Salix babylonica-protofield syndrome marker gene and application thereof
A technology for marker genes and syndromes, which can be used in genomics, DNA/RNA fragments, and microbial determination/examination.
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Embodiment 1
[0066] Example 1 Identification of biomarkers
[0067] In this example, the inventor conducted a study on the fecal samples of 38 patients with Koyanagi-Harada Syndrome and 36 healthy controls, carried out association analysis of the entire intestinal microbial gene, studied and described the distribution characteristics of fecal microbial genes, and obtained the genes in the feces. Element. The inventor obtained approximately 190.2Gb of high-quality healthy person (LC) data and 201.6Gb of high-quality Koyanagi-Harada syndrome patient (AS) sequencing data through experimental sequencing to construct a reference gene set for Koyanagi-Harada syndrome, and constructed it with the IGC gene set A more complete gene set. Metagenome analysis showed that 168 genes were closely related to Koyanagi-Harada syndrome, of which 38 microbial genes were enriched in the gut of healthy people, and 130 genes were enriched in the gut microbes of patients with Koyanagi-Harada syndrome.
[0068] ...
Embodiment 2
[0096] Verification of embodiment 2 gene markers
[0097] In order to confirm that the analysis results in Example 1 can be used as Koyanagi-Harada syndrome gene markers, the gene abundance in the feces of 17 Koyanagi-Harada syndrome patients and 16 healthy people in the verification group was further compared, and the The obtained gene markers are screened according to the verification status. The acquisition and processing of the verification population sequencing data were carried out with reference to Example 1.
[0098] The verification results are as follows: Among the 38 genes enriched in the healthy population, 2 have been verified with high quality in the verification set (p_values<0.05). The p-values of the gene markers enriched in the healthy population in the verification population are as follows 2.
[0099] Table 2
[0100] Gene (Taxonomy) p-values (p_values) Enriched population (enrich) N58_GI_0017314 0.0394674348322114 HD N44_G...
Embodiment 3
[0158] The detection of embodiment 3 individual state
[0159] Forty-five stool samples were used to test the individual status of the sample source.
[0160]Refer to the method in Example 2 to determine the abundance of BA15_GI_0053852, VA1_GI_0075627, BA16_GI_0058798, BA20_GI_0078082, VA34_GI_0040061, N29_GI_0014293, and BA20_GI_0050287 in Table 3 in each stool sample, and determine whether the abundance of these 7 genes in each sample falls into the control. The 95% confidence interval of the abundance of the control group or the healthy control group, the state of the individual corresponding to the sample corresponding to the sample whose abundance of the seven genes all fall into the corresponding range of the disease group is determined to be a patient of Koyanagi-Harada syndrome, and all of them fall into the corresponding range of the healthy group The state of the individual corresponding to the sample in the interval is determined to be a non-Koyanagi-Harada syndrom...
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