Journal Information
Vol. 97. Issue 3.
Pages 298-306 (01 May 2022)
Vol. 97. Issue 3.
Pages 298-306 (01 May 2022)
Original Article
Open Access
Influence of the presence of mannose-binding lectin polymorphisms on the occurrence of leishmaniasis: a systematic review and meta-analysis
Wonei de Seixas Vitala,
Corresponding author

Corresponding author.
, Felipe Jules de Araújo Santosb, Maurício Leandro Fernandes Gonçalvesc, Claudia Dantas Comandolli Wyrepkowskid, Rajendranath Ramasawmyb, Silvania da Conceição Furtadoe
a Pontifícia Universidade Católica do Paraná, Curitiba, PR, Brazil
b Fundação de Medicina Tropical Dr. Heitor Vieira Dourado, Manaus, AM, Brazil
c Universidade Estácio de Sá, Manaus, AM, Brazil
d Instituto Nacional de Pesquisas da Amazônia, Manaus, AM, Brazil
e Department of Morphology, Universidade Federal do Amazonas, Manaus, AM, Brazil
Article information
Full Text
Download PDF
Figures (2)
Tables (3)
Table 1. Newcastle-Ottawa scale of included studies.
Table 2. Leishmaniasis. Characteristics of the studies included in the systematic review.
Table 3. Allelic genetic model adopted in the meta-analysis to evaluate the association of MBL2 gene polymorphisms and leishmaniasis.
Show moreShow less

Leishmaniasis is caused by an intracellular protozoan of the Leishmania genus. Mannose-binding lectin (MBL) is a serum complement protein and recognizes lipoprotein antigens in protozoa and the bacterial plasma membrane. Nucleotide variants in the promoter region and exon 1 of the MBL gene can influence its expression or change its molecular structure.


To evaluate, through a systematic review, case-control studies of the genetic association of variants in the MBL2 gene and the risk of developing leishmaniasis.


This review carried out a search in PubMed, Science Direct, Cochrane Library, Scopus and Lilacs databases for case-control publications with six polymorphisms in the mannose-binding Lectin gene. The following strategy was used: P = Patients at risk of leishmaniasis; I = Presence of polymorphisms; C = Absence of polymorphisms; O = Occurrence of leishmaniasis. Four case/control studies consisting of 791 patients with leishmaniasis and 967 healthy subjects (Control) are included in this meta-analysis. The association of variants in the mannose-binding Lectin gene and leishmaniasis under the allelic genetic model, -550 (Hvs. L), -221 (X vs. Y), +4 (Q vs. P), CD52 (A vs. D), CD54 (A vs. B), CD57 (A vs. C) and A/O genotype (A vs. O) was evaluated. International Prospective Register of Systematic Reviews (PROSPERO): CRD42020201755.


The meta-analysis results for any allelic genetic model showed no significant association for the variants within the promoter, the untranslated region, and exon 1, as well as for the wild-type A allele and mutant allele O with leishmaniasis.

Study limitations

Caution should be exercised when interpreting these results, as they are based on a few studies, which show divergent results when analyzed separately.


This meta-analysis showed a non-significant association between the rs11003125, rs7096206, rs7095891, rs5030737, rs1800450, and rs1800451 polymorphisms of the Mannose-binding Lectin gene and leishmaniasis in any allelic and heterogeneous evaluation.

Mannose-binding lectin
Polymorphism, genetic
Full Text

Leishmaniasis, a disease spread through bites by infected Phlebotomine sandflies of the genus Phlebotomus, is caused by intracellular parasitic protozoa belonging to the Leishmania genus.1,2 Leishmaniasis exhibits a variety of clinical characteristics, and is classified as cutaneous leishmaniasis (CL), mucocutaneous leishmaniasis (ML), and visceral leishmaniasis (VL).2 Twelve million people in 98 countries have leishmaniasis. Approximately 1.5–2.0 million and 500,000 new cases of CL and VL, respectively, are detected annually, and the disease causes about 40,000 deaths a year.3 Leishmaniasis is influenced by several factors such as the host genetic origin, nutritional aspects, Leishmania spp., environmental and the immunological aspects.4 A recent study reported that genetic variations in the host might play a key role in the susceptibility to leishmaniasis.5 Many genes have been investigated, showing a strong relationship between single nucleotide polymorphisms (SNPs) and the risk of developing leishmaniasis, including IFN-G (interferon-gamma)6 and IL-6 (interleukin-6).7

Mannose-binding lectin (MBL) is a pathogen recognition receptor (PRR) and plays a critical role in host immunity. MBL leads to the activation of the complement system.8,9 This oligomeric protein consists of structural subunits formed by three identical 32 kD (kilodaltons) polypeptides, each containing a cross-link with the N-terminal region of cysteine, collagen linked to the neck region, and a region of the C-terminal domain that recognizes carbohydrates in microorganisms.10

Across multiple lectin domains, carbohydrates such as mannose (six-carbon carbohydrates) are found on the surface of several pathogens, including Trypanosoma cruzi,11Plasmodium falciparum,12 and Mycobacterium tuberculosis.13 After the recognition of these molecules by lectin, serine proteases are activated to facilitate opsonization (phagocytosis) by macrophages and lysis of the microorganism surface. 14 The infectious form of Leishmania (promastigote) is characterized by the presence of lipophosphoglycans (LPG) and other molecules such as mannose.15,16 These components act as pathogen-associated molecular patterns (PAMPs) that are recognized by complement components.17,18

The MBL2 gene is located on chromosome 10 (10q11.2-q21).19 Several SNPs have been identified in this gene, which are known for their functional effect on the development of infectious diseases.20–22 Functional SNPs, located in the promoter region, such as the -550 H/L SNP (G > C substitution, rs11003125), -221 X/Y (C > G substitution, rs7096206) and +4 Q/P (C > T substitution, rs7095891) located in the untranslated region, can regulate the transcription rate of the gene. 23 In the first exon, there are three SNPs located at codon 52 CGT > TGT (rs5030737), codon 54 GGC > GAC (rs1800450) and codon 57 GGA > GAA (rs1800451), corresponding to amino acid changes of arginine to cysteine ​​(Arg52Cys, allele D), glycine to aspartic acid (Gly54Asp, allele B) and glycine to glutamic acid (Gly57Glu, allele C) in the collagen region of the polypeptide chain, respectively.24 These three polymorphisms form the AO system, in which the wild-type allele is described as the A allele and the O allele as a mutant. The A/O genotype is correlated with low levels of the protein and is undetectable for the O/O genotype.25

Conflicting results are observed between the MBL2 gene variants and susceptibility to leishmaniasis. Variants featuring high levels of the protein have been associated with susceptibility to VL in Africa,26 northeastern Brazil,27 and India.28 However, a study performed in individuals with CL in northern Amazonas, Brazil, showed that all polymorphisms related to low levels of MBL had a strong association with susceptibility.29

Some studies have been conducted previously to assess the effects of the MBL2 gene polymorphisms on the evolution of the infection in leishmaniasis, with contradictory results due to the small sample size, which lacks adequate power to detect the effects of MBL2 gene polymorphisms on leishmaniasis.

To date, no systematic review has been performed on MBL2 gene variants and leishmaniasis. The use of a meta-analysis as a statistical tool to explore risk factors associated with different genetic diseases can provide a reliable conclusion. This systematic review included case-control studies of the genetic association of variants (rs11003125, rs7096206, rs7095891, rs5030737, rs1800450, and rs1800451) in the MBL2 gene and the risk of developing leishmaniasis. This systematic review is in the International Prospective Register of Systematic Reviews (PROSPERO): CRD42020201755.

Materials and methodsDatabase search

This systematic review was carried out in accordance with the recommendations of the PRISMA (Preferred Reporting Items for Systematic Reviews and Meta-Analyses) protocol. 30 The PubMed, Science Direct, Cochrane Library, Scopus, and Lilacs databases were searched up to December 2019 by three independent reviewers, with no language or time restrictions.

The following strategy was used: P = Patients at risk for leishmaniasis; I = Presence of polymorphisms; C = Absence of polymorphisms; O = Occurrence of leishmaniasis. The following terms were used in the search: (“Leishmaniasis ”OR “Cutaneous Leishmaniasis” OR “Visceral Leishmaniasis “OR “Leishmania Infection” OR “Leishmania Infections”) AND (“Mannose-binding Lectin” OR “Mannose-binding Lectin 2” OR “MBL” OR “MBL2”) AND (“Polymorphism” OR “Polymorphisms” OR “Single Nucleotide Polymorphism” OR “Single Nucleotide Polymorphisms”). The references cited in eligible articles were manually searched to identify additional publications. Ethical approval and informed consent were not required as this study was based on previously published studies, and there was no direct patient contact or influence on patient care.

Study selection

Two researchers independently evaluated all search results. The inclusion criteria were as follows: 1) Case-control study, 2) rs11003125 (-550), rs7096206 (-221), rs7095891 (+4), rs5030737 (Codon 52), rs1800450 (CD54) and rs1800451 (CD57) polymorphisms, 3) Studies with sufficiently available genotyping data to calculate the Odds Ratios (OR) with 95% Confidence Intervals (95% CI) and 4) the Hardy-Weinberg Equilibrium (HWE). The exclusion criteria were: 1) Non-case-control study, 2) Case reports, 3) Reviews, 4) Animal studies, 5) Editorials, 6) Studies with no available data, 7) Studies with meta-analysis, 8) Other polymorphisms and 9) Duplicate data. Subsequently, all selected articles were verified by a third researcher, who resolved the divergences.

Data extraction

Two researchers independently extracted the following data from the included studies: year of publication, first author, study region, ethnic group, clinical form, number of samples, age, and studied SNPs. Disagreements between the researchers were discussed and resolved by consulting a third researcher.

Quality score evaluation

The Newcastle-Ottawa scale (Table 1) was used to assess the quality of the eligible studies. Using this system, each included study was submitted to three judgments: 1) Selection of study groups; 2) Comparability of the groups and 3) Outcome of interest (Case-Control). Three researchers independently calculated the score for each publication. The scores ranged from 0 to 9. Studies with a score > 6 were considered of high quality, while those with a score < 6 were listed as of low quality. Disagreements between the researchers were discussed in the group and resolved by consensus.

Table 1.

Newcastle-Ottawa scale of included studies.

Study  SelectionComparabilityOutcome
  Representativeness  Selection of the non-exposed cohort  Investigation  Final score not present at the start  Comparability (confounding)  Evaluation of outcomes  Duration/Screening  Monitoring of adequacy  Total 
Felipe FJ  ** 
Salsabil H  ** 
Alonso DP 
Anshuman M 

Each item was graded with a maximum score of one point (one *), with the exception of comparability, which allowed for two points.

Statistical analysis

The meta-analysis evaluated the association of the MBL2 gene and leishmaniasis under the allelic genetic model, -550 (H vs. L), -221 (X vs. Y), +4 (Q vs. P), CD52 (A vs. D), CD54 (A vs. B), CD57 (A vs. C) and the A/O genotype (A vs. O). I2 was used to assess the heterogeneity between studies, where the values ​​25%, 50% and 75% corresponded to low, moderate, and high heterogeneity, respectively. The fixed model was used when I2 < 50%, and the random model was used when I2 > 50%. Pooled ORs were calculated using the Mantel-Haenszel method, and the statistical significance of OR was determined using Z statistics. In both models, p = 0.005 was considered statistically significant. The RStudio software (, version 1.3.1 for Windows was used for the statistical analysis of the study. Packages (“tidyverse”), (“meta”), (“metafor”).

ResultsCharacteristics of the included studies

A total of 389 published articles were identified using scientific literature databases (Fig. 1). Among the selected articles, 35 were removed due to duplication, 349 articles were excluded for not meeting the inclusion criteria. Finally, only four articles,26–29 that met the mandatory criteria, were included in the meta-analysis. These studies were published in English between the years 2007 and 2015 (Table 2).

Fig. 1.

Flowchart of the literature review process according to the PRISMA protocol.

Table 2.

Leishmaniasis. Characteristics of the studies included in the systematic review.

Year  Study  Country/Region  Ethnic group  Clinical forms  Case Control samplesAge, mean years ± SD or mean (range) Case ControlSNPs 
2007  Alonso DP  Brazil/Northeast  Mixed  VL  61  231  6 months to 73 years  6 months to 73 years  rs11003125, rs7096206, rs5030737, rs1800450, rs1800451 
2015De Araújo FJBrazil/ NorthMixedCL400382311 men (32 ± 15.5 years)  225 men (38 ± 17.6 years)  rs11003125, rs7096206, rs7095891, rs5030737, rs1800450, rs1800451
89 women (32 ± 13.7)  157 women (34 ± 17.5) 
2013  Salsabil H  Morocco/North  African  VL  112  139  7 ± 12 years  8.5 ± 12 years  rs7096206, rs1800450, rs1800451 
2015  Anshuman M  India  NR  VL  218  215  28,7 ± 16.7 years  35.3 ± 16.2 years  rs7095891 

NR, Not Reported.

One study was conducted on African children.26 Two other studies were carried out in mixed populations from the northeastern region of Brazil, consisting of 21% European, 31% African, and 48% Native American descendants,27 and from the northern region of Brazil (state of Amazonas), with a mixed population of 10% African, 40% European, and 50% Native American descendants.29 The fourth study was conducted in India but did not specify the ethnicity of the studied subjects.28 Three studies analyzed patients with VL,26–28 and one analyzed patients with CL.29 The identified Leishmania spp were: L. chagasi,27L. infantum,26L. guyanensis29 and L. donovani.28 One study analyzed all polymorphisms targeted by this meta-analysis,29 while another analyzed only five SNPs (rs11003125, rs7096206, rs5030737, rs1800450 e rs1800451).27 One study analyzed three SNPs (rs7096206, rs1800450, and rs1800451),26 and the remaining study analyzed only one SNP (rs7095891).28 Two studies provided sufficient data to perform the A/O system analysis.27,29 A total of 1758 individuals participated in these studies (791 patients and 967 controls). According to the Newcastle-Ottawa scale, two studies scored 9 points, and two scored 8 points (Table 1). The frequency of genotypes and alleles are organized in Table 3.

Table 3.

Allelic genetic model adopted in the meta-analysis to evaluate the association of MBL2 gene polymorphisms and leishmaniasis.

Study  Year  Total sampleCaseControl
-550    Cases  Control  HH  HL  LL  H  L  HH  HL  LL  H  L 
Alonso DP  2007  60  226  4 (7)  29 (48)  27 (45)  37 (31)  83 (69)  25 (11)  99 (44)  102 (45)  149 (33)  303 (67) 
de Araújo FJ  2015  365  332  49 (13)  167 (46)  149 (41)  265 (36)  465 (64)  53 (16)  147 (44)  132 (40)  253 (38)  411 (62) 
-221        XX  XY  YY  X  Y  XX  XY  YY  X  Y 
Alonso DP  2007  60  226  0 (0)  14 (23)  46 (77)  14 (12)  106 (88)  4 (2)  64 (28)  158 (70)  72 (16)  380 (84) 
Salsabiln H  2013  112  139  15 (13)  39 (34)  58 (52)  69 (31)  155 (69)  20 (14)  71 (51)  48 (35)  111 (40)  167 (60) 
de Araújo FJ  2015  365  332  30 (08)  125 (34)  210 (58)  185 (25)  545 (75)  12 (4)  77 (23)  243 (73)  101 (15)  563 (85) 
+4        QQ  QP  PP  Q  P  QQ  QP  PP  Q  P 
de Araújo FJ  2015  365  332  17 (5)  95 (26)  253 (69)  129 (18)  601 (82)  9 (3)  94 (28)  229 (69)  111 (17)  551 (83) 
Anshuman M  2015  218  215  12 (6)  72 (33)  134 (61)  96 (22)  340 (78)  22 (10)  83 (39)  110 (51)  127 (29)  303 (71) 
CD52        AA  AD  DD  A  D  AA  AD  DD  A  D 
Alonso DP  2007  61  231  58 (95)  3 (5)  0 (0)  119 (98)  3 (2)  218 (94)  12 (5.1)  1 (0.9)  448 (97)  14 (3) 
de Araújo FJ  2015  366  332  342 (93)  22 (6)  2 (1)  706 (96)  26 (04)  306 (92)  26 (8)  0 (0)  638 (96)  26 (4) 
CD54        AA  AB  BB  A  B  AA  AB  BB  A  B 
Alonso DP  2007  61  231  41 (67)  19 (31)  1 (2)  101 (83)  21 (17)  117 (51)  96 (41)  18 (8)  330 (71)  132 (29) 
Salsabiln H  2013  104  133  71 (68)  27 (26)  6 (6)  169 (81)  39 (19)  96 (72)  32 (24)  5 (4)  224 (84)  42 (16) 
de Araújo FJ  2015  366  332  215 (59)  121 (33)  30 (8)  551 (75)  181 (25)  211 (63)  105 (32)  16 (5)  527 (79)  137 (21) 
CD57        AA  AC  CC  A  C  AA  AC  CC  A  C 
Alonso DP  2007  61  231  55 (90)  6 (10)  0 (0)  116 (95)  6 (5)  202 (87)  28 (12)  1 (1)  432 (94)  30 (6) 
Salsabiln H  2013  104  133  88 (85)  15 (14)  1 (1)  176 (91)  17 (9)  111 (83)  18 (14)  4 (3)  240 (90)  26 (10) 
de Araújo FJ  2015  365  332  255 (70)  91 (25)  19 (5)  601 (82)  129 (18)  270 (81)  57 (17)  5 (2)  597 (90)  67 (10) 
A/O        AA  AO  OO  A  O  AA  AO  OO  A  O 
Alonso DP  2007  61  231  36 (59)  20 (33)  5 (8)  92 (75)  30 (25)  95 (41)  103 (45)  33 (14)  293 (63)  169 (37) 
de Araújo FJ  2015  365  332  126 (35)  155 (42)  84 (23)  407 (56)  323 (44)  153 (46)  133 (40)  46 (14)  439 (66)  225 (34) 

The results of the meta-analysis are shown in Fig. 2. None of the analyses for any allele genetic model for the two variants (-550 and -221) in the promoter and the +4 variants in the untranslated regions showed any association with susceptibility or resistance to Leishmaniasis (−550H Allele: OR = 0.92; 95% CI = 0.76–1.12; p = 0.93; I2 = 0% and −550 L allele: OR = 1.08; 95% CI = 0.89–1.32; p = 0.93; I2 = 0%), -221X allele: OR = 0.98; 95% CI = 0.45–2.13; p = 0.01; I2 = 91% and -221Y allele: OR = 1.02; 95% CI = 0.47–2.22; p = 0.01; I2 = 91%) and Q + 4 allele: OR = 0.85; 95% CI = 0.54–1.33; p = 0.03; I2 = 79% and P allele: OR = 1.17; 95% CI = 0.75–1.84; p = 0.03; I2 = 79%). Similar results were obtained for variants located on exon 1 CD52 (allele A of the allele: OR = 1.13; 95% CI = 0.68–1.87; p = 0.87; I2 = 0% and allele D of the allele: OR = 0.89; 95% CI = 0.53–1.47; p = 0.87; I2 = 0%), CD54 (allele A: OR = 1.04; 95% CI = 0.62–1.75; p = 0.01; I2 = 79% and allele B: OR = 0.96; 95% CI = 0.57–1.61; p = 0.01; I2 = 79%) and CD57 ( allele A: OR = 0.85; 95% CI = 0.44–1.62; p = 0.03; I2 = 72% and allele C: OR = 1.18; 95% CI = 0.62–2.26; p = 0.03; I2 = 72%). The presence of the wild-type A allele (A allele: OR = 1.05; 95% CI = 0.39–2.81; p = 0.01; I2 = 94%) and the mutant O allele (O allele: OR = 0.95; 95% CI = 0.36–2.56; p = 0.01; I2 = 94%) were also not associated with susceptibility or resistance.

Fig. 2.

Forest plot of the meta-analysis of the comparison between mutant alleles versus wild-type alleles of the SNPs.


MBL recognizes the presence of mannose on the surface of pathogens to promote opsonization and activation of the complement system.31 MBL plays a key role in the innate immune response,32 highlighting its serum concentration as a requirement for predisposition to the development of human infectious diseases.33,34 MBL2 gene variants have been associated with an increased risk of infections caused by protozoa.35,36 However, few studies have investigated genetic variants in the MBL2 gene in Leishmaniasis.26–29 Three studies have suggested that variants correlated with low circulating levels of MBL are protective for VL,26,28 while one study showed susceptibility to CL.29

The conflicting results generated by most studies had weak statistical power due to the small sample size included. To clarify conflicting results in genetic association studies, a meta-analysis offers a powerful method to synthesize data obtained from independent studies.37 To address the limitations of case-control studies, the present meta-analysis was performed to provide statistical evidence of the association between MBL2 gene polymorphisms and susceptibility to leishmaniasis with clustered ORs. To date, this is the first meta-analysis to address the association between the described polymorphisms and leishmaniasis. Previous meta-analyses have suggested an association of polymorphisms in the IL2RA (Interleukin 2 Receptor alpha)38 and SLC11A1 (solute carrier family 11 member 1)39 genes with the clinical aspects of leishmaniasis.

In the present study, data from four studies were analyzed according to the low- and high- MBL producing alleles. However, the meta-analysis analyses showed no association between MBL2 gene alleles and susceptibility to leishmaniasis (Fig. 2). High heterogenicity was observed for the variants: -550 H/L (91%), +4 Q/P (79%), CD54 A/B (79%), CD57 A/C (72%) and A/O (94%). This can be explained mainly by the ethnic miscegenation of the individuals included in the selected studies. Three studies investigated patients with VL,26–28 and one patient was investigated with CL.29 In each study, the species of the etiologic agent were different. It is important to note that the heterogeneity value influences the adequate statistical model. Studies with small sample sizes can show unreliable results. As a consequence, the random model must always be applied.40 Among the selected studies, one analyzed all six target polymorphisms, the diplotypes, and also the haplotypes,29 with high sample size.

However, caution should be exercised when interpreting these results, as they are based on a few studies, which show divergent results when analyzed separately. Therefore, further studies are needed to confirm whether the variants that determine low serum levels are susceptible or protective. The great importance of the association study involving genetic markers in leishmaniasis is emphasized, aiming at a new understandings of the molecular mechanisms of the disease. The variants can be used as molecular markers of the individual predisposition to certain types of diseases or as therapeutic targets in the development of new drugs.


Overall, this meta-analysis showed no significant association between polymorphisms rs11003125, rs7096206, rs7095891, rs5030737, rs1800450, and rs1800451 of the MBL2 gene and leishmaniasis.

Financial support

None declared.

Conflicts of interest

None declared.

Authors' contributions

Wonei de Seixas Vital: Conceptualization, Formal analysis, Methodology, Supervision, Validation, Writing – review & editing.

Felipe Jules de Araújo Santos: Conceptualization, Formal analysis, Methodology, Supervision, Validation, Writing – review & editing.

Maurício Leandro Fernandes Gonçalves: Data curation, Formal analysis, Methodology, Writing – original draft.

Claudia Dantas Comandolli Wyrepkowski: Data curation, Formal analysis, Methodology.

Rajendranath Ramasawmy: Data curation, Formal analysis, Methodology, Writing – review & editing.

Silvania da Conceição Furtado: Conceptualization, Formal analysis, Methodology, Supervision, Validation, Writing – review & editing.

E. Torres-Guerrero, M.R. Quintanilla-Cedillo, J. Ruiz-Esmenjaud, R. Arenas.
Leishmaniose: a review.
Review, 6 (2017), pp. 750
A. Oryan, M. Akbari.
Worldwide risk factors in leishmaniasis.
Asian Pacific Journal of Tropical Medicine, 9 (2016), pp. 925-932
J. Alvar, I.D. Vélez, C. Bern, M. Herrero, P. Desjeux, J. Cano, et al.
Leishmaniasis worldwide and global estimates of its incidence.
S. Burza, S.L. Croft, M. Boelaert.
J.M. Blackwell, M. Fakiola, L.C. Castellucci.
Human genetics of leishmania infections.
Hum Genet, 139 (2020), pp. 813-819
G.A.V. Silva, T.G. Mesquita, V.C. Souza, J.E. Santo Junior, M.L.G. Souza, A.C. Talhari, et al.
A Single Haplotype of IFNG Correlating With Low Circulating Levels of Interferon-γ Is Associated With Susceptibility to Cutaneous Leishmaniasis Caused by Leishmania guyanensis.
Clin Infect Dis, 71 (2020), pp. 274-281
L. Castellucci, E. Menezes, J. Oliveira, A. Magalhães, L.H. Guimarães, M. Lessa, et al.
IL6-174 G/C promoter polymorphism influences susceptibility to mucosal but not localized cutaneous leishmaniasis in Brazil.
J Infect Dis, 194 (2006), pp. 519-527
K Takahashi, RAB Ezekowitz.
The role of the mannose-binding lectin in innate immunity.
Clin Infect Dis., 41 (2005), pp. S440-S444
P. Vignesh, A. Rawat, M. Sharma, S. Singh.
Complement in autoimmune diseases.
Clin Chim Acta, 465 (2017), pp. 123-130
P. Garred, N. Genster, K. Pilely, R. Bayarri-Olmos, A. Rosbjerg, Y.J. Ma, et al.
A journey through the lectin pathway of complement-MBL and beyond.
Immunol Rev, 274 (2016), pp. 74-97
I.S. Cestari, A. Krarup, R.B. Sim, J.M. Inal, M.I. Ramirez.
Role of early lectin pathway activation in the complement-mediated killing of Trypanosoma cruzi.
Mol Immunol, 47 (2009), pp. 426-437
J. Klabunde, A.C. Uhlemann, A.E. Tebo, J. Kimmel, R.T. Schwarz, P.G. Kremsner, et al.
Recognition of plasmodium falciparum proteins by the mannan-binding lectin, a component of the immune system inato humano.
Parasitol Res, 88 (2002), pp. 113-117
A. Amiri, T. Sabooteh, F. Shahsavar, K. Anbari, F. Pouremadi.
Mannose-Binding Lectin (MBL) gene polymorphisms in pulmonary tuberculosis susceptibility among the Lur population of Lorestan Province, Iran.
Genom Data, 12 (2017), pp. 146-150
W.K.E. Ip, K. Takahashi, R.A. Ezekowitz, L.M. Stuart.
Mannose-binding lectin and innate immunity.
P.J. Green, T. Feizi, M.S. Stoll, S. Thiel, A. Prescott, M.J. McConville.
Recognition of major cell surface glycoconjugates of Leishmania parasites by human serum mannan binding protein.
Mol Biochem Parasitol, 66 (1994), pp. 319-328
V Murugaiah, AG Tsolaki, U Kishore.
Collectins: Innate Immune Pattern Recognition Molecules.
Adv Exp Med Biol, 1204 (2020), pp. 75-127
IKFM Santos, C.H.N. Costa, H. Krieger, M.F. Feitosa, D. Zurakowski, B. Fardin, et al.
Mannan-Binding Lectin Enhances Susceptibility to Visceral Leishmaniasis.
Infection and Immunity, 69 (2001), pp. 5212-5215
AR Ambrosio, IJT Messias-Reason.
Leishmania (Viannia) braziliensis: interaction of mannose-binding lectin with surface glycoconjugates and complement activation. An antibody-independent defense mechanism.
Parasite Immunol., 27 (2005), pp. 333-340
P. Garred.
Mannose-binding lectin genetics: from A to Z.
Biochem Soc Trans. Biochem Soc Trans., 36 (2008), pp. 1461-1466
J.S. Kim, S.Y. Lee, H.J. Hahn, Y.B. Lee, DS Yu, JW Kim.
Association of Single-Nucleotide Polymorphisms of the MBL2 with Atopic Dermatitis in Korean Patients.
Ann Dermatol, 29 (2017), pp. 571-577
X. Li, X. Cao, S. El-Ashram, W. Zhang, L. Lu, X. Wang, et al.
MBL2 rs7095891 G & A polymorphism was associated with an increased risk of tuberculosis in the Chinese Uygur population.
Int J Mol Epidemiol Genet, 9 (2018), pp. 64-70
A.M.M. Ornelas, C. Xavier-de-Carvalho, L.E. Alvarado-Arnez, M. Ribeiro-Alves, A.D. Rossi, A. Tanuri, et al.
Association between MBL2 haplotypes and dengue severity in children from Rio de Janeiro, Brazil.
Mem. Inst. Oswaldo Cruz., 114 (2019), pp. 1-7
H.O. Madsen, P. Garred, J.A. Kurtzhals, L.U. Lamm, L.P. Ryder, S. Thiel, et al.
A new frequent allele is the missing link in the structural polymorphism of the human mannan-binding protein.
Immunogenetics, 40 (1994), pp. 37-44
RJ Lipscombe, M. Sumiya, AV Hill, YL Lau, RJ Levinsky, JA Summerfield, et al.
High frequencies in African and non-African populations of independent mutations in the mannose binding protein gene.
Hum Mol Genet, 1 (1992), pp. 709-715
P. Dogan, H. Ozkan, N. Koksal, H.B. Oral, O. Bagci, I.G. Varal.
Mannose-binding lectin gene polymorphism and its effect on short term outcomes in preterm infants.
J Pediatr (Rio J), 96 (2020), pp. 520-526
S. Hamdi, R. Ejghal, M. Idrissi, S. Ezzikouri, M. Hida, L. Soong, et al.
A variant of the MBL2 promoter is associated with protection against visceral leishmaniasis in Morocco.
Infect Genet Evol, 13 (2013), pp. 162-167
D.P. Alonso, A.F.B. Ferreira, P.E.M. Ribolla, IKFM Santos, M.S.P. Cruz, F.A. Carvalho, et al.
Mannan-binding lectin gene genotypes and susceptibility to visceral leishmaniasis and clinical complications.
J Infect Dis, 195 (2007), pp. 1212-1217
A. Mishra, J.S. Antony, P. Gai, P. Sundaravadivel, TH Van, AN Jha, et al.
Mannose-binding Lectin (MBL) as a susceptible host factor influencing Indian visceral leishmaniasis.
Parasitol Int, 64 (2015), pp. 591-596
F.J. Araujo, T.G. Mesquita, L.D.O. Silva, S.A. Almeida, W.S. Vital, A. Chrusciak-Talhari, et al.
Variações funcionais no gene MBL2 estão associadas à leishmaniose tegumentar no estado do Amazonas.
Brasil. Genes Immun, 16 (2015), pp. 284-288
A. Liberati, D.G. Altman, J. Tetzlaff, C. Mulrow, P.C. Gøtzsche, J.P. Ioannidis, et al.
A declaração PRISMA para relatar revisões sistemáticas e meta-análises de estudos que avaliam intervenções de saúde: explicação e elaboração.
PLoS Med, 6 (2009),
N. Drentin, P. Conroy, M.J. Gunzburg, R.N. Pike, L.C. Wijeyewickrema.
Investigation of the mechanism of interaction between the serine protease-2 associated with the mannose-binding lectin and the C4 complement.
Mol Immunol, 67 (2015), pp. 287-293
S.S. Singh, R.C.F. Cheung, J.H. Wong, TB NG.
Mannose Binding Lectin: A Potential Biomarker for Many Human Diseases.
Curr Med Chem, 23 (2016), pp. 3847-3860
K. Gupta, R.K. Gupta, K. Hajela.
Associações de doenças de lectina ligadora de manose e potencial de terapia de reposição.
Indian J Med Res, 127 (2008), pp. 431-440
S. Heitzeneder, M. Seidel, E. Förster-Waldl, A. Heitger.
Mannan-binding lectin deficiency - Good news, bad news, doesn’t matter?.
Clin Immunol, 143 (2012), pp. 22-38
T. Weitzel, I. Zulantay, I. Danquah, L. Hamann, R.R. Schumann, W. Apt, et al.
Mannose-binding lectin and Toll-like receptor polymorphisms and Chagas disease in Chile.
Am J Trop Med Hyg, 86 (2012), pp. 229-232
A.N. Jha, P. Sundaravadivel, V.K. Singh, S.S. Pati, P.K. Patra, P.G. Kremsner, et al.
MBL2 variations and malaria susceptibility in indigenous populations.
Infect Immun, 82 (2014), pp. 52-61
J.P.A. Ioannidis, P.S. Rosenberg, J.J. Goedert, T.R. O’Brien.
International Meta-analysis of HIV Host Genetics. Commentary: meta-analysis of individual participants’ data in genetic epidemiology.
Am J Epidemiol, 156 (2002), pp. 204-210
P.R.S. Oliveira, H. Dessein, A. Romano, S. Cabantous, M.E.F. Brito, F. Santoro, et al.
IL2RA genetic variants reduce IL-2 dependent responses and aggravate human cutaneous leishmaniasis.
J Immunol, 194 (2015), pp. 2664-2672
G.G. Braliou, P.I. Kontou, H. Boleti, P.G. Bagos.
Susceptibility to leishmaniasis is affected by host SLC11A1 gene polymorphisms: a systematic review and meta-analysis.
Parasitol Res, 118 (2019), pp. 2329-2342
FK Kavvoura, JPA Ioannidis.
Meta-analysis methods in genetic association studies: a review of their potential and pitfalls.
Hum Genet, 123 (2008), pp. 1-14

Study conducted at the Universidade Federal do Amazonas, Manaus, AM, Brazil.

Anais Brasileiros de Dermatologia

Subscribe to our newsletter

Article options
en pt
Cookies policy Política de cookies
To improve our services and products, we use "cookies" (own or third parties authorized) to show advertising related to client preferences through the analyses of navigation customer behavior. Continuing navigation will be considered as acceptance of this use. You can change the settings or obtain more information by clicking here. Utilizamos cookies próprios e de terceiros para melhorar nossos serviços e mostrar publicidade relacionada às suas preferências, analisando seus hábitos de navegação. Se continuar a navegar, consideramos que aceita o seu uso. Você pode alterar a configuração ou obter mais informações aqui.