http://www.jorsm.com/~binstock/vin.htm

 


VACCINATION-INDUCED NEUROPATHIES

Infection, Autoimmunity, and Autism


by Teresa Binstock

Researcher in Developmental and Behavioral Neuroanatomy

My writings do not constitute medical advice.

Instead, they represent a seeking to understand autism-spectrum disorders

and their causes and associated traits.

                                                >>> Posting number 384, 
                                                dated 3 Jan 1997 21:16:41
 
.....PRELUDE.....
I have written a short paper that, including this announcement, shall be posted in
four sections to bit.listserv.autism. The paper is copyrighted 1997 by Teresa C.
Binstock, and persons wishing to share the paper may do so if shared in its
entirety. The views expressed in the above-entitled document are those of Teresa C.
Binstock and of no other person or institution. Persons wishing to cite the paper
in correspondence or in other academic papers may use the following internet
citation:
 
Binstock, T.  Hypothesis: Infection, antibiotics, vaccination-induced neuropathies:
Mechanisms of pathogenesis in some cases of autism, ADHD, Tourette's, OCD, and other
neurological disorders. Bit.listserv.autism January 3 1997.
 
                                                >>> Posting number 383, 
                                                dated 3 Jan 1997 21:24:58
 
.....ABSTRACT..... 
Cytokines are released in response to vaccination (i) as part of the processes by
which vaccinations induce antibody formation, and (ii) as indicated by the
occurrence of fever and, in many children, lethargic behavior. The cytokines so
released are causally associated with two other processes: (i) edema within the cns,
and (ii) clonal expansions of T-cell and B-cell subsets already activated by
specific antigens from recent processes within the central nervous system (cns).
      Of significance to autism, OCD, Tourette's, ADHD, etc, is that some T-cells
and B-cells in peripheral circulation may be encoded with neuron-derived epitopes
(NdEs) subsequent to various infections and/or various treatments with antibiotics.
      In children having such NdE-encoded T-cells, B-cells, and antibodies,
vaccination-induced clonal expansions of those T-cells and B-cells may, in some
cases, initiate further neuronal damage. In other words, brain regions whose
pre-vaccination neuronal damage had been relatively insignificant may, via
vaccination-induced clonal expansions, suffer additional damage.
      The sequence is as follows: individuals primed with NdE-encoded immunological
cells may, given cytokines-release induced by one or more vaccinations, experience
clonal expansions of those T-cells and B-cells, which can re-cross the bbb into the
brain and then induce additional damage, ie, resulting in vaccination-enhanced
neuropathy presenting clinically as autism, tics, Tourette's syndrome, OCD, ADHD,
etc.
 
 
                                                >>> Posting number 385, 
                                                dated 3 Jan 1997 21:39:23
 
.....RATIONALE.....
1.    In his book VACCINATION, SOCIAL VIOLENCE, AND CRIMINALITY, Harris Coulter
makes an important observation: in many children, post-vaccination traits appear to
be similar to those described as sequelae to various CNS infections (15). This
paper's hypothesis presents molecular mechanisms that may account for the
similarities in sequelae to various CNS infections and, in some children, to
vaccinations.
 
2.    Based upon the facts (i) that fever is a vaccination reaction experienced by
many individuals (9), and (ii) that fever and edema are stimulated by similar
cytokines (34, 43, 57), a subset of vaccinated children -- as a direct result of
vaccination-induced cytokines release --  may be likely to experience both
encephalitis and subsequent encephalopathy.
 
3.    For instance, recent research findings are instructive regarding autistic
children for whom -- as neonates, infants or toddlers -- medical records show a
history of infections, antibiotic treatments, vaccinations, and temporally
associated onset of autistic traits (eg, 3, 15).
 
4.    As suggested by Coulter (15) a range of mild but significant post-vaccination
neuropathies may occur, and the following rationale applies not only to autism but
also to traits such as tics, ADHD, OCD (obsessive-compulsive disorder), etc.
A.          Fever is strongly associated with interleukin-1, interleukin-6, and
tumor necrosis factor alpha (IL-1, IL-2, TNF-alpha; ref 34).
B.          Brain inflammation is strongly associated with those same cytokines (6,
12).
C.          IL-1 and IL-6 are among primary components in inflammatory expansions
of B-cells and T-cells, which can migrate to tissues from which, for instance, the
antineural epitopes are derived (19, 20, 24, 35, 37, 40). Furthermore, because the
very mechanism of vaccination-induced immunity derives from clonal expansions of
B-cells (1), cytokines needed for B-cell clonal expansions are induced and present
as a causally related response to vaccination.
D.          If, prior to or immediately subsequent to vaccination, any neuronal
damage, however slight, has occurred in response to the child's infections and/or
antibiotic treatments (2, 23, 28, 45, 50, 51), then the child probably has some
activated microglia and some anti-neuronal antibodies, as well as activated T-cells
and B-cells whose epitopic focus is derived from neurons that were injured either
(i) during the prior infections and treatment (17, 30, 39, 42, 46, 54), or (ii) as
a result of vaccination-induced edema (22).
E.          Not only do inflammatory cytokines modulate blood-brain barrier (bbb)
permeability (5), but perivascular microglial cells of the bbb can become
antigen-presenting cells encoded with epitopes from the injured tissue within the
brain, and these perivascular cells allow activated T-cells to pass from peripheral
circulation, across the bbb, into csf wherein additional autoimmune- like damage can
ensue (4, 10, 27, 33, 44). A similar crossing of the bbb occurs with activated
B-cells (16).
 
5.    If, from the child's prior infection(s) and/or from vaccination-induced edema,
activated T-cells and B-cells exist with neuronally derived epitopes, at least in
some individuals during their response to vaccination, the following sequence may
ensue: (i) clonal expansions of existing T-cells and B-cells having neuronally
derived epitopes, (ii) further activation of microglia in brain regions already
damaged, (iii) increases in bbb permeability, thereby allowing activated T-cells,
etc, to enter the brain. (iv) Furthermore, as the clonally expanding T-cells, etc,
travel toward brain cells having sequences similar to the NdEs, encephalitis would
be one result of these events and, more importantly, additional sequelae would
include increased autoimmune-like damage to neurons that, prior to the vaccination,
had been only mildly, perhaps even unnoticeably damaged by the prior infections.
 
6.    In extreme cases of individuals having vaccination-induced clonal expansions
of immunological cells with neuron-based epitopes, autism might be a result; and,
as suggested by Coulter (15) milder cases might appear as ADHD, Tourette's,
impulsivity, OCD, and other traits often presumed to be "genetic".
 
7.    Nearly any vaccine may have the potential for inducing neuronal damage in
persons with NdEs. In other words, any vaccination that induces strong antibody
responses (i) would appear to be capable of inducing fever-generating cytokines and,
therefore at least hypothetically, (ii) could simultaneously induce clonal
expansions of pre-existing T- and B-cells encoded with neuronally derived epitopes
(NdEs), thereby leading to increased neuronal damage in varying degrees across
individuals.
 
8.    That vaccinations are helpful to society is without question; however, that
some individuals suffer permanent and damaging sequelae to vaccinations is also well
documented. My purpose with this letter is not to rail against all vaccinations, but
instead is to offer a mechanism by which vaccination- induced neuronal damage in
some individuals can be understood.
 
9.    Three additional concepts are helpful for understanding inflammation- related
pathologies of the cns: (i) molecular mimicry -- whereby epitope sequences are
virtually identical between an immunogenic pathogen and a naturally occurring
molecular sequence (8), (ii) cross-reactivity -- eg, when a lipopolysaccharide
amidst a cellular bilipid layer induces a wider range of immunological responses
involving self-membrane sequences (52), and (iii) epitope-spreading or "determinant
spreading", ie, a process that also describes spontaneously occuring widening ranges
of immungenicity (7, 38, 53). Each of these three processes illustrates ways that
autoimmune neuronal damage may be induced and the range of neuronal targets expanded
in response to fever-related levels of cytokines release that occur in response to
vaccinations. These process would be more likely in some children if, due to
infections and/or antibiotics, the child has T- and/or B-cell subsets encoded with
NdEs.
 
10.   In extreme cases, sufficient interleukin-2 levels in damaged areas of the cns
could mobilize lymphokine-activated killer cells (LAKs), which then might induce a
more general damage (21, 25), thereby yielding increasingly severe neurological
deficits.
 
11.   Additional factors may augment the mechanisms of neuronal damage outlined
hereinabove:
A.          Targeting the cerebellum and temporal lobe: Swartz (1984) mentions that
the temporal lobe and cerebellum are likely targets for edema-induced neuronal
damage (49). Furthermore, certain hippocampal regions as well as Purkinje cells of
the cerebellum have a relative deficit of apoptosis-related protein Bcl-2, thereby
inclining cells in those regions toward apoptosis if and as edema- induced injury
occurs (26).
B.          Cerebellum: Discrete lesions of the cerebellum are associated with
mania, depression, bipolar disorders, and OCD (31); and more than thirty bacterial,
fungal, and viral infectious agents are known to be able to affect the cerebellum
(13). Therefore, mechansisms presented in this paper (eg, in 11A and 11B, etc) could
even account for multiple and varied occurrences of these traits across individuals
within families.
C.          Gastrointestinal tract: Many infections are known to begin in the
gastrointestinal tract, oftentimes after antibiotic regimens have eliminated
naturally occurring and beneficial microflora (18, 36, 41). Occasionally, the
infectious agent can translocate through the GI-tract and affect other organs and
occasionally become systemtic (11). Occasionally, neurological ramifications ensue
and can be modulated by glutamate and aspartate (47, 48, 56, 58).
D.          Other inflammatories: In addition to IL-1, IL-6, and TNF-alpha, the
following are additional factors influencing brain inflammation: Platelet-activating
factor, prostaglandins E2 and I2, leukotriene B4, and polymorhpnuclear neutophil
leukocytes (47).
 
12.   As stated in a recent guideline for physicians, vaccination-induced
inflammation ought be treated aggressively (22), and better understanding of
pathogenic processes, of risk factors, and of preventive or corrective measures are
worthwhile goals.
 
                                  *     *     *
 
After writing this paper, a newly published study about the MMR and its induction
of interferon gamma suggested other ways that vaccinations can induce neurologic
and/or gastrointestinal effects.
MMR and
interferon-gamma
 
 
 
REFERENCES
                                                 >>> Posting number 386, 
                                                 dated 3 Jan 1997 21:58:52
                                                 >>> Posting number 387, 
                                                 dated 3 Jan 1997 22:05:37
 
1. Ada, G.L., (1993), Vaccines. In: Fundamental Immunology, 3rd edition, Paul, E.P.,
editor, New York: Raven Press, Ltd.
2. Allen, A.J., Leonard, H.L., & Swedo, S.E., (1995), Case study: a new
infection-triggered, autoimmune subtype of pediatric OCD and Tourette's syndrome.
Journal of the American Academy of Child and Adolescent Psychiatry, 34, 307-311.
3. Baker, S.M., & Pangborn, J., (1996), Clinical assessment options for children
with autism and related disorders: a concensus report of the Defeat Autism Now!
(DAN!) conference, Dallas, Texas, January 1995. San Diego, Autism Research
Institute.
4. Banati, R.B., & Graeber, M.B., (1994), Surveillance, intervention and
cytotoxicity: Is there a protective role of microglia? Developmental Neuroscience,
16, 114-27.
5. Banks, W.A., & Kastin, A,J., (1991), Blood to brain transport of interleukin
links the immune and central nervous systems. Life Sciences, 48, PL117-PL121.
 
6. Banks, W.A., Kastin, A.J., & Gutierrez, E.G., (1993), Interleukin-1-alpha in
blood has direct access to cortical brain cells. Neuroscience Letters, 163, 41-44.
7. Bauer, J., Wekerle, H., & Lassmann, H., (1995), Apoptosis in brain-specific
autoimmune disease. Current Opinion in Immunology, 7, 839-43.
8. Baum H, Davies H, & Peakman M (1996), Molecular mimicry in the MHC: hidden clues
to autoimmunity? Immunology Today, 17, 64-70.
9. Bellanti, J.A., Fishman, H.D., & Wientzen, R.L., (1987), Adverse reactions to
vaccines. Immunology and Allergy Clinics of North America, 7, 3, 423-445.
10. Benveniste, E.N., (1992), Inflammatory Cytokines within the central nervous
system: sources, function, and mechanism of action. American Journal of Physiology,
263, C1-C16.
 
11. Berg, R.D., (1992), Bacterial translocation from the gastrointenstinal tract.
Journal of Medicine, 23, 217-244.
12. Ceriani, G., Macaluso, A., Catania, A., & Lipton, J.M., (1994), Central
neurogenic antiinfammatory action of alpha-MSH: modulation of peripheral
inflammation induced by cytokines and other mediators of inflammation.
Neuroendocrinology, 59, 138-143.
13. Cohen, B.A., & Lipton, H.L., (1990), The cerebellum and CNS infections. In:
Infections of the central nervous system. D Schlossberg, editor; New York:
Springer-Verlag.
14. Coulter, H.L., (1993), Author responds to review of VACCINATION, SOCIAL
VIOLENCE, AND CRIMINALITY. Journal of Autism and Developmental Disorders, 23,
423-424.
15. Coulter, H.L., (1990), Vaccination, social violence, and criminality: The
medical assualt on the American brain. Berkeley, North Atlantic Books; Washington,
Center for Empirical Medicine.
 
16. Cserr, H.F., & Knopf, P.M., (1992), Cervial lymphatics, the blood-brain barrier
and the immunoreactivity of the brain: a new view. Immunology Today, 13, 507-512.
17. Davis, E.J., Foster, T.D., & Thomas, W.E., (1994), Cellular forms and functions
of brain microglia. Brain Research Bulletin, 34, 73-78.
18. Dietch, E.A., Winterton, J., Li, M., & Berg, R., (1987), The gut as a portal of
entry for bacteremia. Annals of Surgery, 205, 681-692.
19. Dolcetti, R., &  Boiocchi M., (1996), Cellular and molecular bases of B-cell
clonal expansions. Clinical & Experimental Rheumatology,  14 Suppl 14, S3-13.
20. Durum, S.K., & Oppenheim, J.J., (1995), Proinflammatory cytokines and immunity.
In: Fundamental Immunology, 3rd edition, Paul WE, editor; New York: Raven Press,
Ltd.
 
21. Finkelstein, D.M. & Miller, R.G., (1990), Cell surface recognition determinants
involved in triggering the lymphokine activated killer cell phenomenon: enhanced
killing of modified "anti-self" targets by varying LAK culture conditions. The
Journal of Otolaryngology, 19, 294-298.
22. Fukuyama, Y., Seki, T., Ohtsuka, C., Miura, H., & Hara, M., (1996), Practical
guidelines for physicians in the management of febrile seizures. Brain &
Development, 18, 479-84.
23. Giedd, J.N., Rapoport, J.L., Leonard, H.L., Richter, D., & Swedo, S.E., (1996),
Case study: acute basal ganglia enlargement and obsessive-compulsive symptoms in an
adolescent boy. Journal of the American Academy of Child and Adolescent Psychiatry,
35, 913-915.
24. Greenbaum, L.A., Horowitz, J.B., Woods, A., Pasqualini, T., Reich, E.P., &
Bottomly, K. (1988), Autocrine growth of CD4+ T cells. The Journal of Immunology,
140, 1555-1560.
25. Grimm, E.A. & Owen-Schaub L., (1991), The IL-2 mediated amplification of
cellular cytotoxicity. Journal of Cellular Biochemistry, 45, 335-339.
 
26. Hara, A., Hirose, Y., Wang, A., Yoshimi, N., Tanaka, T., & Mori, H., (1996),
Localization of Bax and Bcl-2 proteins, regulators of programmed cell death, in the
human central nervous system. Virchows Archives. 429, 249-53.
27. Hickey, W.F., Hsu, B.L., & Kimura, H., (1991), T-lymphocyte entry into the
central nervous system. Journal of Neuroscience Research, 28, 254-260.
28. Kiessling, L.S., Marcotte, A.C., Culpepper, L., (1994), Antineuronal antibodies:
Tics and Obsessive-compulsive symptoms. Developmental and Behavioral Pediatrics, 15,
421-425.
29. Kinsbourne, M. (1992), Review of Vaccination, social violence, and criminality:
The medical assault on the American brain. Journal of Autism and Developmental
Disorders, 22, 329-30.
30. Kreutzberg, G.W., (1996), Microglia: a sensor for pathological events in the
CNS. Trends in Neurosciences 19, 312-318.
 
31. Lauterbach, E.C., (1995), Bipolar disorders, dystonia, and compulsion after
dysfunction of the cerebellum, detatorubrothalamic tract, and substantia nigra.
Biological Psychiatry, 40, 726-30.
32. Linington, C., Lassmann, H., & Meyermann, R., (1986), Cellular immune
reactivity within the CNS. Trends in Neurosciences, 9, 271-277.
33. Lossinsky, A.S., Badmajew, V., Robson, J.A., Moretz, R.C., & Wisniewski, H.M.,
(1989), Sites of egress of inflammatory cells and horseradish peroxidase transport
across the blood-brain barrier in a murine model of chronic relapsing experimental
allergic encephalomyelitis. Acta Neuropathological, 78, 359-71.
34. Luheshi, G., & Rothwell, N., (1996), Cytokines and fever. International Archives
of Allergy and Immunology, 109, 301-307 [listing IL-1, IL-6, and TNF-alpha as the
primary cytokine pyrogens].
35. Luqman, M., Greenbaum, L., Lu, D., & Bottomly, K., (1992), Differential effect
of interleukin 1 on naive and memory CD4+ T cells. European Journal of Immunology,
22, 95-100.
 
36. Macfarlane, G.T., & Cummings, J.H., (1991), The colonic flora, fermentation, and
large bowel digestive function. In: The Large Intestine: Physiology,
pathophysiology, and disease. Phillips, S.F., Pemberton, J.H., & Shorter, R.G.,
editors; New York: Raven Press, Ltd.
37. Mackay, C.R., (1991), T-cell memory: the connection between function, phenotype
and migration pathways. Immunology Today, 12, 189-192.
38. Mohapatra, S.S., (1994), Determinant spreading: implications in allergic
disorders. Immunology Today, 15, 596-7.
39. Morganti-Kossmann, M.C., Kossmann, T., & Wahl, S.M., (1992), Cytokines and
neuropathology. Trends in Pharmaceutical Sciences, 13, 286-291.
40. Natkunam, Y., Zhang, X., Liu, Z., & Chen-Kiang, S., (1994), Simultaneous
activation of Ig and Oct-2 synthesis and reduction of surface MHC class II
expression by IL-6. Journal of Immunology. 153, 3476-3484.
 
41. Nord, C.E., Heimdahl, A., Kager, L., & Malmborg, A.S., (1984), The impact of
different antimicrobial agents on the normal gastrointestinal microflora of humans.
Reviews of Infectious Diseases, 6, Suppl 1, s270-s276.
42. Owens, T., Renno, T., Taupin, V., & Krakowski, M., (1994), Immunology Today, 15,
566-571.
43. Quagliarello, V.J., Wispelwey, B., Long, Jr., W.J., & Scheld W.M., (1991),
Recombinant human interleukin-1 induces meningitis and blood-brain barrier injury
in the rat: Characterization and comparison with tumor necrosis factor. Journal of
Clinical Investigation, 87, 1360-1366.
44. Raine, C.S., Cannella, B., Duijvestijn, A.M., & Cross, A.H., (1990), Homing to
central nervous system vaculature by antigen-specific lymphocytes. Laboratory
Investigation, 63, 476-489.
45. Rothrock, S.G., Green, S.M., Wren, J., Letai, D., Daniel-Underwood, L., &
Pillar, E., (1992), Pediatric bacterial meningitis: Is prior antibiotic therapy
associated with an altered clinical presentation? Annals of emergency Medicine, 21,
146-152.
 
46. Rothwell, N.J., & Relton, J.K., (1993), Involvement of cytokines in acute
neurodegeneration in the CNS. Neuroscience and Biobehavioral Reviews, 17, 217-227.
47. Saez-Llorens, X., Ramilo, O., Mustafa, M.M., Mertsola, J., & McCracken, G.H.,
(1990), Molecular pathophysiology of bacterial meningitis: Current concepts and
therapeutic implications. The Journal of Pediatrics, 116, 671-684. [an excellent
review].
48. Spranger, M., Schwab, S., Krempien, S., Winterholler, M., Steiner, T., & Hacke,
W., (1996), Excess glutamate levels in the cerebrospinal fluid predict clinical
outcome of bacterial menintisis. Archives of Neurology, 53, 992-996.
49. Swartz, M.N., (1984), Bacterial meningitis: more than just the meninges. New
England Journal of Medicine, 311, 912-913.
50. Swedo, S.E., Leonard, H.L., & Kiessling, L.S., (1994), Speculations on
antineuronal antibody-mediated neuropsychiatric disorders of childhood. Pediatrics,
93, 323-326.
 
51. Thomas, R.J., (1994), Neurotoxicity of antibacterial therapy. Southern Medical
Journal, 87, 869-874.
52. van Rooijen, N., (1989), Are bacterial endotoxins involved in autoimmunity by
CD5+ (Ly-1+) B cells? Immunology Today, 10, 334-336.
53. Vanderlugt CJ & Miller SD (1996). Epitope spreading. Current Opinion in
Immunology 8, 831-836.
54. Wekerle, H., Linington, C., Lassmann, H., & Meyermann, R., (1986), Cellular
immune reactivity within the CNS. Trends in Neurosciences, 9, 271-277.
55. Whetsell, W.O., (1996), Current concepts of excitotoxicity. Journal of
Neuropathology and Experimental Neurology, 55, 1-13.
 
56. Wills, A., & Hovell, C.J., (1996), Neurological complications of enteric
disease. Gut, 39, 501-504.
57. Yamasaki, Y., Matsuura, N., Shozuhara, H., Onodera, H., Itoyama, Y., & Kogure,
K., (1995), Interleukin-1 as a pathogenetic mediator of ischemic brain damage in
rats. Stroke, 26, 676-81.
58. Yee, L.F., & Mulvihill, S.J., (1995), Neuroendocrine disorders of the gut.
Western Journal of Medicine, 163, 454-462.
 
                                  (c) 1997
                            Teresa C. Binstock,
           Researcher in Developmental & Behavioral Neuroanatomy
                                  Denver
 
POSTING HISTORY
 
>>> Posting number 384, dated 3 Jan 1997 21:16:41
Sender:       SJU Autism and Developmental Disablities List
              
From:         Teresa Binstock
Organization: University of Colorado, Health Sciences Center
Subject:      1: INFECTION ANTIBIOTICS VACCINATION NEUROPATHIES: AUTISM, etc.
 
>>> Posting number 383, dated 3 Jan 1997 21:24:58
Sender:       SJU Autism and Developmental Disablities List
              
From:         Teresa Binstock
Subject:      2: INFECTION ANTIBIOTICS VACCINATION NEUROPATHIES: AUTISM, 
 
>>> Posting number 385, dated 3 Jan 1997 21:39:23
Sender:       SJU Autism and Developmental Disablities List
              
From:         Teresa Binstock 
Subject:      3: INFECTION ANTIBIOTICS VACCINATION NEUROPATHIES: AUTISM, 
 
>>> Posting number 386, dated 3 Jan 1997 21:58:52
Sender:       SJU Autism and Developmental Disablities List
              
From:         Teresa Binstock 
Subject:      4a: INFECTION ANTIBIOTICS VACCINATION NEUROPATHIES: AUTISM, 
 
>>> Posting number 387, dated 3 Jan 1997 22:05:37
Sender:       SJU Autism and Developmental Disablities List
              
From:         Teresa Binstock 
Subject:      4b: INFECTION ANTIBIOTICS VACCINATION NEUROPATHIES: AUTISM, 
 
 

return to: Contents

e-mail to: Teresa Binstock


copyright 1997

 ALL INFORMATION, DATA, AND MATERIAL CONTAINED, PRESENTED, OR PROVIDED HERE IS FOR GENERAL INFORMATION PURPOSES ONLY AND IS NOT TO BE CONSTRUED AS REFLECTING THE KNOWLEDGE OR OPINIONS OF THE PUBLISHER, AND IS NOT TO BE CONSTRUED OR INTENDED AS PROVIDING MEDICAL OR LEGAL ADVICE.  THE DECISION WHETHER OR NOT TO VACCINATE IS AN IMPORTANT AND COMPLEX ISSUE AND SHOULD BE MADE BY YOU, AND YOU ALONE, IN CONSULTATION WITH YOUR HEALTH CARE PROVIDER.