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The Journal of Clinical Endocrinology & Metabolism Vol. 88, No. 10 4945-4949
Copyright © 2003 by The Endocrine Society

Intercellular Adhesion Molecule 1 Gene Polymorphisms in Graves’ Disease

Adam Kretowski, Natalia Wawrusiewicz, Katarzyna Mironczuk, Janusz Mysliwiec, Malgorzata Kretowska and Ida Kinalska

Department of Endocrinology, Diabetology and Internal Medicine, Medical University of Bialystok (A.K., N.W., K.M., J.M., I.K.); and Department of Computer Science, Technical University of Bialystok (M.K.), 15-267 Bialystok, Poland

Address all correspondence and requests for reprints to: Dr. Adam Kretowski, Department of Endocrinology, Diabetology, and Internal Medicine, Medical Academy of Bialystok, M. Sklodowska-Curie 24 a, 15-267 Bialystok, Poland. E-mail: akretows{at}amb.ac.bialystok.pl.


   Abstract
Top
 Abstract
Introduction
 Subjects and Methods
 Results
 Discussion
 References
 
It was recently suggested that genetic factors could play a major role in the development of Graves’ disease (GD). The aim of the present study was to evaluate the frequency of the c.721G->A polymorphism and the c.1405A->G polymorphism of the intercellular adhesion molecule 1 (ICAM-1) gene in subjects with GD compared with that in healthy controls, because ICAM-1 was found to play a key role in lymphocyte infiltration into the thyroid gland and the concentration of the soluble form of ICAM-1 correlates significantly with the clinical activity and treatment status in GD. We have analyzed the association of ICAM-1 polymorphisms with the age at onset of GD and the presence of ophthalmopathy. In a group of 235 patients with GD and 211 healthy controls we have shown that polymorphism at position c.721G->A is associated with an earlier age of GD onset and that the c.1405A->G polymorphism of the ICAM-1 gene could predispose to Graves’ ophthalmopathy. This suggests that G241R and K469E amino acid substitutions in the ICAM-1 molecule could influence the intensity/duration of the autoimmunity process and the infiltration of orbital tissues. It could be speculated that therapy that modulates ICAM-1 function may delay the onset and/or prolong the remission and/or have an influence on clinical manifestations of GD.


   Introduction
Top
 Abstract
 Introduction
Subjects and Methods
 Results
 Discussion
 References
 
GRAVES’ DISEASE (GD) is believed to be an autoimmune lymphocyte-mediated disease, and both environmental and genetic factors play a role in its pathogenesis (1, 2). It is now clear that hyperthyroidism in GD is caused by thyroid-stimulating antibodies activating the TSH receptor, but the mechanisms of other components of the disease (ophthalmopathy, dermopathy, or myxoedema) and the reasons for clinical heterogeneity are still not well known (1).

It was recently suggested that genetic factors could play a major role in the development of GD (3, 4). The concordance rate for clinically overt disease for monozygotic twins has been reported to be between 22 and 60% in different studies, and the model-fitting analysis of data from the pooled twin Danish cohorts showed recently that 79% of the liability to the development of GD is attributable to genetic factors (3, 4). There is well-established evidence about the associations of human leukocyte antigen type II class alleles (DR3 and DQA1*0501) and CTLA-4 gene polymorphisms with GD in Caucasians (2, 5, 6, 7). Moreover, genome-wide search has identified other susceptibility loci to GD on chromosomes 14q31, 18q21, 20q11, and Xq21 (8, 9), although the ability to detect genes of modest effect on GD development is limited by classical linkage analysis (10).

In the present study we evaluated the association of GD with two recently described single nucleotide polymorphisms of the intercellular adhesion molecule 1 (ICAM-1) gene, which have been suggested to be associated with other autoimmune diseases (11, 12, 13). Polymorphism G->A at position c.721 in exon 4 of the ICAM-1 gene results in a change from glycine (GGG) to arginine (AGG) at position 241 in the amino acid chain (G241R), but substitution c.1405 A->G in exon 6 results in a change from lysine (AAG) to glutamic acid (GAG) at position 469 in the amino acid chain (K469E).

ICAM-1 is a surface glycoprotein, expressed on vascular endothelium, macrophages, and activated lymphocytes, that belongs to the Ig superfamily and functions as a receptor for leukocyte function-associated antigen 1 (LFA-1) and macrophage differentiation antigen 1 (14, 15). ICAM-1 plays a key role in the process of leukocyte circulation and extravasation from the blood into the areas of inflammation and delivery of costimulatory signals of immunocompetent cells (14, 16).

The ICAM-1 molecule is expressed on activated T, B, dendritic, and endothelial cells in the thyroid of GD patients, and in functional and experimental studies the ICAM-1/LFA-1 pathway was found to play a major role in leukocyte infiltration into thyroid, the development of an autoimmune response, and thyrocyte proliferation in GD (16, 17, 18). There is, however, some controversy as to whether the ICAM-1 molecule is expressed on the thyroid follicular cells derived from patients with GD. In contrast to the studies by Fukazawa et al. (19) and Arreaza et al. (20), who found a high expression of ICAM-1 molecule on thyroid epithelial cells using immunohistochemistry and/or flow cytometry methods, other researchers have failed to detect the ICAM-1 antigen in vivo on thyroid cells in GD (21, 22). On the contrary, it is well documented that patients with untreated GD have a high serum level of a soluble form of ICAM-1 (sICAM-1), and the concentrations of this adhesion molecule correlate with the activity of the disease, probably reflecting an ongoing immune process (23, 24, 25, 26, 27).

We have, therefore, examined the frequency of the known polymorphisms of the ICAM1 gene: the c.721G->A polymorphism in exon 4 and the c.1405A->G polymorphism in exon 6 in subjects with GD compared with that in healthy controls. Moreover, we have evaluated the differences between the frequencies of ICAM-1 gene alleles in patients with GD onset before 40 yr of age (early onset) compared with those in subjects with a later onset of disease. The association between age at onset and different human leukocyte antigen genotypes has been previously reported in patients with GD (28, 29). In addition, distinct ICAM-1 gene allelic associations according to age at onset have been observed in other autoimmune diseases (11). The criteria we used to stratify the patients into those with early and later ages of onset of disease were based on the epidemiological observations of the highest risk of the onset of GD between the ages of 40 and 60 yr (1).

Finally, we examined the association between the studied polymorphisms and Graves’ ophthalmopathy (GO), because a strong immunoreactivity for ICAM-1 was detected in the blood vessels, perimysial fibroblasts surrounding the extraocular muscle fibers, and connective tissue in the retroocular tissues of patients with GO (30). Moreover, serum levels of sICAM-1 are even higher in subjects with GO than in patients without ophthalmopathy and correlate with the severity of eye disease and the treatment/clinical status (23, 31, 32).


   Subjects and Methods
Top
 Abstract
 Introduction
 Subjects and Methods
Results
 Discussion
 References
 
Subjects

The study was carried out in 235 unrelated Polish origin Caucasian patients (female/male ratio, 5.7:1) with GD: 136 subjects with disease onset under 40 yr of age (range, 12–39 yr; mean, 27.6 ± 7.5 yr) and 99 subjects with the onset at 40 yr of age or older (40–77 yr; mean age, 50.4 + 8.8 yr). Patients with GD were sequentially recruited from the endocrinology outpatient clinic from the Bialystok region of Poland between April 2001 and November 2002. GD was diagnosed on the basis of clinical observation (diffuse goiter), biochemical criteria of thyrotoxicosis (TSH < 0.05 and increased free T3 and/or free T4), and the presence of TSH receptor antibodies (TSHR Ab; >2 IU/µl) (33). However, not all patients with GD have positive TSHR Ab (using the newly developed recombinant TSH binding-inhibiting Ig assay, TSH receptor antibodies are detected in ~95% of patients with active GD); therefore, we decided to include in our study only the patients with positive TSHR Ab and avoid an admixture of disseminated thyroid autonomy (34, 35).

Thyroid eye disease was diagnosed by experienced ophthalmologists and was classified using the NOSPECS classification (36). For the statistical analysis, patients with classes 2–6 were considered as having GO.

Two hundred and eleven healthy Caucasian volunteers (female/male ratio, 5.1:1) from the same region of Poland with no family history of GD or other autoimmune diseases served as the control group. Informed consent was obtained from the GD patients and healthy controls, and the study was approved by the ethics committee of the Medical University of Bialystok. TSHR Ab were measured by RIA using TRAK kit (BRAHMS, Berlin, Germany) (34).

Genotype analysis

DNA was extracted from the peripheral blood leukocytes, and polymorphisms at positions c.721 (exon 4) and c.1405 (exon 6) in the ICAM-1 gene were detected by the PCR sequence-specific primers method (37).

For position c.721 in exon 4, two sequence-specific forward primers [5'-GTGGTCTGTTCCCTGGACG-3' (allele c.721 G) and 5'-GTGGTCTGTTCCCTGGACA-3' (allele c.721A)] and for position c.1405 (exon 6) two sequence-specific reverse primers [5'-GCACATTCACGGTCACCTC-3' (allele c.1405G) and 5'-GCACATTCACGGTCACCTT-3' (allele c.1405A)] were used.

For the control PCRs, 5'-ATGATGTTGACCTTTCCAGGG-3' and 5'-TTCTGTAACTTTTCATCAGTTGC-3' primers were used for amplification of the 256-bp fragment from exon 15 of the adenomatous polyposis coli gene.

Each of the four primer mixes contained a combination of one forward primer and one reverse primer for the sequence-specific amplificons and both control primers. Reactions were carried out in a PTC-200 thermal cycler (MJ Research, Cambridge, MA) under the following conditions: 2 min at 96 C; 6 cycles of 30 sec at 96 C, 45 sec at 69 C, and 45 sec at 72 C; 21 cycles of 30 sec at 94 C, 45 sec at 65 C, and 45 sec at 72 C; and 5 cycles of 30 sec at 96 C, 60 sec at 55 C, and 120 sec at 72 C.

The genotypes were determined according to the presence of the specific PCR products of expected length (927 bp) in the presence of the control product after 2% agarose gel electrophoresis, followed by ethidium bromide staining and UV visualization.

To confirm the results of the PCR sequence-specific primers method, appropriate fragments of exons 4 and 6 of the ICAM-1 gene from 50 randomly selected subjects from both of the studied groups were amplified and sequenced on ABI PRISM 310 Genetic Analyzer (PE Applied Biosystems, Foster City, CA) with the following pairs of primers: for exon 4, 5'-GGAACCCATTGCCCGAGC-3' and 5'-GGTGAGGATTGCATTAGGTC-3'; and for exon 6, 5'-GATTGAAGAAGCCAGCAG GG-3' and 5'-GTCGTTGCCATAGGTGACTG-3'. The results of both methods were identical.

The nomenclature for polymorphism description was adopted from Nomenclature Working Group (http://archive.uwcm.ac.uk/uwcm/mg/docs//mut_nom.html).

Statistical analysis

The differences in the distribution of alleles and genotypes between the studied groups were estimated by {chi}2 test for 2 x 2 or 2 x 3 tables (SAS/STAT 6.12, Cary, NC; and Statistica 5.5, StatSoft, Tulsa, OK). Statistical significance was defined as P < 0.05. When necessary, the P value was corrected for the number of variables tested [corrected P (Pc) = P x 14].


   Results
Top
 Abstract
 Introduction
 Subjects and Methods
 Results
Discussion
 References
 
Genotypes and allele frequencies of c.721G->A ICAM-1 gene polymorphism

The frequencies of alleles and the distribution of genotypes of the ICAM-1 gene polymorphism in GD patients and control subjects are presented in Tables 1Go and 2Go, respectively. At position c.721 of the ICAM-1 gene we observed a higher frequency of allele A in patients with GD compared with the healthy controls, but the difference did not reach statistical significance after P value correction for multiple comparison ({chi}2 = 4.76; P = 0.029; Pc = 0.406).


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  		TABLE 1. Frequency of alleles of ICAM-1 gene polymorphisms in GD and controls

 

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  		TABLE 2. Frequency of genotypes of ICAM-1 gene polymorphisms in GD and controls

 
After age at onset stratification, we observed that patients with an earlier (<40 yr of age), but not with a later (>=40 yr of age) onset of the disease had higher frequencies of allele A compared with healthy controls ({chi}2 = 9.22; P = 0.0024; Pc = 0.034).

The differences in genotype distribution between patients with the earlier onset of GD and the control group reflected an increase in c.721GA genotypes and a decrease in c.721GG genotypes ({chi}2 = 12.54; P = 0.002; Pc = 0.028; Table 2Go).

Genotype and allele frequencies of c.1405A->G ICAM-1 gene polymorphism

At position c.1405 of the ICAM-1 gene there were no statistically significant differences in alleles and genotype frequencies between the GD patients and controls (Table 2Go). However, we observed a higher frequency of allele G at position c.1405 in GD patients with a clinical diagnosis of ophthalmopathy compared with subjects without thyroid eye disease ({chi}2 = 9.14; P = 0.0025; Pc = 0.035) and compared with the control group ({chi}2 = 8.87; P = 0.0029; Pc = 0.041). Subjects with thyroid eye disease had a higher frequency of c.1405GG genotypes and a lower frequency of c.1405AA genotypes compared with patients without ophthalmopathy ({chi}2 = 7.84; P = 0.02; Pc = 0.28) and the control group ({chi}2 = 8.26; P = 0.016; Pc = 0.224), but the differences did not reach statistical significance after P value correction for multiple comparison.


   Discussion
Top
 Abstract
 Introduction
 Subjects and Methods
 Results
 Discussion
References
 
To our knowledge this is the first study that suggests an association of the ICAM-1 gene polymorphisms with clinical manifestations of GD. We have shown that a polymorphism at position c.721G-> A in exon 4 is associated with an earlier age of GD onset and that a c.1405A-> G polymorphism in exon 6 of the ICAM-1 gene could predispose to GO.

The results of the present study are in line with previous observations about the role of ICAM-1 polymorphisms in other immune response alterations in humans (12, 37). It has been shown that polymorphisms in the ICAM-1 gene can modulate immune function in several autoimmune diseases, such as multiple sclerosis, type 1 diabetes, or Crohn’s disease (11, 38, 39). A higher frequency of allele A (R241) and genotype c.721GA (241RG) and an association with the clinical manifestation (antibodies status) have been found in patients with ulcerative colitis (13). Moreover, similar to our observations, Nishimura et al. (11) found that a polymorphism in exon 6 of the ICAM-1 gene affects the age at onset of type 1 diabetes. Allele A at position c.721 of the ICAM-1 gene was observed twice as frequently in patients with renal allograft failure as in long-term survivors after renal transplantation (12). The more rapid renal graft failure was associated with the E469 ICAM-1 variant in the recipient (12).

We believe that our present observations are in agreement with previous studies concerning the role of ICAM-1 in the pathogenesis of GD. It has been shown in in vitro experiments that ICAM-1 plays an important role in the process of lymphocyte attachment to cultured Graves’ thyroid cells (17). Inflammatory cells from thyroids of patients with GD express a high quantity of ICAM-1, and thyroid cell proliferation activated by infiltrating lymphocytes could be blocked by ICAM-1 and/or LFA-1 monoclonal antibodies (17, 40). Moreover, anti-TSHR Ab from subjects with GD increase the expression of ICAM-1 on the surface of human thyroid cells, and this mechanism has been suggested to play a main role in promoting lymphocyte recruitment to the thyroid gland (41).

It has been previously suggested that the polymorphism in the ICAM-1-binding site (exon 4) and in the fifth Ig-like domain (exon 6) changes ICAM-1 properties: cell adhesion and the activity of costimulation. Amino acid substitutions in domain III of ICAM-1 were shown to alter binding properties to macrophage differentiation antigen 1 molecule in in vitro studies (14). It is highly probable that a polymorphism in this region can influence ICAM-1 function in vivo. We can only speculate that these changes in ICAM-1 structure and function could influence the clinical manifestations of GD. It is well known that gene polymorphisms in other molecules expressed on immunocompetent cells (human leukocyte antigen and cytolytic T lymphocyte-associated antigen 4) could influence the susceptibility to GD and/or the age of onset of the disease (2, 5, 28).

Patients with active GD have elevated serum concentrations of sICAM-1, which correlate with the activity of the disease, reflecting the ongoing immune processes (23, 25, 31, 42). However, the physiological role of sICAM-1 is not well defined; some studies have suggested that by competition with membrane-binding ICAM-1, the soluble form could regulate the activity of the immune system (43). Rothlein et al. (43) reported that the circulating form of ICAM-1 contains all five extracellular domains of membrane ICAM-1 as well as the ability to bind specifically to LFA-1. It is possible that the studied polymorphisms of the ICAM-1 gene, by changing the structure of the soluble form of ICAM-1, could influence sICAM-1 function and by that mechanism have an impact on the onset of the clinical symptoms and signs of GO.

It is important to mention that the mechanism of inflammatory cell infiltration into the thyroid gland in GD could also comprise the involvement of adhesion molecules other than ICAM-1. Marazuela et al. (44) suggested the important role of ICAM-3 in thyroid autoimmunity, as they observed that most of the intrathyroidal mononuclear cells expressed the ICAM-3 adhesion molecule in patients with GD. However, the ICAM-3 protein structure is 48% identical with ICAM-1; its expression is regulated by another gene (45). No association between the levels of sICAM-1 and sICAM-3 was observed in the sera of patients with GD or other autoimmune diseases (46).

In summary, our study shows that ICAM-1 gene polymorphisms are associated with GO and may influence the age of the onset of GD. It may be suggested that amino acid substitution (G241R and K469E) caused by the observed polymorphisms of the ICAM-1 gene could influence the intensity/duration of the autoimmunity process and the infiltration of extrathyroidal (orbital) tissues, probably as a result of altered interaction between Ig-like domains of ICAM-1 and respective ligands. As it was shown in animal model that transient blockade of the LFA-1/ICAM-1 pathway by adenovirus gene therapy protects autoimmunity development without causing general immunosuppression (16), one could speculate that therapy that modulates ICAM-1 function may delay the onset, prolong the remission, and/or have an influence on the clinical manifestations of GD.


   Footnotes
 
Abbreviations: GD, Graves’ disease; GO, Graves’ ophtalmopathy; ICAM-1, intercellular adhesion molecule 1; LFA-1, leukocyte function-associated antigen 1; Pc, corrected P; sICAM-1, soluble form of ICAM-1; TSHR Ab, TSH receptor antibodies.

Received January 27, 2003.

Accepted June 14, 2003.


   References
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 Abstract
 Introduction
 Subjects and Methods
 Results
 Discussion
 References
 

  1. Weetman A 2000 Grave’s disease. N Engl J Med 343:1236–1248[Free Full Text]
  2. Allahabadia A, Heward JM, Nithiyananthan R, Gibson SM, Reuser TT, Dodson PM, Franklyn JA, Gough SC 2001 MHC class II region, CTLA4 and ophthalmopathy in patients with Graves’ disease. Lancet 358:984–985[CrossRef][Medline]
  3. Brix TH, Kyvik KO, Christensen K, Hegedus L 2001 Evidence for a major role of heredity in Graves’ disease: a population-based study of two Danish twin cohorts. J Clin Endocrinol Metab 86:930–934[Abstract/Free Full Text]
  4. Vaidya B, Kendall-Taylor P, Pearce SHS 2002 The genetics of autoimmune thyroid disease. J Clin Endocrinol Metab 87:5385–5397[Free Full Text]
  5. Heward JM, Allahabadia A, Armitage M, Hattersley A, Dodson PM, Macleod K, Carr-Smith J, Daykin J, Daly A, Sheppard MC, Holder RL, Barnett AH, Franklyn JA, Gough SC 1999 The development of Graves’ disease and the CTLA-4 gene on chromosome 2q33. J Clin Endocrinol Metab 84:2398–2401[Abstract/Free Full Text]
  6. Maciel LMZ, Rodrigues SS, Dibbern RS, Navarro PAA, Donadi EA 2001 Association of the HLA-DRB1*0301 and HLA-DQA1*0501 alleles with Graves’ disease in a population representing the gene contribution from several ethnic backgrounds. Thyroid 11:31–35[CrossRef][Medline]
  7. Heward JM, Allahabadia A, Daykin J, Carr-Smith J, Daly A, Armitage M, Dodson PM, Sheppard MC, Barnett AH, Franklyn JA, Gough SC 1998 Linkage disequilibrium between the human leukocyte antigen class II region of the major histocompatibility complex and Graves’ disease: replication using a population case control and family-based study. J Clin Endocrinol Metab 83:3394–3397[Abstract/Free Full Text]
  8. Tomer Y, Barbesino G, Greenberg DA, Concepcion E, Davies TF 1999 Mapping the major susceptibility loci for familial Graves’ and Hashimoto diseases: evidence for genetic heterogeneity and gene interactions. J Clin Endocrinol Metab 84:4656–4664[Abstract/Free Full Text]
  9. Davies TF 1998 Autoimmune thyroid disease genes come in many styles and colors. J Clin Endocrinol Metab 83:3391–3393[Free Full Text]
  10. Risch N, Merikangas K 1966 The future of genetic studies of complex diseases. Science 273:1516–1517
  11. Nishimura M, Obayashi H, Maruya E, Ohta M, Tegoshi H, Fukui M, Hasegawa G, Shigeta H, Kitagawa Y, Nakano K, Saji H, Nakamura N 2000 Association between type 1 diabetes age-at-onset and intercellular adhesion molecule-1 (ICAM-1) gene polymorphism. Hum Immunol 61:507–510[CrossRef][Medline]
  12. MacLaren AJ, Marshall SE, Haldar NA, Mullighan CG, Fuggle SV, Morris PJ, Welsh KI 1999 Adhesion molecule polymorphisms in chronic renal allograft failure. Kidney Int 55:1977–1982[CrossRef][Medline]
  13. Yang H, Vora DK, Targan SR, Toyoda H, Beaudet AL, Rotter JI 1995 Intercellular adhesion molecule 1 gene associations with immunologic subsets of inflammatory bowel disease. Gastroenterology 109:440–448[CrossRef][Medline]
  14. Diamond M, Staunton D, Marlin S, Springer T 1991 Binding of the integrin Mac-1 (CD11b/CD18) to the third immunoglobulin-like domain of ICAM-1 (CD54) and its regulation by glycosylation. Cell 65:961–971[CrossRef][Medline]
  15. Salmaso C, Olive D, Pesce G, Bagnasco M 2002 Costimulatory molecules and autoimmune thyroid diseases. Autoimmunity 35:159–167[Medline]
  16. Bertry-Coussot L, Lucas B, Danel C, Halbwashs-Mercarelli L, Bach JF, Chatenoud L, Lemarchand P 2002 Long-term reversal of established autoimmunity upon transient blockade of LFA-1/intercellular adhesion molecule-1 pathway. J Immmunol 168:3641–3648[Abstract/Free Full Text]
  17. Arao T, Morimoto I, Kakinuma A, Ishida O, Zeki K, Tanaka Y, Ishikawa N, Ito K, Ito K, Eto S 2000 Thyrocyte proliferation by cellular adhesion to infiltrating lymphocytes through ICAM-1/LFA-1 pathway in Graves disease. J Clin Endocrinol Metab 85:382–389[Abstract/Free Full Text]
  18. Ishikawa N, Eguchi K, Ueki Y, Nakashima M, Shimada H, Ito K, Nagataki S 1993 Expression of adhesion molecules on infiltrating T cells in thyroid glands from patients with Graves’ disease. Clin Exp Immunol 94:363–370[Medline]
  19. Fukazawa H, Yoshida K, Ichinohasama R, Sawai T, Hiromatsu Y, Mori K, Kikuchi K, Aizawa Y, Abe K, Wall JR 1993 Expression of Hermes-1 (CD44) and ICAM-1 (CD54) molecule on the surface of thyroid cells from patients with Graves’ disease. Thyroid 3:285–289[Medline]
  20. Arreaza G, Yoshikawa N, Mukuta T, Resetkova E, Barsuk A, Nishikawa M, Muallim C, Miller N, Jameson C, Volpe R 1995 Expression of intercellular adhesion molecule 1 on human thyroid cells from patients with autoimmune thyroid disease: study of thyroid xenografts in nude and severe combined immunodeficient mice and treatment with FK-506. J Clin Endocrinol Metab 80:3724–3731[Abstract]
  21. Ciampolillo A, Napolitano G, Mirakian R, Miyasaki A, Giorgino R, Botazzo GF 1993 Intercellular adhesion molecule-1 (ICAM-1) in Graves’ disease: contrast between in vivo and in vitro results. Clin Exp Immunol 94:478–485[Medline]
  22. Pesce G, Fiorino N, Riccio AM, Montagna P, Torre G, Salmaso C, Altrinrtti V, Bagnasco M 2002 Different intrathyroid expression of intercellular adhesion molecule-1 (ICAM-1) in Hashimoto’s thyroiditis and Graves’ disease: analysis at mRNA levels and associations with B7.1 costimulatory molecule. J Endocrinol Invest 25:289–295[Medline]
  23. Mysliwiec J, Kretowski A, Szelachowska M, Topolska J, Mikita A, Kinalska I 2001 Serum L-selectin and ICAM-1 in patients with Graves’ ophthalmopathy during treatment with corticosteroids. Immunol Lett 33:123–126
  24. Wenisch C, Myskiw D, Gessl A, Graninger W 1995 Circulating selectins, intercellular adhesion molecule-1 and vascular cell adhesion molecule-1 in hyperthyroidism. J Clin Endocrinol Metab 80:2122–2126[Abstract]
  25. Sonnet E, Massart C, Gibassier J, Allannic H, Maugendre D 1999 Longitudinal study of soluble intercellular adhesion molecule-1 (ICAM-1) in sera of patients with Graves’ disease. J Endocrinol Invest 22:430–435[Medline]
  26. Fukazawa H, Yoshida K, Kaise N, Kiso Y, Sayama N, Mori K, Kikuchi K, Aizawa Y, Rikimaru A, Abe K 1995 Intercellular adhesion molecule-1 (ICAM-1) in the sera of patients with Graves’ disease: correlation with disease activity and treatment status. Thyroid 5:373–377[Medline]
  27. Balazs C, Kiss E 1994 Soluble intercellular adhesion molecule-1 in Graves’ disease. Acta Microbiol Immunol Hung 41:451–456[Medline]
  28. Chen QY, Huang W, She JX, Baxter F, Volpe R, Maclaren NK 1998 HLA-DRB1*08, DRB1*03/DRB3*0101, and DRB3*0202 are susceptibility genes for Graves’ disease in North American Caucasians, whereas DRB1*07 is protective. J Clin Endocrinol Metab 84:3182–3186
  29. Onuma H, Ota M, Sugenoya A, Inoko H 1994 Association of HLA-DPB10501 with early-onset Graves’ disease in Japanese. Hum Immunol 39:195–201[CrossRef][Medline]
  30. Heufelder AE, Bahn RS 1993 Elevated expression in situ of selectin and immunoglobulin superfamily type adhesion molecules in retroocular connective tissue from Graves’ ophthalmopathy. Clin Exp Immunol 91:381–389[Medline]
  31. Fukazawa H, Yoshida K, Kaise N, Kiso Y, Sayama N, Mori K, Kikuchi K, Aizawa Y, Rikimaru A, Abe K 1995 Intercellular adhesion molecule-1 (ICAM-1) in the sera of patients with Graves’ disease: correlation with disease activity and treatment status. Thyroid 5:373–377
  32. De Bellis A, Di Martino S, Fiordelisi F, Muccitelli VI, Sinisi AA, Abbate GF, Gargano D, Bellastella A, Bizzarro A 1998 Soluble adhesion molecule-1 (sICAM-1) concentrations in Graves’ disease patients followed up for development of ophthalmopathy. J Clin Endocrinol Metab 83:1222–1225[Abstract/Free Full Text]
  33. Meller J, Jauho A, Hufner M, Gratz S, Becker W 2000 Disseminated thyroid autonomy or Graves’ disease reevaluation by second generation TSH receptor antibody assay. Thyroid 10:1073–1079[Medline]
  34. Schott M, Feldkamp J, Bathan C, Fritzen R, Scherbaum WA, Seissler J 2000 Detecting TSH-receptor antibodies with the recombinant TBII assay: technical and clinical evaluation. Horm Metab Res 32:429–435[Medline]
  35. Meller J, Jauho A, Hufner M, Gratz S, Becker W 2000 Disseminated thyroid autonomy or Graves’ disease reevaluation by second generation TSH receptor antibody assay. Thyroid 10:1073–1079
  36. Werner SC 1977 Modification of the classification of the eye changes of Graves’ disease: recommendations of ad hoc committee of American Thyroid Association. J Clin Endocrinol Metab 44:203–204[Medline]
  37. Borozdenkova S, Smith J, Marshall S, Yacoub M, Rose M 2001 Identification of ICAM-1 polymorphism that is associated with protection from transplant associated vasculopathy after cardiac transplantation. Hum Immunol 62: 247–255
  38. Killestein J, Schrijver HM, Crusius JBA, Perez C, Uitdehaag BM, Pena AS, Polman CH 2000 Intercellular adhesion molecule-1 polymorphisms and genetic susceptibility to multiple sclerosis: additional data and meta-analysis. Ann Neurol 47:277–278[Medline]
  39. Braun C, Zahn R, Martin K, Albert E, Folwaczny C 2001 Polymorphisms of the ICAM-1 gene are associated with inflammatory bowel disease, regardless the p-ANCA status. Clin Immunol 101:357–360[CrossRef][Medline]
  40. Bagnasco M, Giampaola P, Pesce BS, Caretto A, Paolieri F, Pronzato C, Villagio B, Giordano C, Betterle C, Canonica GW 1995 Follicular thyroid cells of autoimmune thyroiditis may coexpress ICAM-1 (CD54) and its natural ligand LFA-1 (CD11a/CD18). J Allergy Clin Immunol 95:1036–1043[CrossRef][Medline]
  41. Hoermann R, Spitzweg C, Poertl S, Mann K, Heufelder AE, Scumm-Draeger PM 1997 Regulation of Intercellular Adhesion Molecule-1 expression in human thyroid cells in vitro and human thyroid tissue transplanted to the nude mouse in vivo: role of Graves’ immunoglobulins and human thyrotropin receptor. J Clin Endocrinol Metab 82:2048–2055[Abstract/Free Full Text]
  42. Wakelkamp IM, Gerding MN, van der Meer JW, Prummel MF, Wiersinga WM 2002 Smoking and disease severity are independent determinants of serum adhesion molecule levels in Graves’ ophthalmopathy. Clin Exp Immunol 127:316–320[CrossRef][Medline]
  43. Rothlein R, Mainolfi EA, Czajkowski M, Marlin SD 1991 A form of circulating ICAM-1 in human serum. J Immunol 147:3788–3793[Abstract]
  44. Marazuela M, Postigo AA, Acevedo A, Diaz-Gonzales F, Sanchez-Madrid F, de Landazuri MO 1994 Adhesion molecules from the LFA-1/ICAM1, 3 and VLA/VCAM-1 pathways on T lymphocytes and vascular endothelium in Graves and Hashimoto’s thyroid glands. Eur J Immunol 10:2483–2490
  45. Bossy D, Mattei MG, Simmons DL 1994 The human intercellular adhesion molecule 3 (ICAM-3) gene is located in the 19p13.2-p13.3 region, close to the ICAM-1 gene. Genomics 23:712–713[CrossRef][Medline]
  46. Martin S, Rieckmann P, Melchers I, Wagner R, Bertrams J, Voskuyl AE, Roep BO, Zielasek J, Heidenthal E, Weichselbraum I, Gallatin WM, Kolb H 1995 Circulating forms of ICAM-3. Elevated levels in autoimmune disease and lack association with cICAM-1. J Immunol 154:1951–1955[Abstract]



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