CN115644829A - Mine rescue team member evaluation system that entries - Google Patents
Mine rescue team member evaluation system that entries Download PDFInfo
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- CN115644829A CN115644829A CN202211238226.6A CN202211238226A CN115644829A CN 115644829 A CN115644829 A CN 115644829A CN 202211238226 A CN202211238226 A CN 202211238226A CN 115644829 A CN115644829 A CN 115644829A
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Abstract
The invention relates to the technical field of psychological measurement, in particular to a mine rescue team member attendance evaluation system which comprises a data acquisition module, a psychological measurement module, a score statistics module and a data analysis module. According to the invention, professional talents suitable for mine rescue careers are screened according to the comprehensive assessment conclusion of the tested person, the physical signs and the psychological characteristics of the screened tested person have high relevance with the career characteristics of mine rescue, so that the personnel can adapt to mine rescue daily training and simulated actual combat drilling after entering the job, in addition, the influence on mine rescue work due to excessive stress reaction in a dangerous underground safety accident rescue environment is avoided, simultaneously, the post-disaster psychological health recovery process can be accelerated, and the psychological trauma of rescue finger fighters is avoided.
Description
Technical Field
The invention relates to the technical field of psychological measurement, in particular to a mine rescue team member attendance evaluation system.
Background
The mine rescue team member needs daily training and simulated actual combat drilling after entering into work, and the aim is to enable the rescue team member to have vigorous physical ability and to be capable of bearing heavy physical work in the rescue process of mine safety production accidents, and the second is to enable the rescue team member to gradually adapt to the occupational environment of mine rescue and to enable the rescue team member to keep normal work ability in the stress environment. In the process of processing mine safety production accidents, mine rescue finger fighters often put on dangers such as explosion, high temperature, water burst (penetration), roof fall, toxic and harmful gas and the like, sometimes directly face mishaped persons such as limb breakage and stump, groan, bleeding and the like, and the dangers, the hostile environments and the harsh scenes can cause the psychological imbalance of the mine rescue finger fighters to generate emotions such as tension, impatience, fear, anger, tiredness and the like, and the normal rescue ability can be lost seriously, so the requirement on the psychological traits of the mine rescue finger fighters is higher.
The psychological traits are unique, uniform and constant, and once established, there is uniform behavior whatever the person or thing is faced with. Therefore, based on the psychological measurement under the characteristic, the psychological characteristics of the tested person can be indirectly measured, talents suitable for mine rescue jobs are selected, and the forward movement of safe investigation is realized. However, the existing mine rescue enrollment evaluation method does not apply the technology of combining psychological measurement and physical characteristics to carry out talent selection, and the healthy and sustainable development of mine rescue teams is restricted. Therefore, a psychological measurement method suitable for mine rescue profession is needed to provide a basis for mine rescue teams to select talents suitable for the mine rescue profession.
Disclosure of Invention
The invention aims to provide a mine rescue team member entry evaluation system capable of carrying out talent selection according to the occupational characteristics of mine rescue.
The basic scheme provided by the invention is as follows: a mine rescue team member admission evaluating system comprises a physical sign data acquisition module, a psychological measurement module, a score statistics module and a data analysis module;
the data acquisition module is used for acquiring basic information and physical sign data of a measured person;
the psychological measurement module comprises a response module and a response option quantization standard sub-module; the response module is used for the tested person to select the corresponding option to respond according to the question; the response option quantitative standard sub-module is used for converting the response options of the testee into standard scores;
the score counting module comprises a physical sign data counting module and a psychological measurement data counting module;
and the data analysis module is used for obtaining an evaluation conclusion according to the results obtained by the physical sign data statistics module and the psychological measurement data statistics module.
The principle and the advantages of the invention are as follows: the physical condition of the tested person is reflected by the physical sign data of the tested person, and the information capturing capacity, the situation studying and judging capacity, the emotion and behavior control capacity of the tested person are indirectly reflected by the psychological measurement data, so that whether the tested person is suitable for mine rescue work is evaluated. The mine rescue team psychological ability assessment neck clamp has the advantages that the technical problem of neck clamping in psychological ability assessment in the process of talent selection of the mine rescue team is solved; the talents selected by the scheme have physical and psychological qualities suitable for the mine rescue career, and can quickly adapt to the daily training and the actual combat simulation drilling of mine rescue teams; the physical sign data and the psychological measurement data related to the scheme can provide reference basis for carrying out targeted training after working, and can also provide data support for mine rescue team commanders and fighters to establish physical and mental health management files.
The data acquisition module comprises information of a tested person and sign data. The information of the testee comprises name, age and marital status; the physical sign data comprises height, weight, heart rate, blood pressure, blood oxygen and vital capacity;
the score statistical module comprises a physical sign data statistical module and a psychological measurement data statistical module. The physical sign data statistical module comprises a height and weight statistical model, a heart rate statistical model, a blood pressure statistical model, a blood oxygen statistical model and a vital capacity statistical model;
specifically, the height and weight statistical model calculates the score (Z) according to the height (H, cm) and weight (W, kg) data of the tested person Nature of nature )：Z Nature of nature =5- | (W-H + 105) |/(0.04H-4.2) (when Z Nature of nature <1 hour, get Z Nature of nature =0）；
The heart rate statistical model is to calculate a score (Z) through the heart rate (Hr, times/min) of a tested person Heart with heart-shaped ），Z Heart of heart =5- | (Hr-80) |/5 (when Z Heart with heart-shaped <At 1 time, take Z Heart of heart =0）；
The statistical model of blood pressure is obtained by the systolic pressure fraction (Z) of the subject SBP ) And diastolic pressure fraction (Z) DBP ) Calculating out a score (Z) Blood pressure ），Z Blood pressure =(Z SBP +Z DBP ) (iv) the systolic blood pressure fraction (Z) SBP ) By the systolic pressure (S) of the person to be measured BP mmHg) is calculated as Z SBP =5-|(S BP -105) |/3.75 (when Z SBP <At 1 time, take Z SBP = 0); the diastolic pressure fraction (Z) DBP ) By diastolic pressure (D) of the subject BP mmHg) is calculated as Z DBP =5-|(D BP -70) |/2.5 (when Z DBP <At 1 time, take Z DBP =0）；
The blood oxygen statistic model is the blood oxygen saturation (B) of the subject o ) Calculating out a score (Z) Blood oxygen ），Z Blood oxygen =5-|(B o -90) |/2.5 (when Z Blood oxygen <At 1 time, take Z Blood oxygen =0）；
The statistical model of vital capacity is obtained by measuring the vital capacity (V) of the subject c Ml) calculating the score (Z) Lung (lung) ），Z Lung (lung) =5-|(B o 4000) |/500 (when B o ≧ 4000, take Z Lung (lung) =5; when B is present o <2000, take Z Lung (lung) =0）；
Obtaining sign evaluation data (A) according to the model calculation result Physical signs ）。A Physical signs =(Z Nature of nature +Z Heart with heart-shaped +Z Blood pressure +Z Blood oxygen +Z Lung (lung) ) (when Z is Nature of nature ×Z Heart with heart-shaped ×Z Blood pressure ×Z Blood oxygen ×Z Lung (lung) If =0, take A Physical signs =0）。
And the psychological measurement data statistical module is used for respectively obtaining corresponding personality traits, cognitive competence, emotion management ability and behavior control ability measurement scores according to the response scores.
The psychological measurement module comprises a response module, a score statistic module and a data analysis module, wherein the response module is used for quantizing the test questions answered by the tested person according to a standard score algorithm by the score statistic module, and the data analysis module is used for analyzing the physiological characteristics and the psychological characteristics of the tested person according to the measured scores;
specifically, in order to ensure the accuracy of data, the data acquisition module in the embodiment is obtained by manual input and measurement of a biofeedback device, the height and the weight are used for reflecting the natural condition of the body of the tested person, and whether the tested person can be well adapted to the low space environment in the underground coal mine is evaluated; the physiological index data is used for reflecting the physical condition of the tested person, so as to evaluate whether the physical condition of the tested person can adapt to daily training of a mine rescue team, simulation of disaster relief drilling and underground rescue. The response module is realized by testing questions, the response module in the embodiment comprises an inter-project structure analysis module, the inter-project structure analysis module comprises a project structure analysis model, and the project structure analysis model comprises four steps: establishing a project pool according to a psychometric basic theory and related documents; establishing a structural relationship between projects; analyzing relevance and errors of the items; and determining the test question. The score statistical module is realized by a score statistical model after obtaining a quantitative standard score according to the response options, and the score statistical model consists of two parts, including a sign data statistical model and a psychological measurement data statistical model. The physical sign data statistical model comprises a height and weight statistical model, a heart rate statistical model, a blood pressure statistical model, a blood oxygen statistical model and a vital capacity statistical model. And obtaining sign evaluation data according to the sign data statistical model.
The data analysis module draws an evaluation pentagon according to the statistical result, as shown in fig. 2. And (4) obtaining an evaluation conclusion according to the area of the pentagon, wherein the evaluation conclusion is whether the tested person is suitable for the mine rescue occupation, including unsuitable, basically suitable and suitable.
Specifically, as shown in fig. 2, the data analysis module includes a data analysis model, the data analysis model is composed of a sign axis, a personality trait axis, a cognitive competence axis, an emotion management axis, and a behavior control axis, coordinate points are determined on corresponding axes according to sign evaluation data, personality trait response data, cognitive competence response data, emotion management competence response data, and behavior control competence response data, pentagonal areas obtained by connecting the points are comprehensive evaluation scores, and an evaluation conclusion is obtained according to the comprehensive evaluation scores; the evaluation conclusion is that: the comprehensive evaluation score is more than or equal to 0 and less than 9.51, so that the testee is not suitable for engaging in mine rescue occupations; the comprehensive evaluation score is more than or equal to 9.51 and less than 21.4, so that the testee is basically suitable for the mine rescue occupation; the composite evaluation score is greater than or equal to 21.4 and less than 43, and is suitable for the testee to take the mine rescue profession.
Has the beneficial effects that: the natural condition of the tested person is reflected through the information of the tested person, and the marital condition can also indirectly reflect the social support condition which can be obtained by the tested person in the face of pressure; the physical condition of the tested person can be evaluated in a quantitative mode through the physical sign data, the obtained physical sign statistical score can be combined with the psychological measurement score, and the physical and psychological health condition of the tested person can be comprehensively evaluated so as to determine whether the tested person is suitable for the mine rescue occupation.
Psychometric measures are defined numerically for human behavior and psychological attributes. The idiosyncrasy is expressed as a series of explicit behaviors with internal connection, and the idiosyncrasy of the tested person can be indirectly judged by measuring the explicit behaviors of the tested person based on the unity of the idiosyncrasy and the behaviors, so that whether the tested person has the basic idiosyncrasy of taking part in mine rescue occupation or not is evaluated. The psychometric data can also provide basis for post-employment formulation of a targeted mental fitness training program.
Drawings
FIG. 1 is a logical framework diagram of the present invention;
fig. 2 is a diagram of a logic evaluation pentagon.
Detailed Description
The technical solution of the present invention is further defined below with reference to the specific embodiments, but the scope of the claims is not limited to the description.
Example 1
As shown in the attached figure 1, the mine rescue team member entry evaluating system comprises a data acquisition module, a response option quantization standard sub-module, a score statistical module and a data analysis module;
the data acquisition module comprises information of a tested person and sign data. The information of the tested person is used for storing the name, age and marital status of the tested person, and the physical sign data is used for acquiring the height, weight, heart rate, blood pressure, blood oxygen and vital capacity of the tested person;
the answer module is used for answering the corresponding test questions by the tested person in a man-machine mode;
the response option quantitative standard sub-module calculates a response score according to the response option of the testee;
the score counting module comprises a physical sign data counting module psychometric data counting module. The physical sign data statistical module comprises a height and weight statistical model, a heart rate statistical model, a blood pressure statistical model, a blood oxygen statistical model and a vital capacity statistical model;
specifically, the height and weight statistical model calculates the score (Z) according to the height (H, cm) and weight (W, kg) data of the measured person Nature of nature )：Z Nature of nature =5- | (W-H + 105) |/(0.04H-4.2) (when Z Nature of nature <At 1 time, take Z Nature of nature =0）；
The heart rate statistical model is to calculate a score (Z) through the heart rate (Hr, times/min) of a tested person Heart with heart-shaped ），Z Heart with heart-shaped =5- | (Hr-80) |/5 (when Z Heart with heart-shaped <At 1 time, take Z Heart with heart-shaped =0）；
The statistical model of blood pressure is obtained by the systolic pressure fraction (Z) of the subject SBP ) And diastolic pressure fraction (Z) DBP ) Calculating out a score (Z) Blood pressure ），Z Blood pressure =(Z SBP +Z DBP ) (iii) the systolic pressure fraction (Z) SBP ) By the systolic pressure (S) of the person to be measured BP mmHg) is calculated as Z SBP =5-|(S BP -105) |/3.75 (when Z SBP <1 hour, get Z SBP = 0); the diastolic blood pressure fraction (Z) DBP ) By diastolic pressure (D) of the subject BP mmHg) is calculated as Z DBP =5-|(D BP -70) |/2.5 (when Z DBP <At 1 time, take Z DBP =0）；
The blood oxygen saturation statistical model is the blood oxygen saturation (B) of the person to be measured o ) Calculating out a score (Z) Blood oxygen ），Z Blood oxygen =5-|(B o -90) |/2.5 (when Z Blood oxygen <At 1 time, take Z Blood oxygen =0）；
The statistical model of vital capacity is obtained by measuring the vital capacity (V) of the subject c Ml) calculating the score (Z) Lung (lung) ），Z Lung (lung) =5-|(B o 4000) |/500 (when B o ≧ 4000, get Z Lung (lung) =5; when B is present o <2000, take Z Lung (lung) =0）；
Obtaining sign evaluation data (A) according to the model calculation result Physical signs ）。A Physical signs =(Z Nature of nature +Z Heart with heart-shaped +Z Blood pressure +Z Blood oxygen +Z Lung (lung) ) (when Z is Nature of nature ×Z Heart with heart-shaped ×Z Blood pressure ×Z Blood oxygen ×Z Lung (lung) If =0, take A Physical signs =0）。
And the psychological measurement data statistical module is used for respectively obtaining corresponding personality traits, cognitive ability, emotion management ability and behavior control ability measurement scores according to the response scores.
The psychological measurement module comprises a response module, a score statistic module and a data analysis module, wherein the response module quantifies the test questions answered by the tested person according to a standard score algorithm by the score statistic module, and the data analysis module analyzes the physiological characteristics and the psychological characteristics of the tested person according to the measured scores;
specifically, in order to ensure the accuracy of data, the data acquisition module in the embodiment is obtained by manual input and measurement of a biofeedback device, the height and the weight are used for reflecting the natural condition of the body of the tested person, and whether the tested person can be well adapted to the low space environment in the underground coal mine is evaluated; the physiological index data is used for reflecting the physical condition of the tested person, so as to evaluate whether the physical condition of the tested person can adapt to daily training of mine rescue teams, simulation of disaster relief drilling and underground rescue. The response module is realized by testing questions, the response module in the embodiment comprises an inter-project structure analysis module, the inter-project structure analysis module comprises a project structure analysis model, and the project structure analysis model comprises four steps: establishing a project pool according to a psychometric basic theory and relevant documents; establishing a structural relationship between projects; analyzing relevance and errors of the items; and determining the test question. The score statistical module is realized by a score statistical model after obtaining a quantitative standard score according to the response options, and the score statistical model consists of two parts, including a sign data statistical model and a psychological measurement data statistical model. The physical sign data statistical model comprises a height and weight statistical model, a heart rate statistical model, a blood pressure statistical model, a blood oxygen statistical model and a vital capacity statistical model. And obtaining sign evaluation data according to the sign data statistical model.
The data analysis module draws an evaluation pentagon according to the statistical result, as shown in fig. 2. And (4) obtaining an evaluation conclusion according to the area of the pentagon, wherein the evaluation conclusion is whether the tested person is suitable for the mine rescue occupation, including unsuitable, basically suitable and suitable.
Specifically, as shown in fig. 2, the data analysis module includes a data analysis model, the data analysis model is composed of a sign axis, a personality trait axis, a cognitive competence axis, an emotion management axis, and a behavior control axis, coordinate points are determined on corresponding axes according to sign evaluation data, personality trait response data, cognitive competence response data, emotion management competence response data, and behavior control competence response data, pentagonal areas obtained by connecting the points are comprehensive evaluation scores, and an evaluation conclusion is obtained according to the comprehensive evaluation scores; the evaluation conclusion is that: the comprehensive evaluation score is more than or equal to 0 and less than 9.51, and the tested person is not suitable for the mine rescue occupation; the comprehensive evaluation score is more than or equal to 9.51 and less than 21.4, so that the testee is basically suitable for the mine rescue occupation; the composite evaluation score is greater than or equal to 21.4 and less than 43, and is suitable for the testee to take the mine rescue profession.
Claims (7)
1. A mine rescue team member admission evaluating system is characterized by comprising a physical sign data acquisition module, a psychological measurement module, a score statistics module and a data analysis module; the sign data acquisition module is used for acquiring basic information and sign data of a measured person; the psychological measurement module comprises a response module and a response option quantization standard sub-module; the response module is used for the tested person to select the corresponding option to respond according to the question; the response option quantification standard sub-module is used for converting the response options of the testee into standard scores; the score counting module comprises a physical sign data counting module and a psychological measurement data counting module; and the data analysis module is used for obtaining an evaluation conclusion according to the results obtained by the physical sign data statistics module and the psychological measurement data statistics module.
2. The mine rescue team member entry evaluation system of claim 1, wherein the basic information of the testee includes name, age, marital status.
3. The mine rescue team member entry evaluation system of claim 1, wherein the vital sign data includes height, weight, heart rate, blood pressure, blood oxygen saturation, lung capacity.
4. The mine rescue team member entry evaluation system of claim 1, wherein the score statistics module comprises a physical sign data statistics module and a psychometric data statistics module, and the physical sign data statistics module is used for calculating a height and weight statistics model, a heart rate statistics model, a blood pressure statistics model, a blood oxygen saturation statistics model and a lung capacity statistics model.
5. The mine rescue team member entry evaluation system of claim 1, wherein the vital sign data statistics module executes logic to:
the height and weight statistical model is obtained by calculating the score (Z) according to the height (H, cm) and weight (W, kg) data of the tested person Nature of nature )：Z Nature of nature =5- | (W-H + 105) |/(0.04H-4.2) (when Z Nature of nature <1 hour, get Z Nature of nature =0）；
The heart rate statistic model is the heart rate (H) of the person to be tested r Times/min) to obtain a score (Z) Heart with heart-shaped ），Z Heart with heart-shaped =5-|(H r -80) |/5 (when Z Heart of heart <At 1 time, take Z Heart of heart =0）；
The statistical model of blood pressure is based on the systolic blood pressure fraction (Z) of the subject SBP ) And diastolic pressure fraction (Z) DBP ) Calculating out a score (Z) Blood pressure ），Z Blood pressure =(Z SBP +Z DBP ) (iii) the systolic pressure fraction (Z) SBP ) By the systolic pressure (S) of the person to be measured BP mmHg) is calculated as Z SBP =5-|(S BP -105) |/3.75 (when Z SBP <1 hour, get Z SBP = 0); diastolic fraction (Z) DBP ) By diastolic pressure (D) of the subject BP mmHg) is calculated as Z DBP =5-|(D BP -70) |/2.5 (when Z DBP <At 1 hourTaking Z DBP =0）；
The blood oxygen saturation statistical model is the blood oxygen saturation (B) of the person to be measured o ) Calculating out a score (Z) Blood oxygen ），Z Blood oxygen =5-|(B o -90) |/2.5 (when Z Blood oxygen <At 1 time, take Z Blood oxygen =0）；
The statistical model of the lung capacity is the lung capacity (V) of the tested person c Ml) calculating the score (Z) Lung (lung) ），Z Lung (lung) =5-|(B o -4000) |/500 (when B o ≧ 4000, get Z Lung (lung) =5; when B is present o <2000, take Z Lung (lung) =0）；
Obtaining sign evaluation data (A) according to the model calculation result Physical signs ），A Physical signs =(Z Nature of nature +Z Heart of heart +Z Blood pressure +Z Blood oxygen +Z Lung (lung) ) (when Z is Nature of nature ×Z Heart of heart ×Z Blood pressure ×Z Blood oxygen ×Z Lung (lung) When =0, take A Physical signs =0）。
6. The mine rescue team member attendance evaluation system of claim 1, wherein the psychometric data statistics module is configured to derive corresponding personality traits, cognitive abilities, emotional management abilities, and behavior control ability measurement scores according to the response scores.
7. The mine rescue team member entry evaluation system of claim 1, wherein the psychometric module includes a response module, a score statistic module and a data analysis module, the response module quantifies the test questions answered by the test person according to a standard score algorithm, and the data analysis module analyzes the psychometric characteristics of the test person according to the measured scores;
the psychological measurement module comprises a response module, a score statistics module and a data analysis module, wherein the response module stores corresponding test questions, and the tested person answers the test questions within a specified time and stores answering contents; the score counting module stores the point scores of the standard answers of the test questions and calculates the scores of the answering contents of the tested person according to the points; the data analysis module analyzes the psychological traits of the tested person according to the score conditions of all parts of the answer;
the data analysis module comprises a data analysis model, the data analysis model consists of a sign axis, a personality trait axis, a cognitive ability axis, an emotion management axis and a behavior control axis, coordinate points are determined on corresponding axes according to sign evaluation data, personality trait response data, cognitive ability response data, emotion management ability response data and behavior control ability response data, pentagonal areas obtained by connecting all points are comprehensive evaluation scores, and an evaluation conclusion is obtained according to the comprehensive evaluation scores; the evaluation conclusion is that: the comprehensive evaluation score is more than or equal to 0 and less than 9.51, so that the testee is not suitable for engaging in mine rescue occupations; the comprehensive evaluation score is more than or equal to 9.51 and less than 21.4, so that the testee is basically suitable for the mine rescue occupation; the composite evaluation score is greater than or equal to 21.4 and less than 43, and is suitable for the testee to take the mine rescue profession.
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