, Wayne State University, 1963-1982.
“Two disorders of significant importance, MS and CFS, appear to be associated with HHV-6 infection…the data presented here show that both MS and CFS patients tend to carry a higher rate of HHV-6 infection or reactivation compared to normal controls. This immunological and virological data supports a role of HHV-6 in the symptomatology of these diseases…Based on biological, immunological and molecular analysis, the data show that HHV-6 isolates from 70% of CFS patients were Variant A…Interestingly, the majority of HHV-6 isolates from MS patients were Variant B…These data demonstrate that the CFS patients exhibited HHV-6 specific immune responses…Seventy percent of the HHV-6 isolates from CFS patients were Variant A, similar to those reported in AIDS…It has already been shown that active HHV-6 infection in HIV-infected patients enhanced the AIDS disease process. We suspect that the same scenario is occurring in the pathogenesis of MS and CFS…The immunological data presented here clearly shows a significantly high frequency of HHV-6 reactivation in CFS and MS patients. We postulate that active HHV-6 infection is a major contributory factor in the aetiologies of MS and CFS” (DV Ablashi, DL Peterson et al. Journal of Clinical Virology 2000:16:179-191).
The work of psychiatrists - Dr. Thomas Henderson and Dr. William Pridgen
Valacyclovir treatment of chronic fatigue in adolescents. Henderson TA. Adv Mind Body Med. 2014 Winter;28(1):4-14.
“Over the last decade a wide variety of infectious agents has been associated with CFS by researchers from all over the world. Many of these agents are neurotrophic and have been linked to other diseases involving the central nervous system (CNS)…Because patients with CFS manifest a wide range of symptoms involving the CNS as shown by abnormalities on brain MRIs, SPECT scans of the brain and results of tilt-table testing, we sought to determine the prevalence of HHV-6, HHV-8, EBV, CMV, Mycoplasma species, Chlamydia species and Coxsackie virus in the spinal fluid of a group of patients with CFS. Although we intended to search mainly for evidence of actively replicating HHV-6, a virus that has been associated by several researchers with this disorder, we found evidence of HHV-8, Chlamydia species, CMV and Coxsackie virus in (50% of patient) samples…It was also surprising to obtain such a relatively high yield of infectious agents on cell free specimens of spinal fluid that had not been centrifuged” (Susan Levine. JCFS 2002:9:1/2:41-51).
The destructive power of HHV-6a virus
HHV-6a is able to infect and kill natural killer cells. Lusso,
Paolo et al.; "Infection of Natural Killer Cells by Human
Herpesvirus 6"; Nature 349:533, February 7, 1991.
HHV-6a is able to infect and kill CD4 (T4) cells. Lusso, P. et
al.; "Productive Infection of CD4-Positive and CD8-Positive
Mature Human T Cell Populations and Clones by Human Herpesvirus
6"; Journal of Immunology 147(2):685, July 15, 1991.
HHV-6a can cause other immune system cells (like CD8 cells) to
express the CD4 cell surface antigen. Lusso, P. et al;
"Induction of CD4 and Susceptibility to HIV-1 Infection in
Human CD98-Positive T Lymphocytes by Human Herpesvirus 6";
Nature 349:533, February 7, 1991.
HHV-6a destroys the B-cells of the immune system at a rapid rate. This has been found in research carried out by Robert Gallo MD of the NIH in the USA and research by virologist Berch Henry, Nevada. This research is cited in the book 'Oslers Web', by Hillary Johnson, Penguin Books 1997
HHV-6a can infect a wide variety of organ tissues (besides
immune system cells), including brain, spinal cord, lung, lymph
node, heart, bone marrow, liver, kidney, spleen, tonsil, skeletal
muscle, adrenal glands, pancreas, and thyroid. Knox, K.K. and D.R.
Carrigan; "Disseminated Active HHV-6a Infections in Patients
With AIDS"; The Lancet 343:577, March 5, 1994.
HHV-6a has been found to be closely associated with Kaposi's
sarcoma, and suggested as a possible causitive agent of this
"AIDS"-related cancer. Bovenzi, P. et al.; "Human
Herpesvirus 6 (Variant A) in Kaposi's Sarcoma"; The Lancet
341:1288, May 15, 1993.
HHV-6a has been associated with thrombocytopenia, a blood
clotting disorder common in "AIDS" patients. Kitamura,
K. et al.; "Idiopathic Thrombocytopenic Purpura After Human
Herpesvirus 6 Infection"; The Lancet 344:830, September 17,
1994.
HHV-6a appears to cause graft-versus-host disease, an immune
disorder that develops after transplant surgery (particularly
after bone marrow transplantation). Cone, R.W. et al.; "Human
Herpesvirus 6 in Lung Tissue From Patients With Pneumonitis After
Bone Marrow Transplantation"; New England Journal of Medicine
329:156, July 15, 1993.
HHV-6a can infect other species; most notably, it has been found
in 100 percent of some populations of African green monkeys.
Higashi, K. et al.; "Presence of Antibody to HHV-6 In
Monkeys"; J. Gen. Virol. 70:3171, 1989.
HHV-6a can cause fatal, disseminated infections. Knox and
Carrigan, op cit.
HHV-6a can cause fatal pneumonitis (lung infection). R.W. Cone,
op cit.
HHV-6a can cause fatal liver failure. Asano, Y. et al.;
"Fatal Fulminate Hepatitis in an Infant With Human
Herpesvirus-6 Infection"; The Lancet April 7, 1990.
HHV-6a can cause hepatitis, a sometimes-fatal liver infection.
Y. Asano et al., ibid.
HHV-6a is associated with the development of brain lesions.
Buchwald, D. et al.; "A Chronic, 'Postinfectious' Fatigue
Syndrome Associated With Benign Lymphoproliferation, B-Cell
Proliferation, and Active Replication of Human
Herpesvirus-6"; Journal of Clinical Immunology 10:335, 1990.
HHV-6a is associated with a particular type of skin rash, or
dermatitis, that occurs frequently following bone marrow
transplantation. Michel, D. et al.; "Human Herpesvirus 6 DNA
in Exanthematous Skin in BMT Patient"; The Lancet 344:686,
September 3, 1994.
HHV-6a is spread through saliva. Levy, J. et
al.;"Frequent Isolation of HHV-6 From Saliva and High
Seroprevalence of the Virus in the Population"; The Lancet,
May 5, 1990.
HHV-6a has been found to be associated with Hodgkin's
lymphoma, acute lymphocytic leukemia, African Burkitts lymphoma,
and sarcoidosis, as well as "AIDS" and Chronic Fatigue
Syndrome. Lusso, P. et al.; "In Vitro Cellular Tropism of
Human B-Lymphotropic Virus(Human Herpesvirus-6)"; Journal of
Experimental Medicine 167:1659, May 1988.
The two variants of HHV-6, Variant A and Variant B, appear to
cause very different symptoms. Variant B seems to be associated
with mild, childhood infection and disease; Variant A is found in
immunocompromised adults with illnesses like "AIDS,"
cancer, and Chronic Fatigue Syndrome. Dewhurst, S.W. et al.;
"Human Herpesvirus-6 (HHV-6) Variant B Accounts for the
Majority of Symptomatic Primary HHV-6 infections in a Population
of U.S. Infants"; Journal of Clinical Microbiology, February
1993.
HHV-6a's growth is stopped by the experimental drug Ampligen.
Ablashi, D.V. et al.; Ampligen Inhibits In Vitro Replication of
HHV-6"; Abstract from CFS conference, Albany, NY, October
2-4, 1992
When HHV-6a's growth is stopped by the experimental drug
Ampligen in Chronic Fatigue Syndrome patients, their symptoms
resolve. (In a trial published in 1987, the same appeared to be
true for "AIDS" patients treated with Ampligen.) Strayer,
D.R. et al.; "A Controlled Clinical Trial With a Specifically
Configured RNA Drug, Poly(I):Poly(C12U), in Chronic Fatigue
Syndrome";Clinical Infectious Diseases, January 1994.
HHV-6a has been suggested as a "cofactor" in the
development of "AIDS." P. Lusso and R.C. Gallo;
"Human Herpesvirus 6 in AIDS"; The Lancet 343:555, March
5, 1994.
Effects of HHV-6a virus compiled by Neenyah Ostrom
Association of Active Human Herpesvirus-6, -7 and Parvovirus B19 Infection with Clinical Outcomes in Patients with Myalgic Encephalomyelitis/Chronic Fatigue Syndrome. Svetlana Chapenko, Angelika Krumina, Inara Logina, Santa Rasa, Maksims Chistjakovs, Alina Sultanova, Ludmila Viksna, and Modra Murovska. Advances in Virology. Volume 2012, Article ID 205085, 7 pages
Nicolson et al showed that multiple co-infections (Mycoplasma, Chlamydia, HHV-6) in blood of chronic fatigue syndrome patients are associated with signs and symptoms: “Differences in bacterial and/or viral infections in (ME)CFS patients compared to controls were significant…The results indicate that a large subset of (ME)CFS patients show evidence of bacterial and/or viral infection(s), and these infections may contribute to the severity of signs and symptoms found in these patients” (Nicolson GL et al. APMIS 2003:111(5):557-566).
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
There was evidence for ongoing infections with herpes viruses. A subset of patients (those with onset associated with EBV and those with recurrent herpes lesions) who improved on valaciclovir. She recommends trying a course in these patients. Some patients may have ongoing EBV activation. (Invest in ME Scientific Conference, 2013 Professor Carmen Scheibenbogen, Berlin,Germany)
Okadaic acid-like toxin in systemic lupus erythematosus patients: hypothesis for toxin-induced pathology, immune dysregulation, and transactivation of herpesviruses; Mitchell TM; Med Hypotheses. 1996 Sep;47(3):217-25. Herpes virus infections are of interest to ME / CFS patients and research.
In his Summary of the Viral Studies of CFS, Dr Dharam V Ablashi concluded: “The presentations and discussions at this meeting strongly supported the hypothesis that CFS may be triggered by more than one viral agent…Komaroff suggests that, once reactivated, these viruses contribute directly to the morbidity of CFS by damaging certain tissues and indirectly by eliciting an on-going immune response”(Clin Inf Dis 1994:18 (Suppl 1):S130-133). It is recommended that the entire 167-page Journal be read
Vojdani A
,
Lapp CW
. Interferon-induced proteins are elevated in blood samples of
patients with chemically or virally induced chronic fatigue syndrome. Immunopharmacol
Immunotoxicol. 1999 May;21(2):175-202. PMID: 10319275
Certain toxic chemicals and certain viruses produce
the same kinds of inflammatory effects and defects in 2-5A Synthetase and Protein Kinase RNA
(PKR)). Anti IFN beta inhibited
the reactions.
Ablashi and Loomis pointed out that an analysis of studies of HHV-6 in (ME)CFS differentiated between active and latent virus, with 83% being positive (Assessment and Implications of Viruses in Debilitating Fatigue in CFS and MS Patients. Dharam V Ablashi et al. HHV-6 Foundation, Santa Barbara, USA. Submission to Assembly Committee/Ways & Means, Exhibit B1-20, submitted by Annette Whittemore 1st June 2005).
Chronic Fatigue Syndrome: clinical condition associated with immune
activation. Lancet, 1991, 338, 707-712. AL Landay.
The Virus Within By Nicholas Regush explore the role of HHV-6a virus in ME / CFS and other diseases, and provides many references.
Richard B. Schwartz et al., ' SPECT Imaging of the Brain:
Comparison of Findings in Patients with Chronic Fatigue Syndrome, AIDS Dementia Complex, and Major Unipolar Depression ' American Journal of Roentgenology 162 (April 1994): 943-51
"CFS patients with active HHV6 infection were shown to have
activation of coagulation and are hypercoagulable. This may be a
significant factor in CFS contributing to many symptoms." J.
Brewer, research paper presented to the AACFS 5th
International Research, Clinical and Patient Conference, 2001
Human herpesvirus-6-specific interleukin 10-producing CD4+ T cells suppress the CD4+ T-cell response in infected individuals Wang F, Yao K, Yin QZ, Zhou F, Ding CL, Peng GY, Xu J, Chen Y, Feng DJ, Ma CL, Xu WR.. Microbiol Immunol. 2006;50(10):787-803.
Jason LA, Sorenson M, Porter N, Belkairous N (2010), "An Etiological Model for Myalgic Encephalomyelitis/Chronic Fatigue Syndrome", Neuroscience & Medicine, 2011, 2, 14-27, PMID: 21892413
Jones JF et al. J Med Virol 1991; 33: 151
Carver LA et al. Military Medicine 1994; 159: 580
HYPOTHESIS: A UNIFIED THEORY OF THE CAUSE OF CHRONIC FATIGUE
SYNDROME
A. Martin Lerner, Marcus Zervos, Howard J. Dworkin, Chung Ho Chang,
and William O'Neill
Infectious Diseases in Clinical Practice, 1997;6:239-243
Presence of Viral Protein 1 (VP1) "There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
Findings and Testimony of Burke A. Cunha, MD., chief, infectious disease division, Winthrop-University Hospital, Mineola, N.Y., USA. "But the most consistent lab evidence that we look for are elevations of coxsackie B-titers and elevations of HHV-6 titers in combination with the decrease in the percentage of natural killer T cells," Cunha explained.
"If the patient has two or three of these abnormalities in our study center, then he or she fits the laboratory criteria for chronic fatigue. Nearly all patients with crimson crescents have two out of three of these laboratory abnormalities," he said.
Stephen F. Josephs et al., 'HHV6 Reactivation in Chronic Fatigue Syndrome' , Lancet 337 (8753) June 1 1991: 1346-47
Roert J. Suhadolnik et al., ' Changes in the 2-5A Synthetase/Rnase L Antiviral Pathway in a Controlled Clinical Trial with Poly(I)-Poly(C12U) in Chronic Fatigue Syndrome ' In Vivo 8 (1994): 599-604. "Poly(I)-Poly(C12U)" is the molecular name for Ampligen
Barnes, Deborah; "Mystery Disease at Lake Tahoe Challenges
Virologists and Clinicians"; Science 234:541, 1986.
Relationships Between Human T-Lymphotropic Virus Type II (HTLV-2)
and Human Lymphotropic Herpes viruses in Chronic Fatigue Syndrome Project
funded by The National CFIDS Foundation, Inc.; Needham, Massachusetts
Beldekas, John, Jane Teas, and James R. Hebert; "African Swine
Fever Virus and AIDS"; The Lancet, March 8, 1986.
Buchwald, Dedra et al.; "A Chronic Postinfectious Fatigue
Syndrome Associated With Benign Lymphoproliferation, B-Cell
Proliferation, and Active Replication of Human Herpesvirus-6";
Journal of Clinical Immunology 10(6):335, 1990.
Marion Poore et al., ' An Unexplained Illness in West Otago ' The New Zealand Medical Journal 97, no.757 (1984): 351-354
Carter, William et al.; "Clinical, Immunological, and
Virological Effects of Ampligen, a Mismatched Double-Stranded RNA, in
Patients With AIDS or AIDS-Related Complex"; The Lancet, p. 1228,
1987.
Carter, W.; Interview in "Experimental Drug Held Effective for
Chronic Fatigue, Immune Dysfunction"; American Society for
Microbiology Conference Journal, September 29-October 2, 1991.
DeLuca, et al.: HHV-6 and HHV-7 in CFS. J Clin Micro
1995;33:1660-61.
Yalcin, et al.: Prevalence of HHV-6 variants A and B in patients
with CFS. Microbiol Immunol 1994;38:587-90.
Hypothesis: A unified theory of the cause of chronic fatigue
syndrome. A. Martin Lerner, Marcus Zervos, Howard J. Dworkin, Chung Ho
Chang, and William O'Neill. Infectious Diseases in Clinical Practice,
1997;6:239-243
New
Cardiomyopathy: Pilot Study of Intravenous Ganciclovir in a
Subset of the Chronic Fatigue Syndrome. Infectious Disease in Clinical
Practice, 1997;6:110-117
Sairenji, et al.: Antibody responses to Epstein-Barr virus, HHV-6
and HHV-7 in patients with CFS. Intervirology 1995;38:269-73
Frequent HHV-6 reactivation in multiple sclerosis (MS) and chronic
fatigue syndrome (CFS) patients.
Authors: Ablashi DV, Eastman HB, Owen CB, Roman MM, Friedman J,
Zabriskie JB, Peterson DL, Pearson GR, Whitman JE. Journal of Clinical
Virology (ISSN 1386-6532) 2000 May 1;16(3):179-191
Persistent Active Human Herpesvirus Six (HHV-6) Infections In
Patients With Chronic Fatigue Syndrome. Konstance K Knox, Ph.D.;
Joseph H. Brewer, M.D. and Donald R. Carrigan, Ph.D. Institute for
Viral Pathogenesis and Wisconsin Viral Research Group; Milwaukee,
Wisconsin1 and St. Luke's Hospital; Kansas City, Missouri. Presented
at the Fourth International American Association for Chronic Fatigue
Syndrome Conference October 12-14, 1998.
Dynamics of Chronic Active Herpesvirus-6 Infection in Patients with
Chronic Fatigue Syndrome: Data Acquisition for Computer Modeling
Authors: Krueger GR, Koch B, Hoffmann A, Rojo J, Brandt ME, Wang G,
Buja LM.
Affiliation: Department of Pathology & Laboratory Medicine,
University of Texas-Houston Medical School, 6431 Fannin St, MSB 2.246,
Houston, Texas 77030, USA.
04-02-2002 Journal: In Vivo 2001 Nov-Dec;15(6):461-5
Moore, Patrick S. and Yuan Chang; "Detection of
Herpes virus-Like
DNA Sequences in Kaposi's Sarcoma in Patients With and Those Without
HIV Infection"; The New England Journal of Medicine 332:1181, May
4, 1995.
Cunha, Burke A.; "Crimson Crescents--A Possible Association
With the Chronic Fatigue Syndrome"; Annals of Internal Medicine
116(4), February 15, 1992.
Su,
Ih-Jen et al.; "Herpesvirus-Like DNA Sequence in Kaposi's
Sarcoma From AIDS and non-AIDS Patients in Taiwan"; The Lancet
345:722, March 18, 1995.
Boshoff, Chris et al.; "Kaposi's Sarcoma-Associated
Herpes virus
in HIV-Negative Kaposi's Sarcoma"; The Lancet 345:1043, April 22,
1995.
Di Luca, Dario et al.; "Human Herpesvirus 6 and Human
Herpesvirus 7 in Chronic Fatigue Syndrome"; Journal of Clinical
Microbiology 33:1660, June 1995.
Lusso, Paolo, Mauro S. Mainati, Alfredo Garzino-Demo, Richard W.
Crowley, Eric O. Long, and Robert C. Gallo; "Infection of Natural
Killer Cells by Human Herpesvirus 6"; Nature 862:459, April 1,
1993.
Lusso, P. et al.; "Productive Infection of CD4-Positive and
CD8-Positive Mature Human T Cell Populations and Clones by Human
Herpesvirus 6"; Journal of Immunology 147(2):685, July 15, 1991.
Lerner, AM et al. A small randomised placebo-controlled trial of the
use of antiviral therapy for patients with chronic fatigue syndrome.
Clinical Infectious Diseases, 2001, 32, 1657-1658
“(ME)CFS is associated with objective underlying biological abnormalities, particularly involving the nervous and immune system. Most studies have found that active infection with HHV-6 – a neurotropic, gliotropic and immunotropic virus – is present more often in patients with (ME)CFS than in healthy control subjects…Moreover, HHV-6 has been associated with many of the neurological and immunological findings in patients with (ME)CFS” Anthony L Komaroff. Journal of Clinical Virology 2006:37:S1:S39-S46.
"Assessment of the frequency of HHV6 in CFS was undertaken by
the team at Columbia. D Ablashi showed that the majority of 24
patients studied from Incline Village, Nevada had HHV6 infection. HHV6
was detected in the plasma, CSF and PBMCs. The data suggests the
presence of cell free infectious virus in the CSF. It was postulated
that HHV6 invading the CNS may participate in the neurological
manifestations of the disease."
"A poster also presented by Ablashi et al, showed good
concordance between reactivation of HHV6 and presence of RnaseL. They
could therefore be used together or separately in monitoring response to
treatment. 2 patients were treated with ampligen, which inhibited HHV6
replication and upregulated the 2-5a synthetase/RnaseL pathway."
D Ablashi (Columbia University) research papers submitted to the
AACFS 5th International Research, Clinical and Patient
Conference, 2001
Prevalence in the cerebrospinal fluid of the following infectious agents in a cohort of 12 CFS subjects: human herpes virus 6 and 8; chlamydia species; mycoplasma species;
EBV; CMV; and coxsackie virus. Journal of Chronic Fatigue Syndrome, 2001, 9, 1/2, 41-51
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Wu et al showed how HHV6 can infect human umbilical vein endothelial
cells in the J Gen Vir (1998, 79)
Landay AL et al. Lancet 1991; 338: 707
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
Top ME doctors A. Gilliam, Melvin Ramsay, Elizabeth Dowsett, John Richardson of Newcastle-upon-Tyne, W.H. Lyle, Elizabeth Bell, James Mowbray of St Mary’s, Peter Behan and Byron Hyde all believed that the majority of primary M.E. patients fell ill following exposure to an Enterovirus. Dr. John Richardson, a medical doctor based in Newcastle in England treated ME patients from many parts of Britain for over 40 years. He developed an expertise in diagnosing the illness, and became one of the world's foremost experts in ME. He even used autopsy results from dead patients to investigate the illness. He found that Enteroviruses and toxins played a major role in ME, and that this led to immune dysfunction, neurological abnormalities, endocrine dysfunction, and over time to increased risk of cardiac failure, cancers, carcinomas, and other organ failure. He wrote a book about his medical experiences called Enteroviral and Toxin Mediated Myalgic Encephalomyelitis/Chronic Fatigue Syndrome. This book is a classic medical book on the illness, and provides an excellent introduction to ME. Historically, Enterovirus infections mainly target the nervous system, brain, muscles and intestines, all of which abnormal in ME patients.
Chronic fatigue syndrome is associated with chronic enterovirus infection of the stomach. John K S Chia, Andrew Y Chia.
J Clin Pathol 2007;0:1–6. doi: 10.1136/jcp.2007.050054
The role of enterovirus in chronic fatigue syndrome. Dr. J. Chia. J Clin Pathol. Nov 2005; 58(11): 1126–1132.
“Enteroviruses are well known causes of acute respiratory and gastrointestinal infections, with tropism for the central nervous system, muscle, and heart. Initial reports of chronic enteroviral infections causing debilitating symptoms in patients with CFS were met with skepticism, and largely forgotten for the past decade … Recent evidence not only confirmed the earlier studies but also clarified the pathological role of viral RNA through antiviral treatment.”
Acute enterovirus infection followed by myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS) and viral persistence.Chia J, Chia A, Voeller M, Lee T, Chang R.J.. Clin Pathol. 2010 Feb;63(2):165-8.
Dr. John Chia, is a world renowned doctor who has successfully treated ME / CFS patients. He has found that Enteroviruses are present in some subgroups of ME / CFS patients and that treating these Enterovirus infections can lead to significant improvement and recovery.
His research paper provides some important insights - Chronic fatigue syndrome is associated with chronic enterovirus infection of the stomach.
Chia JK, Chia AY.
J Clin Pathol. 2008 Jan;61(1):43-8. Epub 2007 Sep 1. See diagram below:
Dr. John Chia presents his research findings up to the year 2011 to the National Institutes of Health (NIH) in the USA below:
Chronic Pelvic Pain (CPP) in Patients with Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS) is Associated with Chronic Enterovirus Infection of Ovarian Tubes
John Chia, M.D., David Wang, Rabiha El-habbal and Andrew Chia, EV Med Research, Lomita California IACFS/ME Conference. Translating Science into Clinical Care. March 20-23, 2014 • San Francisco, California, USA
Pathogenesis of chronic enterovirus infection in myalgic encephalomyelitis/chronic fatigue syndrome (ME/CFS) –in vitro and in vivo studies of infected stomach tissuesJohn Chia, M.D., Andrew Chia, David Wang, Rabiha El-Habbal. EV Med Research. Lomita, CA. IACFS/ME Conference. Translating Science into Clinical Care. March 20-23, 2014 • San Francisco, California, USA
Dowsett EG, Ramsay AM, McCartney RA, Bell EJ (1990), "Myalgic Encephalomyelitis (M.E.) -- A Persistent Enteroviral Infection?", Postgraduate Medical Journal, 66:526-530
Kerr JR. Enterovirus infection of the stomach in chronic fatigue syndrome/myalgic
encephalomyelitis. J Clin Pathol 2008;61:1e2.
Role of Infection and Neurologic Dysfunction in Chronic Fatigue Syndrome. Anthony L. Komaroff Tracey A. Cho. Semin Neurol 2011; 31(3): 325-337
Levine S (2001), "Prevalence in the cerebro spinal fluid of the following infectious agents in a cohort of 12 CFS subjects: Human Herpes Virus 6 & 8; Chlamydia Species; Mycoplasma Species, EBV; CMV and Coxsackie B Virus", Journal of Chronic Fatigue Syndrome, 9:91-2:41-51
Viral Isolation from Brain in Myalgic Encephalomyelitis (A Case Report) J. Richardson
J. Richardson is affiliated with Newcastle Research Group, Belle Vue, Grange Road, Ryton, Tyne & Wear, NE40 3LU, England. Journal of Chronic Fatigue Syndrome, Vol. 9(3/4) 2001, pp. 15-19
Chronic enterovirus infection in patients with postviral fatigue syndrome.
Yousef GE, Bell EJ, Mann GF, Murugesan V, Smith DG, McCartney RA, Mowbray JF. Lancet. 1988 Jan 23;1(8578):146-50.
“Enteroviral sequences were found in significantly more ME/CFS patients than in the two comparison groups….This study provides evidence for the involvement of enteroviruses in just under half of the patients presenting with ME/CFS and it confirms and extends previous studies using muscle biopsies. We provide evidence for the presence of viral sequences in serum in over 40% of ME/CFS patients” (J Med Virol 1995:45:156-161)
" Primary M.E. is always an acute onset illness. Doctors A. Gilliam, A.
Melvin Ramsay and Elizabeth Dowsett (who assisted
in much of his later work,) John Richardson of
Newcastle-upon-Tyne, W.H. Lyle, Elizabeth Bell of
Ruckhill Hospital, James Mowbray of St Mary's, and
Peter Behan all believed that the majority of primary
M.E. patients fell ill following exposure to an Enterovirus. (Poliovirus, ECHO, Coxsackie and the
numbered viruses are the significant viruses in this
group, but there are other enteroviruses that exist that
have been discovered in the past few decades that do
not appear in any textbook that I have perused.) I share
this belief that enteroviruses are a major cause. " Source:http://www.nightingale.ca/documents/Nightingale_ME_Definition_en.pdf
Ramsay AM, Rundle A.
Clinical and biochemical findings in ten patients with benign
myalgic encephalomyelitis.
Postgrad Med J. 1979 Dec;55(654):856-7.
Ramsay AM, Dowsett EG, Dadswell JV, Lyle WH, Parish JG.
Icelandic disease (benign
myalgic encephalomyelitis or Royal Free disease)
Br Med J. 1977 May 21;1(6072):
1350. PMID: 861618
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1607215/pdf/brmedj00463-0058b.pdf
Quantitative analysis of viral RNA kinetics in coxsackievirus B3-induced murine myocarditis: biphasic pattern of clearance following acute infection, with persistence of residual viral RNA throughout and beyond the inflammatory phase of disease.
Reetoo KN, Osman SA, Illavia SJ, Cameron-Wilson CL, Banatvala JE, Muir P
J Gen Virol. 2000 Nov; 81(Pt 11):2755-62.
Enterovirus related metabolic myopathy: a postviral fatigue syndrome.
Lane RJ, Soteriou BA, Zhang H, Archard LC
J Neurol Neurosurg Psychiatry. 2003 Oct; 74(10):1382-6.
Spence V A, Khan F, Kennedy G. et al Inflammation and arterial stiffness in patients with Chronic Fatigue Syndrome. 8th International IACFS Conference on Chronic Fatigue Syndrome, Fibromyalgia and other related illnesses, Fort Lauderdale, Floride, USA, January, 2007
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810. 'Epidemic Neuromyasthenia' was used to describe ME in the past.
In the UK, about 60% of patients with ME / CFS have evidence of
enterovirus infection, most commonly Cocksackie B. This has been
demonstrated by the finding of enterovirus RNA in muscle and in blood.
Many other patients have reactivated Epstein Barr virus. It has not been
verified if the virus itself causes ME / CFS or it is the result of a
weakened immune system.
Source: Action for ME, Britain.
Enterovirus in the chronic fatigue syndrome. McGarry F, Gow J and Behan PO Ann Intern Med 1994:120:972 973
“Virological studies revealed that 76% of the patients with suspected myalgic encephalomyelitis had elevated Coxsackie B neutralising titres (and symptoms included) malaise, exhaustion on physical or mental effort, chest pain, palpitations, tachycardia, polyarthralgia, muscle pains, back pain, true vertigo, dizziness, tinnitus, nausea, diarrhoea, abdominal cramps, epigastric pain, headaches, paraesthesiae, dysuria)….The group described here are patients who have had this miserable illness. Most have lost many weeks of employment or the enjoyment of their family (and) marriages have been threatened…”
(BD Keighley, EJ Bell. JRCP 1983:33:339-341).
Levine S (2001), "Prevalence in the cerebro spinal fluid of the following infectious agents in a cohort of 12 CFS subjects: Human Herpes Virus 6 & 8; Chlamydia Species; Mycoplasma Species, EBV; CMV and Coxsackie B Virus", Journal of Chronic Fatigue Syndrome, 9:91-2:41-51
Gilliam AG (1938), "Epidemiological Study on an Epidemic, Diagnosed as Poliomyelitis, Occurring among the Personnel of Los Angeles County General Hospital during the Summer of 1934", United States Treasury Department Public Health Service Public Health Bulletin, No. 240, pp. 1-90. Washington, DC, Government Printing Office
The outbreak in Iceland was important, and provided some vital clues about the illness and the role of Enteroviruses.
"However,
children
in epidemic Neuromyasthenia areas
responded
to
poliomyelitis
vaccination
with
higher
antibody titres
than
in
other
areas
not
affected
by
the
poliomyelitis
epidemic,
as
if
these
children
had
already
been
exposed
to
an
agent
immunologically
similar
to
poliomyelitis
virus
(Sigurdsson,
Gudnad6ttir Petursson,
1958).
Thus,
the
agent
responsible
for
epidemic Neuromyasthenia would
appear
to
be
able
to
inhibit
the
pathological
effects
of
poliomyelitis
infection.
When
an
American
airman
was
affected
in
the
1955
epidemic
and
returned
home,
a
similar
secondary
epidemic
occurred
in
Pittsfield,
Massachusetts,
U.S.A.
(Hart,
1969:
Henderson
and
Shelokov,
1959)."
Many outbreaks of ME or epidemic Neuromyasthenia worldwide followed an outbreak of polio virus.
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810.
"an
agent
was
repeatedly
transmitted
to
monkeys
from
two
patients
(Pellew
and
Miles,
1955).
When
the
monkeys
were
killed
minute
red
spots
were
observed
along
the
course
of
the
sciatic
nerves.
Microscopically
infiltration
of
nerve
roots
with
lymphocytes
and
mononuclear
cells
was
seen
and
some
of
the
nerve
fibres
showed
patchy
damage
to
the
myelin
sheaths
and
axon
swellings.
Similar
findings
had
been
produced
by
the
transmission
of
an
agent
to
monkeys
from
a
child
with
poliomyelitis
in
Boston,
Massachusetts,
in
1947
(Pappenheimer,
Cheever
and
Daniels,
1951).
How-
ever,
in
these
monkeys
the
changes
were
more
widespread,
involving
the
dorsal
root
ganglia,
cervical
and
lumbar
nerve
roots
and
peripheral
nerves.
Perivascular
collars
of
lymphocytes
and
plasma
cells
were
seen
in
the
cerebral
cortex,
brain
stem
and
cerebellum,
spinal
cord
and
around
blood
vessels
to
the
nerve
roots.
There
was
no
evidence
of
damage
to
the
nerve
cells
in
the
brain
or
spinal
cord.
The
distribution
and
intensity
of
the
lesions
varied
considerably
from
monkey
to
monkey.
This
pathological
picture
of
mild
diffuse
changes
corresponds
closely
to
what
might
be
expected
from
clinical
observations
of
patients
with
neurological
involvement in epidemic Neuromyasthenia
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810.
Three
Babuska Clusters of Enteroviral-Associated Myalgic Encephalomyelitis
Nightingale
Research Foundation
Paper Presented by Byron Marshall Hyde M.D.
New South Wales, February 1998
Hickie I, et al. Post-infective and chronic fatigue syndromes precipitated by viral and non-viral pathogens: prospective cohort study. British Journal of Medicine 2006; 333 (7568):575.
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
“Recently associations have been found between Coxsackie B infection and a more chronic multisystem illness. A similar illness…has been referred to as… myalgic encephalomyelitis…140 patients presenting with symptoms suggesting a postviral syndrome were entered into the study…Coxsackie B antibody levels were estimated in 100 control patients…All the Coxsackie B virus antibody tests were performed blind…Of the 140 ill patients, 46% were found to be Coxsackie B virus antibody positive…This study has confirmed our earlier finding that there is a group of symptoms with evidence of Coxsackie B infection. We have also shown that clinical improvement is slow and recovery does not correlate with a fall in Coxsackie B virus antibody titre” (BD Calder et al. JRCGP 1987:37:11-14).
Presence of Viral Protein 1 (VP1)
"There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
Cunningham L, Bowles NE, Lane RJ, Dubowitz V, and Archard LC:
Persistence of Enteroviral RNA in Chronic Fatigue Syndrome is
Associated with the Abnormal Production of Equal Amounts of Positive
and Negative Strands of Enteroviral RNA. J General Virol 1990;
71:1399--1402
Findings and Testimony of Burke A. Cunha, MD., chief, infectious disease division, Winthrop-University Hospital, Mineola, N.Y., USA.
"But the most consistent lab evidence that we look for are elevations of coxsackie B-titers and elevations of HHV-6 titers in combination with the decrease in the percentage of natural killer T cells," Cunha explained.
"If the patient has two or three of these abnormalities in our study center, then he or she fits the laboratory criteria for chronic fatigue. Nearly all patients with crimson crescents have two out of three of these laboratory abnormalities," he said.
“These results show that chronic infection with enteroviruses occurs in many PVFS (post-viral fatigue syndrome, a classified synonym for ME/CFS) patients and that detection of enterovirus antigen in the serum is a sensitive and satisfactory method for investigating infection in these patients….Several studies have suggested that infection with enteroviruses is causally related to PVFS…The association of detectable IgM complexes and VP1 antigen in the serum of PVFS patients in our study was high…This suggests that enterovirus infection plays an important role in the aetiology of PVFS” (GE Yousef, EJ Bell, JF Mowbray et al. Lancet January 23rd 1988:146-150).
Prevalence in the cerebrospinal fluid of the following infectious agents in a cohort of 12 CFS subjects: human herpes virus 6 and 8; chlamydia species; mycoplasma species;
EBV; CMV; and coxsackie virus. Journal of Chronic Fatigue Syndrome, 2001, 9, 1/2, 41-51
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
"However,
children
in epidemic Neuromyasthenia areas
responded
to
poliomyelitis
vaccination
with
higher
antibody titres
than
in
other
areas
not
affected
by
the
poliomyelitis
epidemic,
as
if
these
children
had
already
been
exposed
to
an
agent
immunologically
similar
to
poliomyelitis
virus
(Sigurdsson,
Gudnad6ttir Petursson,
1958).
Thus,
the
agent
responsible
for
epidemic Neuromyasthenia would
appear
to
be
able
to
inhibit
the
pathological
effects
of
poliomyelitis
infection.
When
an
American
airman
was
affected
in
the
1955
epidemic
and
returned
home,
a
similar
secondary
epidemic
occurred
in
Pittsfield,
Massachusetts,
U.S.A.
(Hart,
1969:
Henderson
and
Shelokov,
1959)."
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810.
“Myalgic encephalomyelitis is a common disability but frequently misinterpreted…This illness is distinguished from a variety of other post-viral states by a unique clinical and epidemiological pattern characteristic of enteroviral infection…33% had titres indicative and 17% suggestive of recent CBV infection…Subsequently…31% had evidence of recent active enteroviral infection…There has been a failure to recognise the unique epidemiological pattern of ME…Coxsackie viruses are characteristically myotropic and enteroviral genomic sequences have been detected in muscle biopsies from patients with ME. Exercise related abnormalities of function have been demonstrated by nuclear magnetic resonance and single-fibre electromyography including a failure to coordinate oxidative metabolism with anaerobic glycolysis causing abnormal early intracellular acidosis, consistent with the early fatiguability and the slow recovery from exercise in ME. Coxsackie viruses can initiate non-cytolytic persistent infection in human cells. Animal models demonstrate similar enteroviral persistence in neurological disease… and the deleterious effect of forced exercise on persistently infected muscles. These studies elucidate the exercise-related morbidity and the chronic relapsing nature of ME” (EG Dowsett, AM Ramsay et al. Postgraduate Medical Journal 1990:66:526-530).
“The findings described here provide the first evidence that postviral fatigue syndrome may be due to a mitochondrial disorder precipitated by a virus infection…Evidence of mitochondrial abnormalities was present in 80% of the cases with the commonest change (seen in 70%) being branching and fusion of cristae, producing ‘compartmentalisation’. Mitochondrial pleomorphism, size variation and occasional focal vacuolation were detectable in 64%…Vacuolation of mitochondria was frequent…In some cases there was swelling of the whole mitochondrion with rupture of the outer membranes…prominent secondary lysosomes were common in some of the worst affected cases…The pleomorphism of the mitochondria in the patients’ muscle biopsies was in clear contrast to the findings in normal control biopsies…Diffuse or focal atrophy of type II fibres has been reported, and this does indicate muscle damage and not just muscle disuse” (WMH Behan et al. Acta Neuropathologica 1991:83:61-65).
“Persistent enteroviral infection of muscle may occur in some patients with postviral fatigue syndrome and may have an aetiological role….The features of this disorder suggest that the fatigue is caused by involvement of both muscle and the central nervous system…We used the polymerase chain reaction to search for the presence of enteroviral RNA sequences in a well-characterised group of patients with the postviral fatigue syndrome…53% were positive for enteroviral RNA sequences in muscle…Statistical analysis shows that these results are highly significant…On the basis of this study…there is persistent enteroviral infection in the muscle of some patients with the postviral fatigue syndrome and this interferes with cell metabolism and is causally related to the fatigue” (JW Gow et al. BMJ 1991:302:696-696).
“Postviral fatigue syndrome / myalgic encephalomyelitis… has attracted increasing attention during the last five years…Its distinguishing characteristic is severe muscle fatiguability made worse by exercise…The chief organ affected is skeletal muscle, and the severe fatiguability, with or without myalgia, is the main symptom. The results of biochemical, electrophysiological and pathological studies support the view that muscle metabolism is disturbed, but there is no doubt that other systems, such as nervous, cardiovascular and immune are also affected…Recognition of the large number of patients affected…indicates that a review of this intriguing disorder is merited….The true syndrome is always associated with an infection…Viral infections in muscle can indeed be associated with a variety of enzyme abnormalities…(Electrophysiological results) are important in showing the organic nature of the illness and suggesting that muscle abnormalities persist after the acute infection…there is good evidence that Coxsackie B virus is present in the affected muscle in some cases” (PO Behan, WMH Behan. CRC Crit Rev Neurobiol 1988:4:2:157-178).
“The main features (of ME) are: prolonged fatigue following muscular exercise or mental strain, an extended relapsing course; an association with neurological, cardiac, and other characteristic enteroviral complications. Coxsackie B neutralisation tests show high titres in 41% of cases compared with 4% of normal adults…These (chronic enteroviral syndromes) affect a young, economically important age group and merit a major investment in research” (EG Dowsett. Journal of Hospital Infection 1988:11:103-115).
“Ten patients with post-viral fatigue syndrome and abnormal serological, viral, immunological and histological studies were examined by single fibre electromyographic technique….The findings confirm the organic nature of the disease. A muscle membrane disorder…is the likely mechanism for the fatigue and the single-fibre EMG abnormalities. This muscle membrane defect may be due to the effects of a persistent viral infection…There seems to be evidence of a persistent viral infection and/or a viral-induced disorder of the immune system…The infected cells may not be killed but become unable to carry out differentiated or specialised function” (Goran A Jamal, Stig Hansen. Euro Neurol 1989:29:273-276).
“Molecular viral studies have recently proved to be extremely useful. They have confirmed the likely important role of enteroviral infections, particularly with Coxsackie B virus” (Postviral fatigue syndrome: Current neurobiological perspective. PGE Kennedy. BMB 1991:47:4:809-814)
In his Summary of the Viral Studies of CFS, Dr Dharam V Ablashi concluded: “The presentations and discussions at this meeting strongly supported the hypothesis that CFS may be triggered by more than one viral agent…Komaroff suggests that, once reactivated, these viruses contribute directly to the morbidity of CFS by damaging certain tissues and indirectly by eliciting an on-going immune response”(Clin Inf Dis 1994:18 (Suppl 1):S130-133). It is recommended that the entire 167-page Journal be read
“Our focus will be on the ability of certain viruses to interfere subtly with the cell’s ability to produce specific differentiated products as hormones, neurotransmitters, cytokines and immunoglobulins etc in the absence of their ability to lyse the cell they infect. By this means viruses can replicate in histologically normal appearing cells and tissues…Viruses by this means likely underlie a wide variety of clinical illnesses, currently of unknown aetiology, that affect the endocrine, immune, nervous and other …systems” (JC de la Torre, P Borrow, MBA Oldstone. BMB 1991:47:4:838-851).
“We conclude that persistent enteroviral infection plays a role in the pathogenesis of PVFS…The strongest evidence implicates Coxsackie viruses…Patients with PVFS were 6.7 times more likely to have enteroviral peristence in their muscles” (JW Gow and WMH Behan. BMB 1991:47:4:872-885).
“The postviral fatigue syndrome (PVFS), with profound muscle fatigue on exertion and slow recovery from exhaustion seems to be related specifically to enteroviral infection. The form seen with chronic reactivated EBV infection is superficially similar, but without the profound muscle fatigue on exercise” (JF Mowbray, GE Yousef. BMB 1991:47:4:886-894).
“Skeletal samples were obtained by needle biopsy from patients diagnosed clinically as having CFS (and) most patients fulfilled the criteria of the Centres for Disease Control for the diagnosis of CFS (Holmes et al 1988)…These data are the first demonstration of persistence of defective virus in clinical samples from patients with CFS…We are currently investigating the effects of persistence of enteroviral RNA on cellular gene expression leading to muscle dysfunction” (L Cunningham, RJM Lane, LC Archard et al. Journal of General Virology 1990:71:6:1399-1402).
“These results suggest there is persistence of enterovirus infection in some CFS patients and indicate the presence of distinct novel enterovirus sequences…Several studies have shown that a significant proportion of patients complaining of CFS have markers for enterovirus infection….From the data presented here…the CFS sequences may indicate the presence of novel enteroviruses…It is worth noting that the enteroviral sequences obtained from patients without CFS were dissimilar to the sequences obtained from the CFS patients…This may provide corroborating evidence for the presence of a novel type of enterovirus associated with CFS” (DN Galbraith, C Nairn and GB Clements. Journal of General Virology 1995:76:1701-1707).
“We will report at the First International Research Conference on Chronic Fatigue Syndrome to be held at Albany, New York, 2-4 October 1992, our new findings relating particularly to enteroviral infection…We have isolated RNA from patients and probed this with large enterovirus probes…detailed studies...showed that the material was true virus…Furthermore, this virus was shown to be replicating normally at the level of transcription. Sequence analysis of this isolated material showed that it had 80% homology with Coxsackie B viruses and 76% homology with poliomyelitis virus, demonstrating beyond any doubt that the material was enterovirus” (Press Release for the Albany Conference, Professor Peter O Behan, University of Glasgow, October 1992).
“In the CFS study group, 42% of patients were positive for enteroviral sequences by PCR, compared to only 9% of the comparison group…Enteroviral PCR does, however, if positive, provide evidence for circulating viral sequences, and has been used to show that enteroviral specific sequences are present in a significantly greater proportion of CFS patients than other comparison groups” (C Nairn et al. Journal of Medical Virology 1995:46:310-313).
“Samples from 25.9% of the PFS (postviral fatigue syndrome) were positive for the presence of enteroviral RNA, compared with only 1.3% of the controls…We propose that in PFS patients, a mutation affecting control of viral RNA synthesis occurs during the initial phase of active virus infection and allows persistence of replication defective virus which no longer attracts a cellular immune response” (NE Bowles, RJM Lane, L Cunningham and LC Archard. Journal of Medicine 1993:24:2&3:145-180).
“These data support the view that while there may commonly be asyptomatic enterovirus infections of peripheral blood, it is the presence of persistent virus in muscle which is abnormal and this is associated with postviral fatigue syndrome…Evidence derived from epidemiological, serological, immunological, virological, molecular hybridisation and animal experiments suggests that persistent enteroviral infection may be involved in… PFS” (PO Behan et al. CFS: CIBA Foundation Symposium 173, 1993:146-159).
Seeking to detect and characterise enterovirus RNA in skeletal muscle from patients with (ME)CFS and to compare efficiency of muscle metabolism in enterovirus positive and negative (ME)CFS patients, Lane et al obtained quadriceps biopsy samples from 48 patients with (ME)CFS. Muscle biopsy samples from 20.8% of patients were positive, while 100% of the controls were negative for enterovirus sequences. Lane et al concluded: “There is an association between abnormal lactate response to exercise, reflecting impaired muscle energy metabolism, and the presence of enterovirus sequences in muscle in a proportion of (ME)CFS patients” (RJM Lane, LC Archard et al. JNNP 2003:74:1382-1386).
Kerr et al then go on to provide evidence of other triggers of (ME)CFS which include Parvovirus; C. pneumoniae; C. burnetti; toxin exposure and vaccination including MMR, pneumovax, influenza, hepatitis B, tetanus, typhoid and poliovirus (LD Devanur, JR Kerr. Journal of Clinical Virology 2006: 37(3):139-150).
“Research studies have identified various features relevant to the pathogenesis of CFS/ME such as viral infection, immune abnormalities and immune activation, exposure to toxins, chemicals and pesticides, stress, hypotension…and neuroendocrine dysfunction….Various viruses have been shown to play a triggering or perpetuating role, or both, in this complex disease….The role of enterovirus infection as a trigger and perpetuating factor in CFS/ME has been recognised for decades…The importance of gastrointestinal symptoms in CFS/ME and the known ability of enteroviruses to cause gastrointestinal infections led John and Andrew Chia to study the role of enterovirus infection in the stomach of CFS/ME patients…They describe a systematic study of enterovirus infection in the stomach of 165 CFS/ME patients, demonstrating a detection rate of enterovirus VP1 protein in 82% of patients…the possibility of an EV outbreak…seems unlikely, as these patients developed their diseases at different times over a 20 year period” (Jonathan R Kerr. Editorial. J Clin Pathol 14th September 2007. Epub ahead of print).
“Since most (ME)CFS patients have persistent or intermittent gastrointestinal (GI) symptoms, the presence of viral capsid protein 1 (VP1), enterovirus RNA and culturable virus in the stomach biopsy specimens of patients with (ME)CFS was evaluated…Our recent analysis of 200 patients suggests that… enteroviruses may be the causative agents in more than half of the patients…At the time of oesophagogastroduodenoscopy, the majority of patients had mild, focal inflammation in the antrum…95% of biopsy specimens had microscopic evidence of mild chronic inflammation…82% of biopsy specimens stained positive for VP1 within parietal cells, whereas 20% of the controls stained positive…An estimated 80-90% of our 1,400 (ME)CFS patients have recurring gastrointestinal symptoms of varying severity, and epigastric and/or lower quadrant tenderness by examination…Finding enterovirus protein in 82% of stomach biopsy samples seems to correlate with the high percentage of (ME)CFS patients with GI complaints…Interestingly, the intensity of VP1 staining of the stomach biopsy correlated inversely with functional capacity…A significant subset of (ME)CFS patients may have a chronic, disseminated, non-cytolytic form of enteroviral infection which can lead to diffuse symptomatology without true organ damage” (Chia JK, Chia AY. J Clin Pathol 13th September 2007 Epub ahead of print).
In a review of the role of enteroviruses in (ME)CFS, Chia noted that initial reports of chronic enteroviral infections causing debilitating symptoms in (ME)CFS patients were met with scepticism and largely forgotten, but observations from in vitro experiments and from animal models clearly established a state of chronic persistence through the formation of double stranded RNA, similar to findings reported in muscle biopsies of patients with (ME)CFS. Recent evidence not only confirmed the earlier studies, but also clarified the pathogenic role of viral RNA (JKS Chia. Journal of Clinical Pathology 2005:58:1126-1132).
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
As mentioned elsewhere, researchers from the Enterovirus Research Laboratory, Department of Pathology and Microbiology, University of Nebraska Medical Centre wrote a specially-commissioned explanatory article for the UK charity Invest in ME, in which they stated that human enteroviruses were not generally thought to persist in the host after an acute infection, but they had discovered that Coxsackie B viruses can naturally delete sequence from the 5’ end of the RNA genome, and that this results in long-term viral persistence, and that “This previously unknown and unsuspected aspect of enterovirus replication provides an explanation for previous reports of enteroviral RNA detected in diseased tissue in the apparent absence of infectious virus particles” (S Tracy and NM Chapman. Journal of IiME 2009:3:1).
(http://www.investinme.org/Documents/Journals/Journal%20of%20IiME%20Vol%203%20Issue%201.pdf).
“Recent developments in molecular biology…have revealed a hitherto unrecognised association between enteroviruses and some of the most disabling, chronic and disheartening neurological, cardiac and endocrine diseases…Persistent infection (by enteroviruses) is associated with ME/CFS…The difficulty of making a differential diagnosis between ME/CFS and post-polio sequelae cannot be over-emphasised…(EG Doswett. Commissioned for the BASEM meeting at the RCGP, 26th April 1998:1-10).
“To prove formally that persistence rather than re-infection is occurring, it is necessary to identify a unique feature retained by serial viral isolates from one individual. We present here for the first time evidence for enteroviral persistence (in humans with CFS)…” (DN Galbraith et al. Journal of General Virology 1997:78:307-312).
(c) Epstein Barr virus & Herpes family viruses, including reactivation of latent herpes viruses (EBV, CMV and HHV6a)
Deficient EBV-specific B- and T-cell response in patients with chronic fatigue syndrome.
Loebel M, Strohschein K, Giannini C, Koelsch U, Bauer S, Doebis C, Thomas S, Unterwalder N, von Baehr V, Reinke P, Knops M, Hanitsch LG, Meisel C, Volk HD, Scheibenbogen
Scientific analysis and discussion on
http://simmaronresearch.com/2014/03/1591/
Hickie I, et al. Post-infective and chronic fatigue syndromes precipitated by viral and non-viral pathogens: prospective cohort study. British Journal of Medicine 2006; 333 (7568):575. Eriksen W. Med Hypotheses. 2017 May;102:8-15. doi: 10.1016/j.mehy.2017.02.011. Epub 2017 Feb 28.
The spread of EBV to ectopic lymphoid aggregates may be the final common pathway in the pathogenesis of ME/CFS
Tobi M, Morag A, Ravid Z, Chowers I, Feldman-Weiss V, Michaeli Y, Ben-Chetrit E, Shalit M, Knobler H: Prolonged atypical illness associated with serological evidence of persistent Epstein-Barr virus infection. Lancet 1982, 1:61-64.
Abortive lytic Epstein–Barr virus replication in tonsil-B lymphocytes in infectious mononucleosis and a subset of the chronic fatigue syndrome. A Martin Lerner, Safedin Beqaj. Virus Adaptation and Treatment November 2012 Volume 2012:4 Pages 85 - 91.
Lerner M, Beqaj S, Fitzgerald JT, Gill K, Gill C, Edington J (2010), "Subset-directed antiviral treatment of 142 herpesvirus patients with chronic fatigue syndrome", Virus Adaptation and Treatment, mei, Volume 2010:2, p.47-57,
Knox, K., et al. Systemic Leukotropic Herpesvirus Infections and Autoantibodies in Patients with Myalgic Encephalomyelitis – Chronic Fatigue Syndrome. 7th International Conference on HHV-6 and 7. March 1, 2011. Reston, VA.
Agliari E, Barra A, Vidal KG, Guerra F (2012), "Can persistent Epstein-Barr virus infection induce chronic fatigue syndrome as a Pavlov reflex of the immune response?", J Biol Dyn 6(2):740-62
Magnusson M, Brisslert M, Zendjanchi K, Lindh M, Bokarewa MI (2010), "Epstein-Barr virus in bone marrow of rheumatoid arthritis patients predicts response to rituximab treatment", Rheumatology (Oxford), Oct;49(10):1911-9, Epub 2010 Jun 14
“Over the last decade a wide variety of infectious agents has been associated with CFS by researchers from all over the world. Many of these agents are neurotrophic and have been linked to other diseases involving the central nervous system (CNS)…Because patients with CFS manifest a wide range of symptoms involving the CNS as shown by abnormalities on brain MRIs, SPECT scans of the brain and results of tilt-table testing, we sought to determine the prevalence of HHV-6, HHV-8, EBV, CMV, Mycoplasma species, Chlamydia species and Coxsackie virus in the spinal fluid of a group of patients with CFS. Although we intended to search mainly for evidence of actively replicating HHV-6, a virus that has been associated by several researchers with this disorder, we found evidence of HHV-8, Chlamydia species, CMV and Coxsackie virus in (50% of patient) samples…It was also surprising to obtain such a relatively high yield of infectious agents on cell free specimens of spinal fluid that had not been centrifuged” (Susan Levine. JCFS 2002:9:1/2:41-51).
Katz BZ
,
Shiraishi Y
,
Mears CJ
,
Binns HJ
,
Taylor R
. Chronic fatigue syndrome after
infectious mononucleosis in adolescents.
Pediatrics.
2009 Jul;124(1):189-93. PMID:
19564299
Loebel M, Strohschein K, Giannini C, Koelsch U, Bauer S, Doebis C, Thomas S, Unterwalder N, Von Baehr V, Reinke P, Knops M, Hanitsch LG, Meisel C, Volk H-D, Scheibenbogen C (2014), "Deficient EBV-Specific B- and T-Cell Response in Patients with Chronic Fatigue Syndrome", PLoS ONE 9(1): e85387
Vojdani A
,
Lapp CW
. Interferon-induced proteins are elevated in blood samples of
patients with chemically or virally induced chronic fatigue syndrome. Immunopharmacol
Immunotoxicol. 1999 May;21(2):175-202. PMID: 10319275
Certain toxic chemicals and certain viruses produce
the same kinds of inflammatory effects and defects in 2-5A Synthetase and Protein Kinase RNA
(PKR)). Anti IFN beta inhibited
the reactions.
.
Shapiro JS (2009), "Does varicella-zoster virus infection of the peripheral ganglia cause Chronic Fatigue Syndrome?", Medical Hypotheses Volume 73, Issue 5, November 2009, Pages 728-734, PMID: 19520522,
There was evidence for ongoing infections with herpes viruses. A subset of patients (those with onset associated with EBV and those with recurrent herpes lesions) who improved on valaciclovir. She recommends trying a course in these patients. Some patients may have ongoing EBV activation. (Invest in ME Scientific Conference, 2013 Professor Carmen Scheibenbogen, Berlin,Germany)
Levine S (2001), "Prevalence in the cerebro spinal fluid of the following infectious agents in a cohort of 12 CFS subjects: Human Herpes Virus 6 & 8; Chlamydia Species; Mycoplasma Species, EBV; CMV and Coxsackie B Virus", Journal of Chronic Fatigue Syndrome, 9:91-2:41-51
Agliari E, Barra A, Vidal KG, Guerra F (2012), "Can persistent Epstein-Barr virus infection induce chronic fatigue syndrome as a Pavlov reflex of the immune response?", J Biol Dyn 6(2):740-62,
“…from an immunological point of view, patients with chronic active EBV infection appear ‘frozen’ in a state typically found only briefly during convalescence from acute EBV infection” (G Tosato, S Straus et al. The Journal of Immunology 1985:134:5:3082-3088.)
In his Summary of the Viral Studies of CFS, Dr Dharam V Ablashi concluded: “The presentations and discussions at this meeting strongly supported the hypothesis that CFS may be triggered by more than one viral agent…Komaroff suggests that, once reactivated, these viruses contribute directly to the morbidity of CFS by damaging certain tissues and indirectly by eliciting an on-going immune response”(Clin Inf Dis 1994:18 (Suppl 1):S130-133). It is recommended that the entire 167-page Journal be read
Prevalence of abnormal cardiac wall motion in the cardiomyopathy associated with incomplete multiplication of Epstein-Barr virus and/or cytomegalovirus in patients with chronic fatigue syndrome. Lerner et al. In Vivo, 18:417-424 (2004)
“Ninety percent of the patients tested had antibodies to Epstein-Barr virus and 45% tested had antibodies to cytomegalovirus…if this fatigue syndrome is triggered by an infectious agent, an abnormal immune response may be involved” (TJ Marrie et al. Clinical Ecology 1987:V:1:5-10).
Robertson ES (red.) (2010), "Epstein-Barr Virus: Latency and Transformation", Caister Academic Press, april, ISBN 978-1-904455-64-6
In the UK, about 60% of patients with ME / CFS have evidence of
enterovirus infection, most commonly Cocksackie B. This has been
demonstrated by the finding of enterovirus RNA in muscle and in blood.
Many other patients have reactivated Epstein Barr virus. It has not been
verified if the virus itself causes ME / CFS or it is the result of a
weakened immune system.
Source: Action for ME, Britain.
Role of Infection and Neurologic Dysfunction in Chronic Fatigue Syndrome. Anthony L. Komaroff Tracey A. Cho. Semin Neurol 2011; 31(3): 325-337
Prevalence in the cerebrospinal fluid of the following infectious agents in a cohort of 12 CFS subjects: human herpes virus 6 and 8; chlamydia species; mycoplasma species; EBV; CMV; and coxsackie virus. Journal of Chronic Fatigue Syndrome, 2001, 9, 1/2, 41-51
Jason LA, Sorenson M, Porter N, Belkairous N (2010), "An Etiological Model for Myalgic Encephalomyelitis/Chronic Fatigue Syndrome", Neuroscience & Medicine, 2011, 2, 14-27, PMID: 21892413
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
Hickie I. et al. BMJ, 2006: 333: 575-580.
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
Presence of Viral Protein 1 (VP1)
"There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
"an
agent
was
repeatedly
transmitted
to
monkeys
from
two
patients
(Pellew
and
Miles,
1955).
When
the
monkeys
were
killed
minute
red
spots
were
observed
along
the
course
of
the
sciatic
nerves.
Microscopically
infiltration
of
nerve
roots
with
lymphocytes
and
mononuclear
cells
was
seen
and
some
of
the
nerve
fibres
showed
patchy
damage
to
the
myelin
sheaths
and
axon
swellings.
Similar
findings
had
been
produced
by
the
transmission
of
an
agent
to
monkeys
from
a
child
with
poliomyelitis
in
Boston,
Massachusetts,
in
1947
(Pappenheimer,
Cheever
and
Daniels,
1951).
How-
ever,
in
these
monkeys
the
changes
were
more
widespread,
involving
the
dorsal
root
ganglia,
cervical
and
lumbar
nerve
roots
and
peripheral
nerves.
Perivascular
collars
of
lymphocytes
and
plasma
cells
were
seen
in
the
cerebral
cortex,
brain
stem
and
cerebellum,
spinal
cord
and
around
blood
vessels
to
the
nerve
roots.
There
was
no
evidence
of
damage
to
the
nerve
cells
in
the
brain
or
spinal
cord.
The
distribution
and
intensity
of
the
lesions
varied
considerably
from
monkey
to
monkey.
This
patho-
logical
picture
of
mild
diffuse
changes
corresponds
closely
to
what
might
be
expected
from
clinical
observations
of
patients
with
neurological
involvement in epidemic Neuromyasthenia
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810.
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
(d) Retrovirus - HTLV viruses, HGRV virus, MLV''s, JHK virus, HIV Negative AIDS
Lipkin / Hornig Chronic Fatigue Initaitive Study in Septmner 2013 found that 85% of patients had evidence of Retroviral infection and 65% had evidence of Annellovirus infection
The world patent entitled "Method and Compositions for
Diagnosing and Treating Chronic Fatigue Immunodysfunction
Syndrome" #WO9205760 issued to Elaine DeFreitas and Brendan
Hilliard, inventors assigned to Wistar Institute, USA. This patent was
applied for in August 1991. It concerns the discovery of a new virus
the CAV virus which may lie at the root of CFS / ME
HTLV virus found in CFS patients, infection rates range from 50-75% among CFS patients. HTLV has been found to infect macrophages, B-cells and T-cells.
Research cited in Osler's Web: Inside the Labyrinth of the Chronic Fatigue Syndrome Epidemic by Hillary Johnson, penguin books, 1997, pages 285, 290-291, 352-353.
Relationships Between Human T-Lymphotropic Virus Type II (HTLV-2)
and Human Lymphotropic Herpes viruses in Chronic Fatigue Syndrome Project
funded by The National CFIDS Foundation, Inc.; Needham, Massachusetts
Dr. Michael Holmes of the Department of Microbiology of the University of Otago (New Zealand) carried out detailed studies into a
CFS-like illness in New Zealand in the 1980's and 1990's. He found evidence of retrovirus infection in most samples and electron microscope pictures of cells with convoluted nuclei similar to AIDS patients. This indicated infection with a retrovirus. He also found evidence of excessive interferon levels, which are linked to retrovirus infection. His findings suggest that a retrovirus was responsible and that there is also significant immune dysfunction in
CFS.
Reported in the book 'Oslers Web', by Hillary Johnson, Penguin Books 1997, pages 661-663
Chapter 33: A Retrovirus Aetiology for CFS?, Michael J. Holmes, M.D from the book The Clinical and Scientific Basis of Myalgic Encephalomyelitis--Chronic Fatigue Syndrome by Dr. Jay Goldstein, Dr. Byron Hyde, P. Levine, Nightingale Research Foundation.
Dr Michael Holmes wrote in The Clinical and Scientific Basis for Myalgic Enchelphalomyelitis/Chronic Fatigue Syndrome (1/97) that "structures consistent in size, shape and character with various stages of a Lentivirus (retrovirus) replicative cycle were observed by electron microscopy in cultures from CFS patients..."
Some Papers by Dr. Michael Holmes
Electron microscopic immunocytological profiles in chronic fatigue syndrome.
Holmes MJ, Diack DS, Easingwood RA, Cross JP, Carlisle B. J Psychiatr Res. 1997 Jan-Feb;31(1):115-22. Epidemic neuromyasthenia and chronic fatigue syndrome in west Otago, New Zealand. A 10-year follow-up.
Levine PH, Snow PG, Ranum BA, Paul C, Holmes MJ. Arch Intern Med. 1997 Apr 14;157(7):750-4.
In 1994, Dr. Anthony Komaroff of Harvard Medical School reported that the brains of those people with ME/CFS were identical to those with AIDS dementia, when viewed with SPECT imaging. They were both completely different to normal healthy brains. He believed that ME/CFS cases were the result of viral infection of the brain and nervous system, similar to AIDS.
SPECT imaging of the brain: comparison of findings in patients with chronic fatigue syndrome, AIDS dementia complex, and major unipolar depression.
Schwartz R , Komaroff AL, Garada BM, Gleit M, Doolittle TH, Bates DW, Vasile RG, Holman BL. AJR Am J Roentgenol. 1994 Apr;162(4):943-51.
Dr. Seymour Grufferman and Dr. William Blattner found some evidence of HTLV infection in ME patients from the North Carolina Symphony in the early 1990's. Osler's Web, Hilary Johnson, pages 651-652
Frequent detection of infectious xenotropic murine leukemia virus (XMLV) in human cultures established from mouse xenografts
Yu-An Zhang, Anirban Maitra, Jer-Tsong Hsieh, Charles M Rudin, Craig D Peacock,4 Collins Karikari, Rolf A Brekken, Victor Stastny,1 Boning Gao, Luc Girard, Ignacio Wistuba, Eugene Frenkel, John D Minna, and Adi F Gazdar. Cancer Biol Ther. 2011 Oct 1; 12(7): 617–628.
Published online 2011 Oct 1. doi: 10.4161/cbt.12.7.15955
Xenotropic MLV envelope proteins induce tumor cells to secrete factors that promote the formation of immature blood vessels.
Murgai M, Thomas J, Cherepanova O, Delviks-Frankenberry K, Deeble P, Pathak VK, Rekosh D, Owens G.Retrovirology. 2013 Mar 27;10:34. doi: 10.1186/1742-4690-10-34.
Identification of Replication Competent Murine Gammaretroviruses in Commonly Used Prostate Cancer Cell Lines PLOS Published: June 17, 2011
DOI: 10.1371/journal.pone.0020874
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
Innate Immune Changes in the
Peripheral Blood of Chronic Fatigue
Syndrome Patients: Risk Factors for
Disease Progression and Management
Deborah L. S. Goetz, Judy A. Mikovits
, Jamie Deckoff-Jones
and Francis W. Ruscetti,
LANDRES Management Consultant LLC 2
MAR Consulting Inc.
Private CFS Practice. Chronic Fatigue Syndrome. ISBN: 978-1-63321-961-8
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
In 1995, Dr. Jay Levy, a world famous virologist from University of California, wrote on the "Isolation of Infectious Agent for CFS: Innoculation of Animals," from one of his patents, that he used cultures that were "evaluated for reverse transcriptase activity" and "we have found that the CD11b+ cells (suppressor CD8+ cells) decrease during CFS."
Presence of Viral Protein 1 (VP1)
"There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
In his Summary of the Viral Studies of CFS, Dr Dharam V Ablashi concluded: “The presentations and discussions at this meeting strongly supported the hypothesis that CFS may be triggered by more than one viral agent…Komaroff suggests that, once reactivated, these viruses contribute directly to the morbidity of CFS by damaging certain tissues and indirectly by eliciting an on-going immune response”(Clin Inf Dis 1994:18 (Suppl 1):S130-133). It is recommended that the entire 167-page Journal be read
Hickie I, et al. Post-infective and chronic fatigue syndromes precipitated by viral and non-viral pathogens: prospective cohort study. British Journal of Medicine 2006; 333 (7568):575.
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
The 1995 National Academies analysis for xenotransplantation (still in use today), which includes xenografting human and animal cells
Infectious Disease Risk to Public Health Posed by Xenografting : The possibility that infections can be transmitted from animals to humans is of concern not only because of the threat to the health of the recipient, but also because such infections may be transmissible to others, creating a public health hazard. Further, such infections may be due to previously unrecognized organisms, making detection difficult if not impossible. If the time from infection to clinical symptoms is long, the risk of widespread transmission is greater, because during this time the new organism may silently spread from person to person, as happened with human immunodeficiency virus (HIV).
Emergence of a new public health risk appears to be a two-step process (Morse, 1995). First, a new infectious agent is introduced into a given human population from other human populations, animals, or environmental exposures. Frequently these new agents are zoonoses, defined as animal microbes that can infect humans as well as the animal species from which they come. The second step is establishment and dissemination of organisms that prove to be infective and transmissible from person to person. The first step, introduction of a potentially transmissible agent into a human, could be accomplished by transplanting an organ that was infected with the agent. It is the second step of establishment and dissemination, however, that raises public health concerns, particularly if the agent is viral since current therapies for viral illnesses are limited.
Basis For Public Health Concern
Historic experience with many zoonotic diseases suggests that the potential for human infection with xenogeneic pathogens has implications for the community that extend beyond the individual transplant recipient.
“examples demonstrate that some zoonotic infections have the potential to extend beyond the individual and into the community. Thus, the risk of xenotransplant-associated infection is not restricted to the xenotransplant recipient alone. The potential for xenogeneic infections to be transmitted through human populations is real and poses a public health concern. Further, the risk for health care workers in close contact with the xenograft recipient is probably higher than for the community at large.”
The potential for the introduction of a new retrovirus into human hosts via implanted xenogeneic tissue is of public health concern due to the long period of clinical latency associated with all known human retroviral infections. This long latency period provides the opportunity for silent person-to-person transmission to occur before pathogenicity is evident.
There are concerns that xenogeneic viruses may recombine or reassort with viruses latent in human tissues and result in variants that possess either a broader host range or an increased pathogenic potential. What options are available for risk management of xenotransplant-associated infectious public health risk? One option is to eliminate all risk by avoiding all use of xenogeneic tissue in humans.
Conclusions and Recommendations
Xenotransplantation may also be valuable for the treatment of human diseases. However, it is well recognized that infectious agents can be transmitted from animals to humans and that organisms benign in one species can be fatal when introduced into other species. Further, it is known that the pathogenicity of infectious organisms can change under a variety of conditions and that the effects of infection by some organisms, such as the human immunodeficiency virus, are delayed for years or even decades. Because xenotransplants involve the direct insertion of potentially infected cells, tissues, or organs into humans, there is every reason to believe that the potential for transmission of infectious agents (some of which may not even now be recognized) from animals to human transplant recipients is real. If established in the recipient, the potential for transmission to caregivers, family, and the population at large must be considered a real threat.
However, all members of the committee agreed that some mechanism is needed to ensure attention to and reduction of the risk of infectious disease transmission.
http://www.nap.edu/openbook.php?record_id=5365&page=39
A human B-lymphoblastoid cell line constitutively producing Epstein-Barr herpesvirus and JHK retrovirus.
Grossberg SE1, Kushnaryov VM, Cashdollar LW, Raisch KP, Miller G, Sun HY. Res Virol. 1997 May-Jun;148(3):191-206.
Dr. Sidney Grossberg, a world renowned virologist from the Medical
College of Wisconsin, wrote the following in his Patent number
5,827,750 on 10/98"
The human virus on which the present invention is based has
not been classified as to which virus family it belongs, but it most
nearly resembles a retrovirus ....The present invention relates to the
detection of the presence of an NMA (neuromyasthnia) virus that is
associated with CFIDS." He goes on to talk of the "protein
spikes in the envelope" which are called peplomers and these
spikes are characteristic of a retrovirus. He calls this retrovirus
the "JHK virus." He mentions that the retrovirus that is
close to the same size is called the "mouse mammary tumor
virus." In his only publication on the virus, one that went
unannounced by the CFIDS Association despite their funding of him,
Grossberg writes ( Res Virol, 1997; 148(3): 191-206 ), "The human
B-lymphoblastoid cell line, designated JHK-3, with pre-B-cell
characteristics, chronically produces two viruses, Epstein-Barr virus
(EBV) and JHK virus, an apparently novel retrovirus...most nearly
resembling C-type retroviruses."
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Potential Role of Persistent Paramyxovirus Infection in Chronic Fatigue Syndrome; Knox KK, Carrigan DR; National CFIDS Foundation: Interim Progress Report and Research Proposal; January 14, 2005
National CFIDS Foundation: Personal Communications with Robert Lamb, Ph.D., Sc.D.; Professor of Molecular and Cellular Biology, Northwestern University; 2006
"an
agent
was
repeatedly
transmitted
to
monkeys
from
two
patients
(Pellew
and
Miles,
1955).
When
the
monkeys
were
killed
minute
red
spots
were
observed
along
the
course
of
the
sciatic
nerves.
Microscopically
infiltration
of
nerve
roots
with
lymphocytes
and
mononuclear
cells
was
seen
and
some
of
the
nerve
fibres
showed
patchy
damage
to
the
myelin
sheaths
and
axon
swellings.
Similar
findings
had
been
produced
by
the
transmission
of
an
agent
to
monkeys
from
a
child
with
poliomyelitis
in
Boston,
Massachusetts,
in
1947
(Pappenheimer,
Cheever
and
Daniels,
1951).
How-
ever,
in
these
monkeys
the
changes
were
more
widespread,
involving
the
dorsal
root
ganglia,
cervical
and
lumbar
nerve
roots
and
peripheral
nerves.
Perivascular
collars
of
lymphocytes
and
plasma
cells
were
seen
in
the
cerebral
cortex,
brain
stem
and
cerebellum,
spinal
cord
and
around
blood
vessels
to
the
nerve
roots.
There
was
no
evidence
of
damage
to
the
nerve
cells
in
the
brain
or
spinal
cord.
The
distribution
and
intensity
of
the
lesions
varied
considerably
from
monkey
to
monkey.
This
patho-
logical
picture
of
mild
diffuse
changes
corresponds
closely
to
what
might
be
expected
from
clinical
observations
of
patients
with
neurological
involvement in epidemic Neuromyasthenia
Parish JG (1978), Early outbreaks of 'epidemic neuromyasthenia', Postgraduate Medical Journal, Nov;54(637):711-7, PMID: 370810.
A human B-lymphoblastoid cell line constitutively producing Epstein-Barr herpesvirus and JHK retrovirus.
Grossberg SE1, Kushnaryov VM, Cashdollar LW, Raisch KP, Miller G, Sun HY. Res Virol. 1997 May-Jun;148(3):191-206.
Dr. Sidney Grossberg, a world renowned virologist from the Medical
College of Wisconsin, wrote the following in his Patent number
5,827,750 on 10/98"
The human virus on which the present invention is based has
not been classified as to which virus family it belongs, but it most
nearly resembles a retrovirus ....The present invention relates to the
detection of the presence of an NMA (neuromyasthnia) virus that is
associated with CFIDS." He goes on to talk of the "protein
spikes in the envelope" which are called peplomers and these
spikes are characteristic of a retrovirus. He calls this retrovirus
the "JHK virus." He mentions that the retrovirus that is
close to the same size is called the "mouse mammary tumor
virus." In his only publication on the virus, one that went
unannounced by the CFIDS Association despite their funding of him,
Grossberg writes ( Res Virol, 1997; 148(3): 191-206 ), "The human
B-lymphoblastoid cell line, designated JHK-3, with pre-B-cell
characteristics, chronically produces two viruses, Epstein-Barr virus
(EBV) and JHK virus, an apparently novel retrovirus...most nearly
resembling C-type retroviruses."
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Circulating tumour necrosis factor-alpha and interferon-gamma are detectable during acute and convalescent parvovirus B19 infection and are associated with prolonged and chronic fatigue.Kerr JR, Barah F, Mattey DL, Laing I, Hopkins SJ, Hutchinson IV, Tyrrell DA. J Gen Virol. 2001 Dec;82(Pt 12):3011-9.
Chronic fatigue syndrome and arthralgia following parvovirus B19 infection.Kerr JR, Bracewell J, Laing I, Mattey DL, Bernstein RM, Bruce IN, Tyrrell DA. J Rheumatol. 2002 Mar;29(3):595-602.
Association of symptomatic acute human parvovirus B19 infection with human
leukocyte antigen class I and II alleles.Kerr JR, Mattey DL, Thomson W, Poulton KV, Ollier WE. J Infect Dis. 2002 Aug 15;186(4):447-52.
Successful intravenous immunoglobulin therapy in 3 cases of parvovirus
B19-associated chronic fatigue syndrome. Kerr JR, Cunniffe VS, Kelleher P, Bernstein RM, Bruce IN. Clin Infect Dis. 2003 May 1;36(9):e100-6. Epub 2003 Apr 22
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
Cytokine gene polymorphisms associated with symptomatic parvovirus B19 infection.Kerr JR, McCoy M, Burke B, Mattey DL, Pravica V, Hutchinson IV.
J Clin Pathol. 2003 Oct;56(10):725-7.
Kerr et al then go on to provide evidence of other triggers of (ME)CFS which include Parvovirus; C. pneumoniae; C. burnetti; toxin exposure and vaccination including MMR, pneumovax, influenza, hepatitis B, tetanus, typhoid and poliovirus (LD Devanur, JR Kerr. Journal of Clinical Virology 2006: 37(3):139-150).
Cytokines in parvovirus B19 infection as an aid to understanding chronic
fatigue syndrome.Kerr JR, Tyrrell DA. Curr Pain Headache Rep. 2003 Oct;7(5):333-41. Review.
Pre-existing psychological stress predicts acute and chronic fatigue following symptomatic parvovirus B19 infection.Kerr JR, Mattey DL. Clinical Infectious Diseases 2008;46:e83-7.
“Presence of B19 NS1 gene sequence detected by nPCR. IgM and IgG detected by Elisa. B19 antibodies in 85.2% of patients. 57% had IgG. Genomic sequence found in more patients than healthy individuals
Occurrence of Typical Clinical Symptoms and Markers of Human Parvovirus B19 Infection in Patients with Myalgic Encephalomyelitis/Chronic Fatigue Syndrome. Santa Rasa, Svetlana Chapenko, Angelika Krumina, Ludmila Viksna, Modra Murovska. IACFS/ME Conference. Translating Science into Clinical Care. March 20-23, 2014 • San Francisco, California, USA
Single nucleotide polymorphisms (SNPs) associated with symptomatic infection and differential human gene expression in normal seropositive persons each implicate the cytoskeleton, integrin signalling and oncosuppression in the pathogenesis of human parvovirus B19 infection. Kerr JR, Kaushik N, Fear DJ, Baldwin D, Nuwaysir EF, Adcock IM. Journal of Infectious Diseases 2005;192(2):276-86.
Association of Active Human Herpesvirus-6, -7 and Parvovirus B19 Infection with Clinical Outcomes in Patients with Myalgic Encephalomyelitis/Chronic Fatigue Syndrome. Svetlana Chapenko, Angelika Krumina, Inara Logina, Santa Rasa, Maksims Chistjakovs, Alina Sultanova, Ludmila Viksna, and Modra Murovska. Advances in Virology. Volume 2012, Article ID 205085, 7 pages
Presence of Viral Protein 1 (VP1) "There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
Dr. Huber of Tufts University in the USA is carrying out research to determine if viral infections are leading to the reactivation of latent endogenous viruses such as HERV-K18 in ME/CFS patients. This is important as HERV-K18 has a super antigen which can cause the immune system to become over-activated and dysfunctional. Over time this can lead to a weakened immune system which is both activated and dysfunctional, and not capable of combatting other infections, and this is what we see in ME/CFS. This research will determine if this is what is occurring in ME/CFS and it is due to be published in 2013.
Attempts to define the chronic fatigue syndrome (CFS) as a clinical
diagnostic entity1 have met with difficulties mainly because of
a lack of clear separation of what could be considered normal variation in
human functional capacity, and what should be considered a medical
illness. Patients with debilitating fatigue are inappropriately grouped
along with individuals with only minimal impairment in their daily
activities. Some severely affected CFS patients eventually meet criteria
for neurological, psychiatric and/or immunological disease
classifications. The possible connection between CFS and these other
diseases is unfortunately obscured by present day terminology.
The thesis of our studies is that severe CFS is but one of many
manifestations of a persistent, systemic viral infection that causes brain
damage.2 Involvement of the brain in CFS is implied by the
historical use of terms such as neurasthenia, myalgic encephalomyelitis,
and limbic encephalopathy.3 Some investigators have argued that
the disturbed brain function is a secondary phenomenon resulting, for
example, from the overproduction of neuromodulatory cytokines.4
Immune dysregulation is also proposed to explain reactivation of normally
tolerated ubiquitous microorganisms, such as Epstein-Barr virus, human
herpesvirus-6, Candida albicans, Mycoplasma fermentans, Chlamydia
pneumoniae, etc.5 Recent attention has also been given to
possible brain damage from exposure to environmental neurotoxins,
including gut derived bacterial products.6
Minimizing the potential infectious etiology of CFS has occurred in
spite of past and recent epidemic outbreaks of CFS-like illnesses.7,8
Reasons for this bias include the inability of most investigators to
isolate pathogenic viruses from CFS patients, and the lack of any
correlation of disease with conventional anti-viral serology.9
Published studies using the polymerase chain reaction (PCR) to test for
evidence of retroviruses,10 enteroviruses,11
conventional herpesviruses 12 and mycoplasma 13
infections, were also flawed by erroneous assumptions concerning the
specificity of the PCR assays when performed under low stringency
conditions.
These earlier studies can now be reconciled by the finding that most
severely ill CFS patients are infected with atypically structured
cytopathic viruses.14-16 The viruses have been termed
"stealth" since they apparently lack crucial antigenic
determinants that would act as effective targets for cell mediated
anti-viral immunity. The viruses can be grown in a wide range of cells of
both human and animal origins, inducing a foamy, vacuolating cytopathic
effect (CPE). A similar CPE can be seen in brain biopsies obtained from
severely ill stealth virus infected humans 16-18 and from
experimentally inoculated animals.19 The cellular changes occur
in the absence of an inflammatory reaction and are easily overlooked if
not specifically sought.
Although many of the patients' symptoms are referable to the brain,
virus infection is widespread and can involve multiple organs. The term
multi-system stealth virus infection with encephalopathy (MSVIE) more
accurately conveys the complexities of the illnesses seen in infected CFS
patients. This term also helps to restore the extensive overlaps between
CFS and other stealth virus associated illnesses, including aberrant
behavioral and learning problems in children, fibromyalgia, Gulf War
syndrome and psychiatric illnesses in adults, and progressive movement
disorders and dementia in the elderly. The systemic nature of the
infection can explain the varied endocrine, cardiovascular,
gastrointestinal, immunological and other disease manifestations seen in
many of these patients.
Stealth adaptation can presumably occur with any type of cytopathic
virus. I have primarily focussed on a stealth adapted African green monkey
simian cytomegalovirus (SCMV). Extensive sequencing studies on this virus
have confirmed the lack of critical antigens utilized by anti-cytomegalovirus
cytotoxic T lymphocytes.20 The virus has managed to capture,
amplify and mutate various non-viral genes, including cellular genes and
genes of bacterial origin.21-23 The term viteria has been
introduced to describe viruses infectious for humans and animals that have
acquired bacterial genetic sequences.23 The presence of
bacterial sequences can help explain the unusual serological and PCR based
assay results seen in some CFS patients. They may also contribute to the
allergic manifestations occasionally observed in these patients.
Rational therapy for severely ill stealth virus infected patients can
reasonably include empirical trials with anti-viral agents. Significant
improvement has been reported in some patients using valcyclovir and in a
larger group of patients using ganciclovir.24,25 Antibiotics
may have a role if viteria infected bacteria can be demonstrated.
Additional therapy needs to be individualized according to the patient's
symptoms and the extent of multi-organ damage. There is a role for
neurally active medications, nutritional supplements and possibly
probiotics. The vexed question of how to help minimize transmission of
infection within both the workplace and the family also needs to be
addressed. Additional information relating to stealth viruses and copies
of key publications can be found at the web site www.ccid.org
DeFreitas E, Hilliard E, Cheney PR, et al. Retroviral Sequences
Related to Human T lymphocytotropic virus Type II in Patients with
Chronic Fatigue Syndrome. Proc Nat Acad Sci USA
1991;88:2922-2926.
Fukuda K, Straus SE, Hickie I, at. al. The chronic fatigue syndrome:
A comprehensive approach to its definition and study. Ann Int Med 1994;
121: 953-959.
Martin
WJ. Stealth viruses as neuropathogens. CAP Today 1994;
10:67-70.
Hyde BM. editor The Clinical and Scientific Basis of Myalgic
Encephalomyelitis Chronic Fatigue Syndrome. Ottawa. Nightington Res
Found.; 1992.
Levy JA. Viral studies of chronic fatigue syndrome. Clin Infect
Dis 1994;18 Suppl 1:S117-20
Komaroff AL, Buchwald DS. Chronic fatigue syndrome: an update. Annu
Rev Med 1998;49:1-13.
McGregor NR, Dunstan RH, Zerbes M, et al. Preliminary determination
of a molecular basis of chronic fatigue syndrome. Biochem Mol Med
1996;57:73-80.
Briggs NC, Levine PH. A comparative review of systemic and
neurological symptomatology in 12 outbreaks collectively described as
chronic fatigue syndrome, epidemic neuromyasthenia, and myalgic
encephalomyelitis. Clin Infect Dis 1994;18 Suppl 1:S32-42
Martin
WJ, Anderson D. Stealth virus epidemic in the Mohave Valley.
I. Initial report of virus isolation. Pathobiology
1997;65:51-56.
Mawle AC, Nisenbaum R, Dobbins JG, et al. Seroepidemiology of
chronic fatigue syndrome. A case controlled study. Clin Inf Dis
1997;21: 1386-1389.
Cunningham L, Bowles NE, Archard LC. Persistent virus infection of
muscle in postviral fatigue syndrome. Br Med Bull
1991;47:852-71
Wallace HL 2nd, Natelson B, Gause W, et al. Human herpesviruses in
chronic fatigue syndrome. Clin Diagn Lab Immunol 1999;
6:216-23.
Vojdani A, Choppa PC, Tagle C, et al. Detection of Mycoplasma genus
and Mycoplasma fermentans by PCR in patients with Chronic Fatigue
Syndrome. FEMS Immunol Med Microbiol 1998;22:355-65.
Martin
WJ, Zeng LC, Ahmed K, Roy M. Cytomegalovirus-related sequence
in an atypical cytopathic virus repeatedly isolated from a patient
with chronic fatigue syndrome. Am J Pathol 1994 ;145:440-51.
Martin
WJ. Simian cytomegalovirus-related stealth virus isolated
from the cerebrospinal fluid of a patient with bipolar psychosis and
acute encephalopathy. Pathobiology 1996;64:64-6.
Martin
WJ. Stealth viral encephalopathy: report of a fatal case
complicated by cerebral vasculitis. Pathobiology
1996;64:59-63
Martin
WJ: Severe stealth virus encephalopathy following chronic
fatigue syndrome-like illness: Clinical and histopathological
features. Pathobiology 1996;64:1-8.
Martin
WJ, Anderson D. Stealth virus epidemic in the Mohave Valley:
severe vacuolating encephalopathy in a child presenting with a
behavioral disorder Exp Mol Pathol 1999;66:19-30.
Martin
WJ, Glass RT. Acute encephalopathy induced in cats with a
stealth virus isolated from a patient with chronic fatigue syndrome. Pathobiology
1995;63:115-8.
Martin
WJ. Stealth adaptation of an African green monkey simian
cytomegalovirus. Exp Mol Path. 1999;66:3-7.
Martin
WJ: Cellular sequences in stealth viruses. Pathobiology
1998;66:53-58
Martin
WJ. Melanoma growth stimulatory activity (MGSA/GRO-alpha)
chemokine genes incorporated into an African green monkey simian
cytomegalovirus-derived stealth virus. Exp Mol Pathol
1999;66:15-8.
Martin
WJ. Bacteria related sequences in a simian cytomegalovirus-derived
stealth virus culture. Exp Mol Path 1999;66:8-14.
Lerner AM, Zervos M, Dworkin HJ, et al. New Cardiomyopathy: Pilot
study of intraveneous ganciclovir in a subset of the chronic fatigue
syndrome. Inf Dis Clin Prac 1997;6:110-117.
Martin
WJ. Detection of RNA sequences in cultures of a stealth virus
isolated from the cerebrospinal fluid of a health care worker with
chronic fatigue syndrome. Case report. Pathobiology
1997;65:57-60
Chia JK, Chia LY. Chlamydia pneumoniae infection: a treatable cause
of chronic fatigue syndrome. Clin Infect Dis Chronic 1999
Aug;29(2):452-3
Vojdani A, Lapp CW. Interferon-induced proteins are elevated in
blood samples of patients with chemically or virally induced chronic
fatigue syndrome. Immunopharmacol Immunotoxicol 1999 May;21:175-202.
Dillon MJ. 'Epidemic neuromyasthenia' at the Hospital for Sick
Children, Great Ormond Street, London. Postgrad Med J 1978;54:725-30
Peripheral blood gene expression in postinfective fatigue syndrome following from three different triggering infections.Galbraith S, Cameron B, Li H, Lau D, Vollmer-Conna U, Lloyd AR.
The V Protein of Simian Virus 5 Inhibits Interferon Signalling by Targeting STAT1 for Proteasome-Mediated Degradation
L. DIDCOCK, D. F. YOUNG, S. GOODBOURN, AND R. E. RANDALL. JOURNAL OF VIROLOGY. Dec. 1999, p. 9928–9933 Vol. 73, No. 12
“Individuals with CFS have characteristic clinical and laboratory findings including…evidence of viral reactivation…The object of this study was to evaluate the status of key parameters of the 2-5A synthetase/RNase L antiviral pathway in individuals with CFS who participated in a placebo-controlled, double-blind, multi-centre trial…The present work confirms the finding of elevated bioactive 2-5A and RNase L activity in CFS…RNase L, a 2-5A-dependent enzyme, is the terminal effector of an enzymatic pathway that is stimulated by either virus infection or exposure to exogenous lymphokines. Almost two-thirds of the subjects…displayed baseline RNase L activity that was elevated above the control mean” (Robert J Suhadolnik, Daniel L Peterson, Paul Cheney et al. In Vivo 1994:8:599-604).
Hickie I, et al. Post-infective and chronic fatigue syndromes precipitated by viral and non-viral pathogens: prospective cohort study. British Journal of Medicine 2006; 333 (7568):575.
"Although
serum immunoreactivity to BDV proteins observed
in Swedish CFS patients by ELISA may reflect
infection with related microbial agents that induce
cross-reactivity with conformational determinants
on BDV proteins (Kliche
et al
, 1996) and
b
-
galactosidase, the serologic findings are also consistent with non specific polyclonal B-cell activation." Absence of evidence of Borna disease virus infection in Swedish patients with Chronic Fatigue Syndrome Birgitte EvengaÊrd,
Thomas Briese
, Gudrun Lindh
, Shaun Lee
and W Ian Lipkin
Vojdani A
,
Lapp CW
. Interferon-induced proteins are elevated in blood samples of
patients with chemically or virally induced chronic fatigue syndrome. Immunopharmacol
Immunotoxicol. 1999 May;21(2):175-202. PMID: 10319275
Certain toxic chemicals and certain viruses produce
the same kinds of inflammatory effects and defects in 2-5A Synthetase and Protein Kinase RNA
(PKR)). Anti IFN beta inhibited
the reactions.
Role of Infection and Neurologic Dysfunction in Chronic Fatigue Syndrome. Anthony L. Komaroff Tracey A. Cho. Semin Neurol 2011; 31(3): 325-337
Infectious agents, tranfusion or Hepatitis B vaccination may play an
important role in the onset of CFS. Associated with these a number of
stressors and consequent immunological and neuroendocrinological
changes can contribute to the onset of the illness.
P. De Becker (Brussels), research paper presented to the AACFS 5th
International Research, Clinical and Patient Conference, 2001
Beldekas, John, Jane Teas, and James R. Hebert; "African Swine
Fever Virus and AIDS"; The Lancet, March 8, 1986.
Michael Holmes of the Department of Microbiology of the University of Otago (New Zealand) carried out detailed studies into a
CFS-like illness in New Zealand in the 1980's and 1990's. His findings suggest that a virus, possibly a retrovirus was responsible and that there is also significant immune dysfunction in
CFS.
Reported in the book 'Oslers Web', by Hillary Johnson, Penguin Books 1997, pages 662-663
Anti-pathogen and immune system treatments. Treatment of 741 italian patients with chronic fatigue syndrome. U. TIRELLI, A. LLESHI, M. BERRETTA, M. SPINA, R. TALAMINI, A. GIACALONE. European Review for Medical and Pharmacological Sciences 2013; 17: 2847-2852
The world patent entitled "Method and Compositions for
Diagnosing and Treating Chronic Fatigue Immunodysfunction
Syndrome" #WO9205760 issued to Elaine DeFreitas and Brendan
Hilliard, inventors assigned to Wistar Institute, USA. This patent was
applied for in August 1991. It concerns the discovery of a new virus
the CAV virus which may lie at the root of CFS / ME.
"Myeloadenamate Deaminase deficiency in muscles of ME patients. It is
known that the enzyme is missing after a viral attack"
Professor Peter Behan, The Institute of Neurological Sciences,
University of Glasgow, Scotland.
Presence of Viral Protein 1 (VP1)
"There are no tests to confirm a diagnosis, although 60% of sufferers will have a specific protein in their blood called viral protein 1, (VP1)."
Susan Clark, www.whatreallyworks.co.uk
Defreitas E and Hilliard B. Method and compositions for diagnosing
and treating chronic fatigue immunodysfunction syndrome. International
Patent Application Number PCT/US91/06238; April, 1992.
“The clinical, pathological, electrophysiological, immunological and virological abnormalities in 50 patients with the postviral fatigue syndrome are recorded. These findings confirm the organic nature of the disease (and) suggest that it is associated with disordered regulation of the immune system and persistent viral infection” (PO Behan, WMH Behan, EJ Bell. Journal of Infection 1985:10:211-222.)
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
In his Summary of the Viral Studies of CFS, Dr Dharam V Ablashi concluded: “The presentations and discussions at this meeting strongly supported the hypothesis that CFS may be triggered by more than one viral agent…Komaroff suggests that, once reactivated, these viruses contribute directly to the morbidity of CFS by damaging certain tissues and indirectly by eliciting an on-going immune response”(Clin Inf Dis 1994:18 (Suppl 1):S130-133). It is recommended that the entire 167-page Journal be read
“Our focus will be on the ability of certain viruses to interfere subtly with the cell’s ability to produce specific differentiated products as hormones, neurotransmitters, cytokines and immunoglobulins etc in the absence of their ability to lyse the cell they infect. By this means viruses can replicate in histologically normal appearing cells and tissues…Viruses by this means likely underlie a wide variety of clinical illnesses, currently of unknown aetiology, that affect the endocrine, immune, nervous and other …systems” (JC de la Torre, P Borrow, MBA Oldstone. BMB 1991:47:4:838-851).
“The illness has an acute onset after a variety of infections and then enters a chronic phase characterised by fatigue and numerous other symptoms….Other findings include a sleep disorder, mild immunodeficiency, slightly low complement, anti-DNA antibodies and elevated synthetase which is an interferon-associated enzyme commonly increased in viral infections” (Irving E Salit. Clinical Ecology 1987:V:3:103-107).
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Dechene L
. Chronic fatigue syndrome: influence of histamine, hormones and
electrolytes.
Med Hypotheses.
1993 Jan;40(1):55-60. PMID: 8455468
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282.
Acheson ED (1956), "A New Clinical Entity?", Leading Article, Lancet, 26 mei, pp. 789-90
Acheson ED (1959), "The clinical syndrome variously called benign myalgic encephalomyelitis, Iceland disease, and epidemic neuromyasthenia", Am J Med Apr;26(4):569-95, PMID: 13637100
Lerner, AM et al. A small randomised placebo-controlled trial of the
use of antiviral therapy for patients with chronic fatigue syndrome.
Clinical Infectious Diseases, 2001, 32, 1657-1658
Carter, William et al.; "Clinical,
Immunological, and
Virological Effects of Ampligen, a Mismatched Double-Stranded RNA, in
Patients With AIDS or AIDS-Related Complex"; The Lancet, p. 1228,
1987.
Chronic Fatigue Syndrome: Current Concepts. Clinical Infectious Diseases 1994: Volume 18: Supplement 1: S1 – S167. Ed. Paul H Levine. University of Chicago Press. Contributing authors include: Paul H Levine, Alexis Shelokov, Anthony L Komaroff, David S Bell, Paul R Cheney, Leonard H Calabrese, Leonard A Jason, Seymour Grufferman, Hirohiko Kuratsune, Charles Bombadier, Nancy G Klimas, Mary Ann Fletcher, Roberto Patarca-Montero, Benjamin H Natelson, Robert J Suhadolnik, Daniel L Peterson, Dharam V Ablashi, Fred Friedberg, Jay A Levy, Peter O Behan, Wilhelmina MH Behan and Mark O Loveless.
Viral Infection in CFS patients. The Clinical and Scientific Basis
of ME / CFS, Byron M. Hyde M.D., Ed., The Nightingale Research
Foundation, 1992, 325-327.
Torrisi, et al, wrote "The absence of lycoproteins on the cell
surface of the infected cells," showing where the virus is hiding
and how it infects (Virology, 257, 1999).
Detection of Viral Related Sequences in CFS Patients Using the
Polymerase Chain Reaction. The Clinical and Scientific Basis of ME /
CFS, Byron M. Hyde M.D., Ed., The Nightingale Research Foundation,
1992, 278-282
(o)ME outbreaks suggesting role of viruses and other pathogens Viruses have been isolated from the muscles of ME patients during epidemics. Using PCR methods, 50% or more of patients had evidence of such infection.
Hyde BM.
Myalgic encephalomyelitis (chronic fatigue syndrome): an historic
perspective.
Can Dis Wkly Rep. 1991 Jan;17 Suppl 1E:5-8. PMID: 1669354
Brodrick J.
Myalgic encephalomyelitis: yuppie 'flu--a real illness. Interview by Charlotte
Alderman.
Nurs Stand. 1990 Aug 29-Sep 4;4(49):18. PMID: 2119747
Wilson CW.
Myalgic encephalomyelitis: an alternative theory.
J R Soc Med. 1990 Aug;
83(8):481-3. PMID: 2231572
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1292769/pdf/jrsocmed00133-0005b.pdf
Dowsett EG, Ramsay AM, McCartney RA, Bell EJ.
Myalgic encephalomyelitis--a
persistent enteroviral infection?
Postgrad Med J. 1990 Jul;66(777):526-30.
PMID: 2170962
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2429637/pdf/postmedj00163-0031.pdf
Lynch S, Seth R.
Depression and myalgic encephalomyelitis.
J R Soc Med. 1990 May;
83(5):341. PMID: 2380955
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1292666/pdf/jrsocmed00136-0073a.pdf
Myalgic encephalomyelitis.
J R Soc Med. 1990 Mar;83(3):199-200. No abstract
available. PMID: 2325071
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1292587/pdf/jrsocmed00138-0079b.pdf
Prasher D, Smith A, Findley L.
Sensory and cognitive event-related potentials in myalgic
encephalomyelitis.
J Neurol Neurosurg Psychiatry. 1990 Mar;53(3):247-53. PMID:
2324756
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1014138/pdf/jnnpsyc00513-0063.pdf
Grist NR.
Myalgic encephalomyelitis: postviral fatigue and the heart.
BMJ. 1989 Nov
11;299(6709):1219. PMID: 2513065
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1838100/pdf/bmj00258-0049b.pdf
Lev M.
Myalgic encephalomyelitis.
J R Soc Med. 1989 Nov;82(11):693-4. PMID:
2593126
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1292388/pdf/jrsocmed00144-0069.pdf
Snow P.
Myalgic encephalomyelitis.
N Z Med J. 1989 Aug 23;102(874):449.
Murdoch JC.
The myalgic encephalomyelitis syndrome.
N Z Med J. 1989 Jul 26;102
(872):372-3. PMID: 2797553
Coakley JH.
Myalgic encephalomyelitis and muscle fatigue.
BMJ. 1989 Jun 24;298
(6689):1711-2. PMID: 2503189
Zala J.
Diagnosing myalgic encephalomyelitis.
Practitioner. 1989 Jun 22;233(1471):
916-9. PMID: 2594656
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1836756/pdf/bmj00237-0063d.pdf
Myalgic encephalomyelitis.
BMJ. 1989 Jun 10;298(6687):1577-8. PMID: 2503125
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1836797/pdf/bmj00235-0051b.pdf
Welch JC.
Abnormal erythrocytes in myalgic encephalomyelitis.
N Z Med J. 1989 Apr
26;102(866):202. PMID: 2710458
Simpson LO.
Nondiscocytic erythrocytes in myalgic encephalomyelitis.
N Z Med J. 1989
Mar 22;102(864):126-7. PMID: 2927808
Cant BR.
Myalgic encephalomyelitis.
N Z Med J. 1989 Feb 8;102(861):52. PMID:
2739970
Willoughby E.
Myalgic encephalomyelitis.
N Z Med J. 1989 Jan 25;102(860):19-20.
PMID: 2913521
Shepherd C.
Myalgic encephalomyelitis--is it a real disease?
Practitioner. 1989 Jan;233
(1461):41-2, 44, 46. PMID: 2798285
Myalgic encephalomyelitis.
N Z Med J. 1988 Nov 23;101(858):800-1. PMID:
3194079
Hyde B, Bergmann S.
Akureyri disease (myalgic encephalomyelitis), forty years later.
Lancet. 1988 Nov 19;2(8621):1191-2. PMID: 2903396
Willoughby EW.
Myalgic encephalomyelitis.
N Z Med J. 1988 Nov 9;101(857):773.
PMID: 3186037
Spracklen FH.
The chronic fatigue syndrome (myalgic encephalomyelitis)--myth or
mystery?
S Afr Med J. 1988 Nov 5;74(9):448-52. Review. PMID: 3055363
Myalgic encephalomyelitis.
N Z Med J. 1988 Oct 26;101(856 Pt 1):672. No abstract
available. PMID: 3186016
Sheldon, A., Habel, K., Verder, E. and
Welsh, W. Epidemic neuromyasthenia. An
outbreak of poliomyelitis-like illness in student
nurses. New England J. Med., 257: 345, 1957.
Poskanzer, D.C., Henderson, D.A., Kunkle,
E.C., Kalter, S.S., Clement W.B. and Bland
J.O. Epidemic neuromyasthenia. An outbreak
in Punta Gorda, Florida. New England J. Med.,
257: 356, 1957.
Gordon N.
Myalgic encephalomyelitis.
Dev Med Child Neurol. 1988 Oct;30(5):677-82.
Review. PMID: 3068084
Murdoch JC.
Cell-mediated immunity in patients with myalgic encephalomyelitis
syndrome.
N Z Med J. 1988 Aug 10;101(851):511-2. PMID: 3261407
Myalgic encephalomyelitis, or what?
Lancet. 1988 Jul 9;2(8602):100-1. PMID:
2898668
Holborow PL.
Pathophysiology of myalgic encephalomyelitis.
Med J Aust. 1988 Jun
6;148(11):598, 600. PMID: 3374430
Lloyd AR, Wakefield D, Boughton C, Dwyer J.
What is myalgic encephalomyelitis?
Lancet. 1988 Jun 4;1(8597):1286-7. PMID: 2897549
Archard LC, Bowles NE, Behan PO, Bell EJ, Doyle D.
Postviral fatigue syndrome:
persistence of enterovirus RNA in muscle and elevated creatine kinase.
J R Soc Med.
1988 Jun;81(6):326-9. PMID: 3404526
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1291623/pdf/jrsocmed00161-0020.pdf
Bell EJ, McCartney RA, Riding MH.
Coxsackie B viruses and myalgic
encephalomyelitis.
J R Soc Med. 1988 Jun;81(6):329-31. PMID: 2841461
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1291624/pdf/jrsocmed00161-0023.pdf
Jennekens FG, van Gijn J.
[Postviral fatigue syndrome or myalgic encephalomyelitis].
Ned Tijdschr Geneeskd. 1988 May 28;132(22):999-1001. Dutch. PMID: 3380192
Wakefield D, Lloyd A, Dwyer J, Salahuddin SZ, Ablashi DV.
Human herpesvirus 6 and
myalgic encephalomyelitis.
Lancet. 1988 May 7;1(8593):1059. PMID: 2896906
Maros K.
Myalgic encephalomyelitis?
Med J Aust. 1988 Apr 18;148(8):424. PMID:
3357477
Lloyd A, Hanna DA, Wakefield D.
Interferon and myalgic encephalomyelitis.
Lancet. 1988 Feb 27;1(8583):471. PMID: 2893889
Byrne E.
Idiopathic chronic fatigue and myalgia syndrome (myalgic encephalomyelitis):
some thoughts on nomenclature and aetiology.
Med J Aust. 1988 Jan 18;148(2):80-2.
PMID: 3336341
Ho-Yen DO, Carrington D, Armstrong AA.
Myalgic encephalomyelitis and alpha-
interferon.
Lancet. 1988 Jan 16;1(8577):125. PMID: 2891971
Matthew C.
Myalgic encephalomyelitis and the doctor.
N Z Med J. 1987 Sep 9;100(831):
569. PMID: 3451147
Mukherjee TM, Smith K, Maros K.
Abnormal red-blood-cell morphology in myalgic
encephalomyelitis.
Lancet. 1987 Aug 8;2(8554):328-9. PMID: 2886780
Archer MI.
The post-viral syndrome: a review.
J R Coll Gen Pract. 1987 May;37(298):
212-4. Review. PMID: 3320358
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1710789/pdf/jroyalcgprac00029-0021.pdf
Matthew C.
Myalgic encephalomyelitis.
N Z Med J. 1986 Sep 10;99(809):678. PMID:
3463904
Blackmore RJ.
Myalgic encephalomyelitis and Immunovir.
N Z Med J. 1986 Jul 9;99
(805):513. PMID: 3461389
McCartney RA, Banatvala JE, Bell EJ.
Routine use of mu-antibody-capture ELISA for
the serological diagnosis of Coxsackie B virus infections.
J Med Virol. 1986 Jul;19(3):
205-12. PMID: 3016163
Simpson LO, Shand BI, Olds RJ.
Blood rheology and myalgic encephalomyelitis: a pilot
study.
Pathology. 1986 Apr;18(2):190-2. PMID: 3093959
Rowlandson PH, Stephens JA.
Cutaneous reflex responses recorded in children with
various neurological disorders.
Dev Med Child Neurol. 1985 Aug;27(4):434-47.
PMID: 2993087
Staines D.
Myalgic encephalomyelitis hypothesis.
Med J Aust. 1985 Jul 22;143(2):91.
PMID: 4021881
Byrne E, Trounce I, Dennett X.
Chronic relapsing myalgia (Post viral): clinical,
histological, and biochemical studies.
Aust N Z J Med. 1985 Jun;15(3):305-8. PMID:
3864422
Myalgic encephalomyelitis.
N Z Med J. 1985 Jan 23;98(771):20-1. PMID: 3855509
Gow PJ.
Myalgic encephalomyelitis.
N Z Med J. 1984 Dec 12;97(769):868. PMID:
6595571
Myalgic encephalomyelitis.
N Z Med J. 1984 Nov 14;97(767):782. PMID: 6593632
Myalgic encephalomyelitis.
N Z Med J. 1984 Oct 10;97(765):698-9. PMID:
6592485
Bell EJ, McCartney RA.
A study of Coxsackie B virus infections, 1972-1983.
J Hyg
(Lond). 1984 Oct;93(2):197-203. PMID: 6094660
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2129449/pdf/jhyg00014-0036.pdf
Gow PJ.
Myalgic encephalomyelitis.
N Z Med J. 1984 Sep 12;97(763):620. PMID:
6591048
Calder BD, Warnock PJ.
Coxsackie B infection in a Scottish general practice.
J R Coll
Gen Pract. 1984 Jan;34(258):15-9. PMID: 6319691
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1959663/pdf/jroyalcgprac00169-0017.pdf
Keighley BD, Bell EJ.
Sporadic myalgic encephalomyelitis in a rural practice.
J R Coll
Gen Pract. 1983 Jun;33(251):339-41. PMID: 6310105
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1972871/pdf/jroyalcgprac00078-0021.pdf
Fegan KG, Behan PO, Bell EJ.
Myalgic encephalomyelitis--report of an epidemic.
J R
Coll Gen Pract. 1983 Jun;33(251):335-7. PMID: 6310104
Know your organizations: the Myalgic Encephalomyelitis Association.
Health Visit.
1982 Jul;55(7):350. PMID: 6921182
Parish G.
Myalgic encephalomyelitis: faulty fibres?
Nurs Mirror. 1981 Oct 7;153(15):
41-2. PMID: 6913031
Ramsay M.
Myalgic encephalomyelitis: a baffling syndrome.
Nurs Mirror. 1981 Oct
7;153(15):40-1. PMID: 6913030
Layzer RB.
Myoglobinaemia in benign myalgic encephalomyelitis.
Lancet. 1981 Mar
21;1(8221):670. PMID: 6110899
Goodwin CS.
Was it benign myalgic encephalomyelitis?
Lancet. 1981 Jan 3;1(8210):
37-8. PMID: 6109065
May PG, Donnan SP, Ashton JR, Ogilvie MM, Rolles CJ.
Personality and medical
perception in benign myalgic encephalomyelitis.
Lancet. 1980 Nov 22;2(8204):1122-4.
PMID: 6107734
Church AJ.
Myalgic encephalomyelitis.
Med J Aust. 1980 Aug 23;2(4):224. PMID:
7432298
Bishop J.
Epidemic myalgic encephalomyelitis.
Med J Aust. 1980 Jun 14;1(12):585-6,
609. PMID: 7402153
Ramsay AM, Rundle A.
Clinical and biochemical findings in ten patients with benign
myalgic encephalomyelitis.
Postgrad Med J. 1979 Dec;55(654):856-7. PMID: 548947 http://www.ncbi.nlm.nih.gov/pmc/articles/PMC2425703/?tool=pubmed
Pampiglione G, Harris R, Kennedy J.
Electro-encephalographic investigations in
myalgic encephalomyelitis.
Postgrad Med J. 1978 Nov;54(637):752-4. PMID: 746023
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1606252/pdf/brmedj00135-0058a.pdf
Behan PO.
Post-infectious encephalomyelitis: some aetiological mechanisms.
Postgrad
Med J. 1978 Nov;54(637):755-9. PMID: 34143
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1606252/pdf/brmedj00135-0058a.pdf
Wookey C.
Epidemic myalgic encephalomyelitis.
Br Med J. 1978 Jul 15;2(6131):202.
PMID: 678851
Epidemic myalgic encephalomyelitis.
Br Med J. 1978 Jun 3;1(6125):1436-7.
PMID: 647324
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1604957/pdf/brmedj00128-0006b.pdf
Ramsay AM, Dowsett EG, Dadswell JV, Lyle WH, Parish JG.
Icelandic disease (benign
myalgic encephalomyelitis or Royal Free disease)
Br Med J. 1977 May 21;1(6072):
1350. PMID: 861618
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1607215/pdf/brmedj00463-0058b.pdf
Pool JH, Walton JN, Brewis EG, Uldall PR, Wright AE, Gardner PS.
Benign myalgic
encephalomyelitis in Newcastle upon Tyne.
Lancet. 1961 Apr 8;1(7180):733-7. PMID:
13737057
Klajman A, Pinkhas B, Rannon L.
[An outbreak of an epidemic of benign myalgic
encephalomyelitis].
Harefuah. 1960 May 15;58:314-5. Hebrew. PMID: 14409571
Bornstein B, Bechar M, Lass H.
Benign myalgic encephalomyelitis. (Report of five
cases).
Psychiatr Neurol (Basel). 1960 Mar;139:132-40. PMID: 13802904
Daikos GK, Garzonis S, Paleologue A, Bousvaros GA, Papadoyannakis N.
Benign
myalgic encephalomyelitis: an outbreak in a nurses' school in Athens.
Lancet. 1959 Apr
4;1(7075):693-6. PMID: 13642848
Acheson ED.
The clinical syndrome variously called benign myalgic encephalomyelitis,
Iceland disease and epidemic neuromyasthenia.
Am J Med. 1959 Apr;26(4):569-95.
PMID: 13637100
http://www.meresearch.org.uk/information/keypubs/Acheson_AmJMed.pdf
Bhatia BB, Chandra S, Bhushan C.
Benign myalgic encephalomyelitis.
J Indiana State
Med Assoc. 1958 Oct;31(8):327-8. PMID: 13611265
Gsell O.
[Encephalitis myalgica epidemica, a poliomyelitis-like disease; epidemic
neuromyasthenia, benign myalgic encephalomyelitis].
Schweiz Med Wochenschr. 1958
May 17;88(20):488-91. German. PMID: 13568694
Greene IM.
Benign myalgic encephalomyelitis; syndrome mimicking anterior
poliomyelitis.
J Fla Med Assoc. 1958 Apr;44(10):1105-6. PMID: 13525606
EPIDEMIC myalgic encephalomyelitis.
Br Med J. 1957 Oct 19;2(5050):927-8.
PMID: 13472011
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1962482/pdf/brmedj03125-0047.pdf
Lindan R.
Benign Myalgic Encephalomyelitis.
Can Med Assoc J. 1956 Oct 1;75(7):
596-7. PMID: 20325349
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC1824640/pdf/canmedaj00742-0051.pdf
Outbreak at the Royal Free.
E.D Acheson. The Lancet, Volume 266, Issue 6886, Pages 394 - 395, 20 August 1955.
Years of Epidemics
1917 Van Economo reports an illness involving brain and neurological inflammation and great fatigue and some deaths. See paper 'New Clinical Entity' published in the Lancet in 1956.
1918 - 1924, several outbreaks of an illness involving brain and neurological inflammation and fatigue reported throughout Europe. See paper 'New Clinical Entity' published in the Lancet in 1956.
1924 England and Wales 5,039 cases of encephalitis lethargica. See paper 'New Clinical Entity' published in the Lancet in 1956.
1934
Los Angeles County Hospital. Called 'Atypical Poliomyelitis'
1936
Fond Du Lac, Wisconsin - St. Agnes Convent - Encephalitis
1937
Erstfeld, Switzerland -
Abortive Poliomyelitis
1937
St. Gallen, Switzerland
- Frohburg Hospital – Abortive Poliomyelitis
1939
Middlesex, England - Harefield Sanatorium
1939
Degersheim, Switzerland - Abortive Poliomyelitis
1945
Pennsylvania. Hospital of the University of Pennsylvania - epidemic Pleurodynia
1946
Iceland
disease resembling Poliomyelitis with the character of Akureyri disease
1948
Iceland, North Coast towns - epidemic simulating Poliomyelitis
1949
Adelaide, South Australia - a disease resembling Poliomyelitis
1949 Cambridgeshire, England -
aberrant poliomyelitis. Involvement of other Enteroviruses suspected.
1950
Louisville, Kentucky -- St. Joseph
's Infirmary - epidemic Neuromyasthenia
1950
Upper State New York -- outbreak resembling the
Iceland disease, simulating
"
acute Anterior Poliomyelitis
1952
London, England - Middlesex Hospital Nurses
'
Home - Encephalomyelitis
associated with Poliomyelitis virus
1952
Copenhagen, Denmark - epidemic Myositis
1952
Lakeland, Florida - epidemic Neuromyasthenia
1953
Coventry and District, England - an illness resembling Poliomyelitis observed in
nurses
1953
Rockville, Maryland - Chestnut Lodge Hospital - Poliomyelitis-like epidemic
Neuromyasthenia
1953
Jutland, Denmark - epidemic Encephalitis with vertigo
1954 Seward, Alaska - benign Myalgic Encephalomyelitis (Iceland Disease)
1954
Berlin, Germany - British army - further outbreak of a disease resembling
Poliomyelitis
1954
Liverpool, England - outbreak among medical and nursing staff in a local
hospital
1955
Dalston, Cumbria, England – epidemic and sporadic outbreak of an unusual
disease
1955
London, England - Royal Free Hospital - outbreak in staff and patients of Benign
Myalgic Encephalomyelitis
1955 Hampstead, London
1955
Perth, Australia - virus epidemic in waves
1955
Gilfac Goch, Wales - outbreak of benign Myalgic Encephalomyelitis
1955
Durban City, South Africa - Addington Hospital - outbreak among nurses of Durban Mystery Disease
1955
Segbwema, Sierra Leone - outbreak of Encephalomyelitis
1955
Patreksfjorour and Porshofn, Iceland - unusual response to polio vaccine
1955
Northwest London, England - nurses
'
residential home - acute Infective
Encephalomyelitis simulating poliomyelitis
1956
Ridgefield, Connecticut - epidemic Neuromyasthenia
1956
Punta Gorda Florida - outbreak of epidemic Neuromyasthenia
1956
Newton-le-Willows, Lancashire, England - Lymphocytic Meningoencephalitis with
myalgia and rash
1956
Pittsfield and Williamstown, Massachusetts - benign Myalgic Encephalomyelitis
1956
Coventry, England - epidemic malaise, benign Myalgic Encephalomyelitis
1957
Brighton, South Australia - Cocksakie Echo virus Meningitis, epidemic Myalgic
Encephalomyelitis
1958
Athens, Greece - nurses
'
school - outbreak of benign Myalgic Encephalomyelitis
with periostitis and arthopathy noted.
1958
Southwest London, England - reports of sporadic cases of Myalgic
Encephalomyelitis
1959
Newcastle Upon Tyne, England - outbreak of benign Myalgic Encephalomyelitis
1961
Basel, Switzerland - sporadic cases of benign Myalgic Encephalomyelitis
1961
New York State - outbreak of epidemic Neuromyasthenia in a convent
1964
Northwest London, England - epidemic malaise, epidemic Neuromyasthenia
1964
Franklin, Kentucky - outbreak of Neuromyasthenia in a factory
1967
Edinburgh, Scotland - sporadic cases resembling benign Myalgic
Encephalomyelitis
1968
"
Fraidek, Lebanon - benign Myalgic Encephalomyelitis
1969
Brooklyn, New York - State University of New York Downstate Medical Center -
epidemic Neuromyasthenia, unidentified symptom complex
1970
Lackland Air Force Base, Texas - epidemic Neuromyasthenia
1970
London, England - Great Ormond Street Hospital for Children - outbreak of
Neuromyasthenia among nurses
1975
Sacramento, California - Mercy San Juan Hospital - Infectious Venulitis, epidemic
"
Phelobodynia
1976
Southwest Ireland - epidemic Neuromyasthenia, benign Myalgic
Encephalomyelitis
1977
Dallas – Fort Worth, Texas - epidemic Neuromyasthenia
1979
Southampton, England - Myalgic Encephalomyelitis
1980
West Kilbridge, Ayrshire, Scotland - epidemic Myalgic Encephalomyelitis
1980
San Francisco, California – epidemic persistent flu-like illness
1981
Stirlingshire, Scotland
- sporadic Myalgic Encephalomyelitis
1982
West Otago, Dunedin and Hamilton, New Zealand - Myalgic Encephalomyelitis
1983
Los Angeles, California - initial cases of an unknown, chronic symptom complex
involving profound "fatigue"
1984
Lake Tahoe Area of California/Nevada - start of a yearlong epidemic involving
"
over 160 cases of chronic illness eventually characterized as Chronic Fatigue
Syndrome Source: Paradigm Change web site