Creation of the first gluten allergenicity map using diploid, tetraploid, and hexaploid wheats in a mouse model 2300763

Abstract Introduction Gluten allergy is a growing global disease affecting individuals with high risk of potentially deadly anaphylactic reactions. The relative intrinsic allergenicity of glutens from the three commercially grown wheat species (Diploid Triticum monococcum, tetraploid Triticum durum, hexaploid Triticum aestivum) is unknown. Here, using a recently described adjuvant-free mouse model, we tested the hypothesis that the three different wheat species will exhibit natural variation in their gluten allergenicity. Methods Groups of Balb/c mice (n = 10/group) were transdermally sensitized to alcohol-soluble or acid-soluble gluten extracts followed by elicitation of systemic anaphylaxis. Initial studies were performed to validate the model for glutens from the three wheat species. Sensitization was measured by specific IgE levels. Anaphylaxis was measured by rectal thermometry. Mucosal mast cell response was quantified by measuring MMCP-1 elevation in the blood. Results Both glutens from all three wheat species elicited robust sIgE responses, as well as systemic anaphylaxis. However, comparative mapping analysis revealed differences in capacity to elicit sIgE among the three wheat species with T. aestivum being the most potent in both gluten extracts. Hypothermic shock response (HSR) analysis revealed that the three species elicited similar kinetics and intensity of anaphylaxis. Nevertheless, when analyzing Mucosal Mast Cell Response (MMCR), it was revealed that the glutens from T. aestivum (hexaploid) emerged as the most potent elicitor. Conclusion Collectively, these results yield a comparative map of the natural variation in intrinsic allergenicity potencies of the three consumed wheat glutens for the first time. This map may be utilized for: i) quantitative comparison the allergenic potential of glutens from genetically engineered wheats and processed wheat products against existing wheat glutens; and ii) the identification of potentially hyper/hypo/iso-allergenic species/varieties of wheats. Funding Source USDA/NIFA: MICL02486, 02796, 01699; AFRI: 2018-67017-27876 (MICL05103) Topic Categories Immediate Hypersensitivity, Asthma, and Allergic Responses (HYP)

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Journal
The Journal of Immunology
Published
2026-07-28
DOI
https://doi.org/10.1093/jimmun/vkag141.1221
Primary Topic
Celiac Disease Research and Management
Type
article
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article

Creation of the first gluten allergenicity map using diploid, tetraploid, and hexaploid wheats in a mouse model 2300763

Perry Ng, Chris Antwerp, Haoran Gao, Maya Srkalovic et al.
The Journal of Immunology
Celiac Disease Research and Management
article

Creation of the first gluten allergenicity map using diploid, tetraploid, and hexaploid wheats in a mouse model 2300763

Perry Ng, Chris Antwerp, Haoran Gao, Maya Srkalovic, Venugopal Gangur, Jorgensen Rick
article en

Abstract

Abstract Introduction Gluten allergy is a growing global disease affecting individuals with high risk of potentially deadly anaphylactic reactions. The relative intrinsic allergenicity of glutens from the three commercially grown wheat species (Diploid Triticum monococcum, tetraploid Triticum durum, hexaploid Triticum aestivum) is unknown. Here, using a recently described adjuvant-free mouse model, we tested the hypothesis that the three different wheat species will exhibit natural variation in their gluten allergenicity. Methods Groups of Balb/c mice (n = 10/group) were transdermally sensitized to alcohol-soluble or acid-soluble gluten extracts followed by elicitation of systemic anaphylaxis. Initial studies were performed to validate the model for glutens from the three wheat species. Sensitization was measured by specific IgE levels. Anaphylaxis was measured by rectal thermometry. Mucosal mast cell response was quantified by measuring MMCP-1 elevation in the blood. Results Both glutens from all three wheat species elicited robust sIgE responses, as well as systemic anaphylaxis. However, comparative mapping analysis revealed differences in capacity to elicit sIgE among the three wheat species with T. aestivum being the most potent in both gluten extracts. Hypothermic shock response (HSR) analysis revealed that the three species elicited similar kinetics and intensity of anaphylaxis. Nevertheless, when analyzing Mucosal Mast Cell Response (MMCR), it was revealed that the glutens from T. aestivum (hexaploid) emerged as the most potent elicitor. Conclusion Collectively, these results yield a comparative map of the natural variation in intrinsic allergenicity potencies of the three consumed wheat glutens for the first time. This map may be utilized for: i) quantitative comparison the allergenic potential of glutens from genetically engineered wheats and processed wheat products against existing wheat glutens; and ii) the identification of potentially hyper/hypo/iso-allergenic species/varieties of wheats. Funding Source USDA/NIFA: MICL02486, 02796, 01699; AFRI: 2018-67017-27876 (MICL05103) Topic Categories Immediate Hypersensitivity, Asthma, and Allergic Responses (HYP)

The Journal of ImmunologyVol. 215(Supplement_1)
Lake Erie College of Osteopathic Medicine (US), Michigan State University (US)
Openalex Percentile: Top 8%
Celiac Disease Research and Management
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