CN110441507B - Reagent combination for detecting immunity of hysteromyoma patient, kit and method thereof - Google Patents

Reagent combination for detecting immunity of hysteromyoma patient, kit and method thereof Download PDF

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CN110441507B
CN110441507B CN201910762495.4A CN201910762495A CN110441507B CN 110441507 B CN110441507 B CN 110441507B CN 201910762495 A CN201910762495 A CN 201910762495A CN 110441507 B CN110441507 B CN 110441507B
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吴扬哲
刘志勤
刘斌
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Guangdong Prius Biotechnology Co ltd
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Abstract

The invention discloses a reagent combination for detecting the immune function of a patient with hysteromyoma, a kit thereof and a method thereof, and relates to the technical field of biological medicine, in particular to the reagent combination, which comprises a plurality of reagents for detecting a plurality of immune function indexes of the following immune factors: CD3, CD4, CD8, CD45RA, CCR7, CD127, CXCR3, CXCR5, CCR4, CD56, NKG2D, NKP46, γδ, and vδ2. The reagent combination can effectively and accurately detect the immune function of a patient suffering from hysteromyoma, and overcomes the defects of inaccurate detection results and high detection cost in the prior art.

Description

Reagent combination for detecting immunity of hysteromyoma patient, kit and method thereof
Technical Field
The invention relates to the technical field of biological medicines, in particular to a reagent combination for detecting the immune function of a patient with hysteromyoma, a kit and a method thereof.
Background
The immune function of human immune cells has direct correlation with the occurrence and progress of various diseases, for example, the occurrence and development processes of tumors are the results of long-term down-regulation or inhibition of the functions of human autoimmune cells. Uterine fibroids in women of childbearing age are benign tumors that occur in the reproductive organs and are a common disorder in the female population. However, the occurrence cause of hysteromyoma is not clear at present, and meanwhile, the aspects of curative effect observation, prognosis monitoring and the like in clinical treatment are not fully studied.
Since the human immune system plays a vital role in the occurrence and development of diseases. For example, tumors occur mainly because cells whose body functions are abnormal or mutant cells cannot be recognized by immune cells, are killed, and cause abnormal proliferation of the group of mutant cells, thereby developing tumors.
Although uterine fibroids belong to benign tumors and generally do not affect quality of life and fertility, some patients suffering from uterine fibroids also have adverse consequences, such as infertility, menorrhagia, hemorrhage, etc., thereby affecting the life health of females. Such patients typically track their efficacy and prognosis during clinical treatment by ultrasound imaging or CT imaging.
Currently, there is a lack of methods for detecting prognosis of patients with uterine fibroids that are rapid, accurate and inexpensive.
Disclosure of Invention
The embodiment of the invention provides a reagent combination for detecting the immune function of a hysteromyoma patient, which can effectively and accurately detect the immune function of the hysteromyoma patient and solves the defects of inaccurate detection result and high detection cost in the prior art. The term "myoma patient" refers to a patient who has had myoma and/or a group susceptible to myoma.
Specifically, the reagent combination comprises a plurality of reagents for detecting a plurality of immune function indexes, specifically a plurality of reagents for detecting a plurality of immune function indexes of the following immune factors; the immune factors include: CD3, CD4, CD8, CD45RA, CCR7, CD127, CXCR3, CXCR5, CCR4, CD56, NKG2D, NKP46, γδ, and vδ2. Further, immune factors also include KIR, NKP30, and CD94.
Further, the plurality of immune function indicators include: t cells, helper T cells, killer T cells, biscationic T cells, initializing cd4+ T cells, terminally differentiated cd4+ T cells, central memory cd4+ T cells, effector memory cd4+ T cells, initializing cd8+ T cells, terminally differentiated cd8+ T cells, central memory cd8+ T cells, effector memory cd8+ T cells, inactive phase specific terminally differentiated cd8+ T cells, th2, tfh2, immature NK cells, activated NK cells, virus-infected specific killer NK cells, vδ2+ positive cells, and functional vδ2+ positive cells.
Preferably, the plurality of immune function indicators further comprises: continuously expressing virus-specific terminally differentiated CD8+ T cells, mature NK cells, early function blocking NK cells, conventional killer NK cells;
further preferably, the plurality of immune function indicators further comprises: t cells, th and Tc ratios, γδt cells, vδ1+ positive cells, and (vδ1+/vδ2+) cell ratios.
The invention also provides a method for detecting the immune function of the uterine fibroid patient, which can detect and analyze the crowd infected with the uterine fibroid or the crowd susceptible to the uterine fibroid (healthy crowd) in a low-cost mode, and accurately evaluate the immune function state of the test crowd so that a detected person can take corresponding measures in time, and the detection method is easy to operate and popularize.
Specifically, the method comprises the step of analyzing various immune function indexes by using a flow cytometry by adopting the reagent combination for evaluating the immune function of the hysteromyoma patient. The multiple immune function indexes refer to multiple immune function indexes in the reagent combination, and are not described in detail.
When the measurement results of the various immune function indexes meet the measurement standards, the sample is judged to be healthy people, and the measurement standards of the indexes are as follows:
t cells account for 45.76% -77.45% of lymphocytes; helper T cells account for 40% -67% of T cells; killer T cells account for 31% -58% of T cells; double positive T cells account for 1% -5% of T cells; the initialized CD4+ T cells account for 21.0% -51.6% of the CD4T cells; terminally differentiated CD4+ T cells account for 13.8% -16.8% of CD4T cells; the central memory CD4+ T cells account for 18.2% -49.4% of the CD4T cells; effector memory CD4+ T cells account for 27.6% -55.9% of CD4T cells; initializing 35.4% -53.2% of CD8+ T cells; terminally differentiated cd8+ T cells account for 21.2% -40.3% of CD8T cells; the central memory CD8+ T cells account for 4.8% -6% of the CD8T cells; effector memory cd8+ T cells account for 33.1% -56.3% of CD8T cells; the specific terminally differentiated CD8+ T cells in the inactive phase account for 85.2% -98.8% of the terminally differentiated CD8+ T cells; th2 accounts for 12% -25% of Th cells; tfh2 accounts for 15.3% -23.6% of Tfh cells; immature NK cells account for 5.6% -27.8% of NK cells; activated NK cells account for 25% -53% of NK cells; the specific killing NK cells infected by the virus account for 9.93% -80.85% of the NK cells; v delta 2+ positive cells account for 46.8% -72% of gamma delta T cells; the V delta 2+ positive cells account for 94.6% -99.8% of the V delta 2 gamma delta T cells.
Further, the measurement criteria of the index further include: continuously expressing virus-specific terminally differentiated CD8+ T cells accounting for 6.4% -20% of the terminally differentiated CD8+ T cells; mature NK cells account for 43-82% of NK cells; early function blocking NK cells account for 36.3% -52.7% of NK cells; conventional killer NK cells account for 38.5% -64% of NK cells;
further preferably, the measurement criteria of the index further include: the ratio of Th to Tc is 0.57-2.44; gamma delta T cells account for 0.5 to 8.2 percent of T cells; v delta 1+ positive cells account for 8.2% -24% of gamma delta T cells; the ratio of (vδ1+/vδ2+) is 0.12 to 0.51.
In addition, the invention also provides a kit for detecting the immune function of a patient with hysteromyoma, which comprises a plurality of monoclonal antibodies for detecting various immune function indexes; the monoclonal antibody comprises:
an anti-human CD3 monoclonal antibody, an anti-human CD4 monoclonal antibody, an anti-human CD8 monoclonal antibody, an anti-human CD45RA monoclonal antibody, an anti-human CCR7 monoclonal antibody, an anti-human CD127 monoclonal antibody, an anti-human CXCR3 monoclonal antibody, an anti-human CXCR5 monoclonal antibody, an anti-human CCR4 monoclonal antibody, an anti-human CD56 monoclonal antibody, an anti-human NKG2D monoclonal antibody, an anti-human NKP46 monoclonal antibody, an anti-human γδ monoclonal antibody, an anti-human vδ 2 monoclonal antibody, an anti-human KIR monoclonal antibody, an anti-human NKP30 monoclonal antibody, and an anti-human CD94 monoclonal antibody.
Anti-human CD3 monoclonal antibodies, anti-human CD4 monoclonal antibodies, anti-human CD8 monoclonal antibodies, anti-human CD45RA monoclonal antibodies, anti-human CCR7 monoclonal antibodies, anti-human CD127 monoclonal antibodies, anti-human CXCR3 monoclonal antibodies, anti-human CXCR5 monoclonal antibodies, anti-human CCR4 monoclonal antibodies, anti-human CD56 monoclonal antibodies, anti-human NKG2D monoclonal antibodies, anti-human NKP46 monoclonal antibodies, anti-human γδ monoclonal antibodies, and anti-human vδ 2 monoclonal antibodies.
Preferably, the reagent further comprises: anti-human KIR monoclonal antibodies, anti-human NKP30 monoclonal antibodies, and anti-human CD94 monoclonal antibodies.
The kit can comprehensively reflect the immune function state of women of childbearing age through 28 functional parameters of 17 antibody detection samples, especially patients suffering from uterine fibroids or people susceptible to uterine fibroids, so that women susceptible to uterine fibroids can timely take appropriate measures to keep the health state of the body.
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In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings that are needed in the embodiments will be briefly described below, it being understood that the following drawings only illustrate some embodiments of the present invention and therefore should not be considered as limiting the scope, and other related drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a first test result of an immune function index in embodiment 5 of the present invention;
FIG. 2 is a second test result of the immune function index in embodiment 5 of the present invention;
FIG. 3 is a third test result of the immune function index in the embodiment 5 of the present invention;
FIG. 4 shows a fourth test result of the immune function index in the embodiment 5 of the present invention;
FIG. 5 is a fifth test result of the immune function index in the embodiment 5 of the present invention;
FIG. 6 shows the content of the tumor marker CD125 in the verification example 1 of the present invention;
FIG. 7 shows the content of the tumor marker CD125 and the number of myomas in the sample of verification example 2 according to the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the embodiments of the present invention more clear, the technical solutions of the embodiments of the present invention will be clearly and completely described below. The specific conditions are not noted in the examples and are carried out according to conventional conditions or conditions recommended by the manufacturer. The reagents or apparatus used were conventional products commercially available without the manufacturer's attention.
The features and capabilities of the present invention are described in further detail below in connection with the examples.
Example 1
The embodiment provides a reagent combination for detecting the immune function of a patient with hysteromyoma, which comprises the following reagents for detecting various immune function indexes, wherein each reagent respectively and correspondingly comprises any monoclonal antibody; anti-human CD3 monoclonal antibodies, anti-human CD4 monoclonal antibodies, anti-human CD8 monoclonal antibodies, anti-human CD45RA monoclonal antibodies, anti-human CCR7 monoclonal antibodies, anti-human CD127 monoclonal antibodies, anti-human CXCR3 monoclonal antibodies, anti-human CXCR5 monoclonal antibodies, anti-human CCR4 monoclonal antibodies, anti-human CD56 monoclonal antibodies, anti-human NKG2D monoclonal antibodies, anti-human NKP46 monoclonal antibodies, anti-human γδ monoclonal antibodies, and anti-human vδ 2 monoclonal antibodies.
Example 2
The embodiment provides a reagent combination for detecting the immune function of a patient with hysteromyoma, which comprises the following reagents for detecting various immune function indexes, wherein each reagent respectively and correspondingly comprises any monoclonal antibody; anti-human CD3 monoclonal antibodies, anti-human CD4 monoclonal antibodies, anti-human CD8 monoclonal antibodies, anti-human CD45RA monoclonal antibodies, anti-human CCR7 monoclonal antibodies, anti-human CD127 monoclonal antibodies, anti-human CXCR3 monoclonal antibodies, anti-human CXCR5 monoclonal antibodies, anti-human CCR4 monoclonal antibodies, anti-human CD56 monoclonal antibodies, anti-human NKG2D monoclonal antibodies, anti-human NKP46 monoclonal antibodies, anti-human γδ monoclonal antibodies, anti-human vδ 2 monoclonal antibodies, anti-human KIR monoclonal antibodies, anti-human NKP30 monoclonal antibodies, and anti-human CD94 monoclonal antibodies.
Example 3
This example provides a method for detecting immune function in a patient with uterine fibroid, comprising performing a detection assay of a plurality of immune function indicators on a sample by flow cytometry using the reagent combination provided in example 1.
The various immune function indicators include: t cells, helper T cells, killer T cells, biscationic T cells, initializing cd4+ T cells, terminally differentiated cd4+ T cells, central memory cd4+ T cells, effector memory cd4+ T cells, initializing cd8+ T cells, terminally differentiated cd8+ T cells, central memory cd8+ T cells, effector memory cd8+ T cells, inactive phase specific terminally differentiated cd8+ T cells, th2, tfh2, immature NK cells, activated NK cells, virus-infected specific killer NK cells, vδ2+ positive cells, and functional vδ2+ positive cells.
When the measurement result of the immune function index meets the measurement standard, the sample is judged to be healthy people, and the measurement standard of the index is as follows:
t cells account for 45.76% -77.45% of lymphocytes; helper T cells account for 40% -67% of T cells; killer T cells account for 31% -58% of T cells; double positive T cells account for 1% -5% of T cells; the initialized CD4+ T cells account for 21.0% -51.6% of the CD4T cells; terminally differentiated CD4+ T cells account for 13.8% -16.8% of CD4T cells; the central memory CD4+ T cells account for 18.2% -49.4% of the CD4T cells; effector memory CD4+ T cells account for 27.6% -55.9% of CD4T cells; initializing 35.4% -53.2% of CD8+ T cells; terminally differentiated cd8+ T cells account for 21.2% -40.3% of CD8T cells; the central memory CD8+ T cells account for 4.8% -6% of the CD8T cells; effector memory cd8+ T cells account for 33.1% -56.3% of CD8T cells; the specific terminally differentiated CD8+ T cells in the inactive phase account for 85.2% -98.8% of the terminally differentiated CD8+ T cells; th2 accounts for 12% -25% of Th cells; tfh2 accounts for 15.3% -23.6% of Tfh cells; immature NK cells account for 5.6% -27.8% of NK cells; activated NK cells account for 25% -53% of NK cells; the specific killing NK cells infected by the virus account for 9.93% -80.85% of the NK cells; v delta 2+ positive cells account for 46.8% -72% of gamma delta T cells; the V delta 2+ positive cells account for 94.6% -99.8% of the V delta 2 gamma delta T cells.
Example 4
This example provides a method for detecting immune function in a patient with uterine fibroid, comprising performing a detection assay of a plurality of immune function indicators on a sample by flow cytometry using the reagent combination provided in example 2.
The various immune function indicators include: t cells, helper T cells, killer T cells, biscationic T cells, initialization cd4+ T cells, terminally differentiated cd4+ T cells, central memory cd4+ T cells, effector memory cd4+ T cells, initialization cd8+ T cells, terminally differentiated cd8+ T cells, central memory cd8+ T cells, effector memory cd8+ T cells, inactive phase-specific terminally differentiated cd8+ T cells, th2, tfh2, immature NK cells, activated NK cells, virus-infected specific killer NK cells, vδ2+ positive cells, functional vδ2+ positive cells, terminally differentiated cd8+ T cells continuously expressing virus-specific, mature NK cells, early function blocking NK cells, conventional killer NK cells.
When the measurement result of the immune function index meets the measurement standard, the sample is judged to be healthy people, and the measurement standard of the index is as follows:
t cells account for 45.76% -77.45% of lymphocytes; helper T cells account for 40% -67% of T cells; killer T cells account for 31% -58% of T cells; double positive T cells account for 1% -5% of T cells; the initialized CD4+ T cells account for 21.0% -51.6% of the CD4T cells; terminally differentiated CD4+ T cells account for 13.8% -16.8% of CD4T cells; the central memory CD4+ T cells account for 18.2% -49.4% of the CD4T cells; effector memory CD4+ T cells account for 27.6% -55.9% of CD4T cells; initializing 35.4% -53.2% of CD8+ T cells; terminally differentiated cd8+ T cells account for 21.2% -40.3% of CD8T cells; the central memory CD8+ T cells account for 4.8% -6% of the CD8T cells; effector memory cd8+ T cells account for 33.1% -56.3% of CD8T cells; the specific terminally differentiated CD8+ T cells in the inactive phase account for 85.2% -98.8% of the terminally differentiated CD8+ T cells; th2 accounts for 12% -25% of Th cells; tfh2 accounts for 15.3% -23.6% of Tfh cells; immature NK cells account for 5.6% -27.8% of NK cells; activated NK cells account for 25% -53% of NK cells; the specific killing NK cells infected by the virus account for 9.93% -80.85% of the NK cells; v delta 2+ positive cells account for 46.8% -72% of gamma delta T cells; the V delta 2+ positive cells account for 94.6-99.8% of the V delta 2 gamma delta T cells; continuously expressing virus-specific terminally differentiated CD8+ T cells accounting for 6.4% -20% of the terminally differentiated CD8+ T cells; mature NK cells account for 43-82% of NK cells; early function blocking NK cells account for 36.3% -52.7% of NK cells; conventional killer NK cells account for 38.5% -64% of NK cells.
Example 5
This example provides a method for detecting immune function in a patient with uterine fibroid comprising performing a 28 immune function index detection assay on a sample by flow cytometry using the reagent combination provided in example 2.
The various immune function indicators include: t cells, helper T cells, killer T cells, biscationic T cells, initialization cd4+ T cells, terminally differentiated cd4+ T cells, central memory cd4+ T cells, effector memory cd4+ T cells, initialization cd8+ T cells, terminally differentiated cd8+ T cells, central memory cd8+ T cells, effector memory cd8+ T cells, inactive phase-specific terminally differentiated cd8+ T cells, th2, tfh2, immature NK cells, activated NK cells, virus-infected specific killer NK cells, vδ2+ positive cells, functional vδ2+ positive cells, terminally differentiated cd8+ T cells continuously expressing virus-specific, mature NK cells, early function blocking NK cells, conventional killer NK cells, T cells, th and Tc ratios, γδ T cells, vδ1+ positive cells, and (vδ1+/vδ2+) cell ratios.
When the measurement result of the immune function index meets the measurement standard, the sample is judged to be healthy people, and the measurement standard of the index is as follows:
t cells account for 45.76% -77.45% of lymphocytes; helper T cells account for 40% -67% of T cells; killer T cells account for 31% -58% of T cells; double positive T cells account for 1% -5% of T cells; the initialized CD4+ T cells account for 21.0% -51.6% of the CD4T cells; terminally differentiated CD4+ T cells account for 13.8% -16.8% of CD4T cells; the central memory CD4+ T cells account for 18.2% -49.4% of the CD4T cells; effector memory CD4+ T cells account for 27.6% -55.9% of CD4T cells; initializing 35.4% -53.2% of CD8+ T cells; terminally differentiated cd8+ T cells account for 21.2% -40.3% of CD8T cells; the central memory CD8+ T cells account for 4.8% -6% of the CD8T cells; effector memory cd8+ T cells account for 33.1% -56.3% of CD8T cells; the specific terminally differentiated CD8+ T cells in the inactive phase account for 85.2% -98.8% of the terminally differentiated CD8+ T cells; th2 accounts for 12% -25% of Th cells; tfh2 accounts for 15.3% -23.6% of Tfh cells; immature NK cells account for 5.6% -27.8% of NK cells; activated NK cells account for 25% -53% of NK cells; the specific killing NK cells infected by the virus account for 9.93% -80.85% of the NK cells; v delta 2+ positive cells account for 46.8% -72% of gamma delta T cells; the V delta 2+ positive cells account for 94.6-99.8% of the V delta 2 gamma delta T cells; continuously expressing virus-specific terminally differentiated CD8+ T cells accounting for 6.4% -20% of the terminally differentiated CD8+ T cells; mature NK cells account for 43-82% of NK cells; early function blocking NK cells account for 36.3% -52.7% of NK cells; conventional killer NK cells account for 38.5% -64% of NK cells; continuously expressing virus-specific terminally differentiated CD8+ T cells accounting for 6.4% -20% of the terminally differentiated CD8+ T cells; mature NK cells account for 43-82% of NK cells; early function blocking NK cells account for 36.3% -52.7% of NK cells; conventional killer NK cells account for 38.5% -64% of NK cells; the ratio of Th to Tc is 0.57-2.44; gamma delta T cells account for 0.5 to 8.2 percent of T cells; v delta 1+ positive cells account for 8.2% -24% of gamma delta T cells; the ratio of (vδ1+/vδ2+) is 0.12 to 0.51.
For specific information on the method, refer to table 1.
Table 1 details of the method
Figure BDA0002169246330000081
Figure BDA0002169246330000091
Figure BDA0002169246330000101
The method of example 5 was used to test patients with uterine fibroids and healthy individuals, and the test results were shown in fig. 1-5. Specifically, fig. 1 is a first test result diagram of immune function indexes, specifically, fig. 1 a is a naive cd4+ T cell test result, fig. 1 a is a central memory cd4+ T cell test result, fig. 1C is a terminally differentiated effector cd4+ T cell test result, fig. 1D is a regulatory T cell test result, fig. 1E is a Th 2T cell test result, and fig. 1F is a Tfh T cell test result;
FIG. 2 is a second test result of the immune function index in embodiment 5 of the present invention; wherein, G in FIG. 2 is the detection result of Tfh1 type T cells, H in FIG. 2 is the detection result of Tfh2 type T cells, and I in FIG. 2 is the cell ratio of Tfh1/Tfh 2; in FIG. 2, J is a Tfh71 type T cell detection result, K is a central memory type CD8+ T cell detection result in FIG. 2, and L is a terminal differentiation effect type and CD127 high expression CD8+ T cell detection result in FIG. 2;
FIG. 3 is a third test result of the immune function index in the embodiment 5 of the present invention; wherein, in fig. 3, M is the end differentiation effect type and CD127 low expression cd8+ T cell detection result, in fig. 3, N is the Tc17 subtype cd8+ T cell detection result, in fig. 3, O is the total NK cell detection result, in fig. 3, P is the CD56 low expression NK cell detection result, in fig. 3, Q is the CD94 positive KIR negative NK cell detection result, and in fig. 3, R is the NKP30 positive NK cell detection result;
FIG. 4 shows a fourth test result of the immune function index in the embodiment 5 of the present invention; wherein, S in fig. 4 is NK cell detection result positive for NKG 20; t is NK cell detection result positive for NKP46 in FIG. 4; u in FIG. 4 is the total γδ T cell assay result; v in fig. 4 is the vδ1 positive γδ T cell assay result; in FIG. 4, W is the result of V.delta.2 positive gamma.delta.T cell detection; x in FIG. 4 is the cell ratio of V.delta.1/V.delta.2;
FIG. 5 is a fifth test result of the immune function index in the embodiment 5 of the present invention; wherein Y in fig. 5 is NKG2D positive vδ2 subpopulation γδt cell detection results; z in FIG. 5 is the result of PD1 positive detection of γδ T cells from the V.delta.2 subpopulation.
The results in fig. 1-5 show that there was a significant difference between the control and patient groups.
And (3) judging results:
the resins given in table 1 are used to score the extent of variation of individual cell subsets in healthy humans by correlation analysis of various parameters of immune cell function with disease occurrence, progression and efficacy of clinical treatment, based on the apparent degree of the difference of various parameters between patients and normal humans:
remarks: the statistical term "significance" is indicated by a sign. One star indicates that the difference reliability exceeds 95%, and 1 score is recorded; two stars are used for indicating that the reliability of the difference exceeds 99 percent, and the score is 2; three stars represent that the reliability of the difference exceeds 99.9%, and score 3 is recorded;
the scores of the detected parameters are summed to obtain a total score, denoted S, from which the patient is evaluated with reference to the following grading criteria:
s=0 point: normal;
s:0 to 10 portions: is basically normal;
s: 11-24 minutes: the immune function is abnormal, and the recovery needs to be continued;
s: 25-44 minutes: abnormal immune function, close attention, need to condition or therapeutic intervention;
s: 45-54 minutes: serious immune dysfunction, must remain therapeutic intervention;
s is more than or equal to 55 minutes: there is a trend toward further worsening of immune dysfunction, and related treatments such as intensive therapy, replacement of therapeutic regimens, or the use of immune cell therapies to modulate immune function are needed.
Verification example 1
The relationship between the immune function index and tumor diagnosis in example 5 was verified.
The method of example 5 was used to perform regulatory T cell detection analysis on the sample by flow cytometry, and correlate the content of tumor marker CD125 with the content of tumor marker CD125 in the sample, as shown in fig. 6.
As can be seen from fig. 6, the number of regulatory T cells was significantly increased in uterine fibroid patients, and by correlation analysis with the content of tumor marker CD125, it was found that the increase in regulatory T cells was significantly positively correlated with the content of tumor marker CD125 (statistical P value equal to 0.004, indicating extremely significant correlation). It is demonstrated that the content of regulatory T cells can be used as an important index for diagnosis and follow-up observation of hysteromyoma.
Verification example 2
The relationship between the immune function index and tumor diagnosis in example 5 was verified.
By adopting the method of example 5, the sample is subjected to detection analysis of the cell ratio of Tfh1/Tfh2 by a flow cytometer, and the correlation analysis is carried out on the content of the tumor marker CD125 and the myoma number of the sample, wherein the content of the tumor marker CD125 and the myoma number are shown in the figure 7.
As can be seen from fig. 7, the ratio of type I and type II helper follicular T cells (Tfh) was significantly increased in uterine myoma patients, and the correlation analysis was performed on the content of the tumor marker CD125 and the myoma number, and the increase in the cell ratio was found to be significantly positively correlated with CD125 and the myoma number (statistical P values were equal to 0.001 and 0.017, respectively, indicating that the correlation was extremely significant). The ratio of type I and type II helper follicular T cells (Tfh) is also an important indicator for diagnosis and follow-up observation of uterine fibroids and for evaluation of their severity.
By detecting these parameters, a sub-population of cells that are dysfunctional in a patient can assist in clinical diagnosis, treatment, and in particular in assessing the effect of the course of administration on the patient's immune function. For example, if these significantly increased or decreased parameters are returned to normal during treatment, it is indicated that the treatment regimen employed will restore the patient's immune function and have clinical efficacy. Meanwhile, if the treatment is found to be unable to restore the immune function of the patient by detection, the doctor can be prompted to replace the treatment scheme in time. And after the immune function is recovered to be normal, reminding a doctor of stopping the medicine in time.
In summary, an embodiment of the present invention provides a reagent combination for detecting immune functions of a patient with uterine fibroid, where the reagent combination includes a plurality of reagents for detecting a plurality of immune function indicators of immune factors including: CD3, CD4, CD8, CD45RA, CCR7, CD127, CXCR3, CXCR5, CCR4, CD56, NKG2D, NKP46, γδ, and vδ2. The reagent combination can effectively and accurately detect the immune function of a patient suffering from hysteromyoma, and overcomes the defects of inaccurate detection results and high detection cost in the prior art. The reagent combination can effectively and accurately detect the immune function of a patient suffering from hysteromyoma, and overcomes the defects of inaccurate detection results and high detection cost in the prior art.
The invention also provides a method for detecting the immune function of the uterine fibroid patient, which can detect and analyze the crowd infected with the uterine fibroid or the crowd susceptible to the uterine fibroid (healthy crowd) in a low-cost mode, and accurately evaluate the immune function state of the test crowd so that a detected person can take corresponding measures in time, and the detection method is easy to operate and popularize.
In addition, the invention also provides a kit for detecting the immune function of a patient with hysteromyoma, which comprises a plurality of monoclonal antibodies for detecting various immune function indexes; the monoclonal antibodies include anti-human CD3 monoclonal antibody, anti-human CD4 monoclonal antibody, anti-human CD8 monoclonal antibody, anti-human CD45RA monoclonal antibody, anti-human CCR7 monoclonal antibody, anti-human CD127 monoclonal antibody, anti-human CXCR3 monoclonal antibody, anti-human CXCR5 monoclonal antibody, anti-human CCR4 monoclonal antibody, anti-human CD56 monoclonal antibody, anti-human NKG2D monoclonal antibody, anti-human NKP46 monoclonal antibody, anti-human γδ monoclonal antibody, anti-human vδ2 monoclonal antibody, anti-human KIR monoclonal antibody, anti-human NKP30 monoclonal antibody and anti-human CD94 monoclonal antibody. According to the kit, 28 functional parameters of a sample are detected through 17 antibodies, so that the immune function state of women of childbearing age, especially patients suffering from uterine fibroids or people susceptible to uterine fibroids, can be comprehensively reflected, and the women susceptible to uterine fibroids can timely take appropriate measures to keep the health state of the body.
The above description is only of the preferred embodiments of the present invention and is not intended to limit the present invention, but various modifications and variations can be made to the present invention by those skilled in the art. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims (1)

1. Use of a plurality of reagents for detecting a plurality of immune function indicators of an immune factor in the preparation of a kit for detecting immune function in a patient having uterine fibroid, the immune factor comprising: CD3, CD4, CD8, CD45RA, CCR7, CD127, CXCR3, CXCR5, CCR4, CD56, NKG2D, NKP46, γδ and vδ2, KIR, NKP30 and CD94;
the reagent comprises a plurality of monoclonal antibodies for detecting various immune function indexes; the monoclonal antibody comprises:
an anti-human CD3 monoclonal antibody, an anti-human CD4 monoclonal antibody, an anti-human CD8 monoclonal antibody, an anti-human CD45RA monoclonal antibody, an anti-human CCR7 monoclonal antibody, an anti-human CD127 monoclonal antibody, an anti-human CXCR3 monoclonal antibody, an anti-human CXCR5 monoclonal antibody, an anti-human CCR4 monoclonal antibody, an anti-human CD56 monoclonal antibody, an anti-human NKG2D monoclonal antibody, an anti-human NKP46 monoclonal antibody, an anti-human γδ monoclonal antibody, an anti-human vδ 2 monoclonal antibody, an anti-human KIR monoclonal antibody, an anti-human NKP30 monoclonal antibody, and an anti-human CD94 monoclonal antibody;
the multiple immune function indicators include: t cells, helper T cells, killer T cells, biscationic T cells, initialization cd4+ T cells, terminally differentiated cd4+ T cells, central memory cd4+ T cells, effector memory cd4+ T cells, initialization cd8+ T cells, terminally differentiated cd8+ T cells, central memory cd8+ T cells, effector memory cd8+ T cells, inactive phase-specific terminally differentiated cd8+ T cells, th2, tfh2, immature NK cells, activated NK cells, virus-infected specific killer NK cells, vδ2+ positive cells and functional vδ2+ positive cells, terminally differentiated cd8+ NK cells continuously expressing virus specificity, mature NK cells, early function blocking NK cells, conventional killer NK cells, th and Tc ratios, γδt cells, vδ1+ positive cells and (vδ1+/vδ2+) cell ratios;
when the measurement result of the immune function index meets the measurement standard, the sample is judged to be healthy people, and the measurement standard of the index is as follows:
t cells account for 45.76% -77.45% of lymphocytes; helper T cells account for 40% -67% of T cells; the killer T cells account for 31% -58% of the T cells; the double positive T cells account for 1% -5% of the T cells; the initialized CD4+ T cells account for 21.0% -51.6% of the CD4T cells; terminally differentiated CD4+ T cells account for 13.8% -16.8% of CD4T cells; the central memory CD4+ T cells account for 18.2% -49.4% of the CD4T cells; effector memory CD4+ T cells account for 27.6% -55.9% of CD4T cells; initializing 35.4% -53.2% of CD8+ T cells; terminally differentiated CD8+ T cells account for 21.2% -40.3% of CD8T cells; the central memory CD8+ T cells account for 4.8% -6% of the CD8T cells; effector memory CD8+ T cells account for 33.1% -56.3% of CD8T cells; the specific terminally differentiated CD8+ T cells in the inactive phase account for 85.2% -98.8% of the terminally differentiated CD8+ T cells; th2 accounts for 12% -25% of Th cells; tfh2 accounts for 15.3% -23.6% of Tfh cells; immature NK cells account for 5.6% -27.8% of NK cells; activated NK cells account for 25% -53% of NK cells; the specific killer NK cells infected by the viruses account for 9.93% -80.85% of the NK cells; v delta 2+ positive cells account for 46.8% -72% of gamma delta T cells; the V delta 2+ positive cells account for 94.6% -99.8% of the V delta 2 gamma delta T cells;
the measurement criteria of the index further include: continuously expressing 6.4% -20% of terminally differentiated CD8+ T cells with virus specificity; mature NK cells account for 43-82% of NK cells; early function blocking NK cells account for 36.3% -52.7% of NK cells; conventional killer NK cells account for 38.5% -64% of NK cells;
the measurement criteria of the index further include: the ratio of Th to Tc is 0.57-2.44; gamma delta T cells account for 0.5% -8.2% of T cells; v delta 1+ positive cells account for 8.2% -24% of gamma delta T cells; the ratio of (V delta 1 < + >/V delta 2 < + >) is 0.12-0.51.
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