CN113693599A - Psychological evaluation system for human heart recognition - Google Patents
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Abstract
The invention relates to a psychological evaluation system for human heart recognition, which comprises: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector; the vegetative nerve signal collector is used for collecting vegetative nerve signals of a user in real time; the display is used for displaying the evaluation questions and the mental health evaluation results to the user; the image collector is used for collecting facial images of the user in real time; the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display, and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a psychological health evaluation result and transmitting the psychological health evaluation result to the display. The system evaluates the psychology of the user through the vegetative nerve signals collected by the vegetative nerve signal collector and the images collected by the image collector, and realizes the objective evaluation of the mental health state.
Description
Technical Field
The invention relates to the technical field of psychological evaluation, in particular to a psychological evaluation system for human heart recognition.
Background
With the accelerated social rhythm, people are faced with huge psychological pressure, and are easy to have psychological stress reactions such as fatigue, loneliness, anxiety, depression, panic and the like, so that the psychological problem becomes a social problem.
Psychological problems can be transformed into psychologic diseases if the psychological problems are not treated well, and great negative effects are brought to the mind and body of the nation and the work.
Disclosure of Invention
Technical problem to be solved
In view of the above-mentioned shortcomings and drawbacks of the prior art, the present invention provides a psychological assessment system for human heart recognition.
(II) technical scheme
In order to achieve the purpose, the invention adopts the main technical scheme that:
a psychological assessment system for human mind recognition, the system comprising: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector;
the vegetative nerve signal collector is used for collecting vegetative nerve signals of a user in real time;
the display is used for displaying the evaluation questions and the mental health evaluation results to the user;
the image collector is used for collecting facial images of the user in real time;
the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a mental health evaluation result and transmitting the mental health evaluation result to the display.
Optionally, the autonomic nerve signal processor is configured to:
acquiring the corresponding relation between the evaluation questions displayed by the display and the display time;
sequencing the autonomic nervous signals collected by the autonomic nervous signal collector according to a time sequence to form an autonomic nervous sequence number sequence PA(ii) a The vegetative nerve signal set PAEach of which isComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,PAOf (2) element(s)The vegetative nerve signals collected by the vegetative nerve signal collector correspond to one another, and P isAAny one of the elements ofData value of Time value ofThe acquisition time of A (x), A (x) is the x-th vegetative nerve signal acquired by the vegetative nerve signal acquisition device, and x is the vegetative nerve signal identification acquired by the vegetative nerve signal acquisition device;
extracting facial features of each frame of facial image acquired by the image acquirer, and forming a facial feature set F based on a time sequence, wherein each element in the facial feature set F comprises 2 dimensions, one dimension is a facial feature value of the corresponding facial image, and the other dimension is the acquisition time of the corresponding facial image for the time value;
according to the corresponding relation, PAAnd obtaining a mental health evaluation result by the facial feature set F.
Optionally, the information is obtained according to the corresponding relation and PAThe obtaining of the mental health evaluation result specifically comprises the following steps:
according to vegetative nerve signal set PAForming corresponding vegetative nerve difference set deltaASaid vegetative nerve difference set deltaAEach element of (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,ΔAOf (2) element(s)The vegetative nerve signals are in one-to-one correspondence with the vegetative nerve signals collected by the vegetative nerve signal collector;
inputting the autonomic nerve signals collected by the autonomic nerve signal collector into a nerve network model, performing feature recognition to obtain the features of the autonomic nerve signal value of each element in the autonomic nerve signals, and further forming a corresponding feature set IAThe set of features IAEach element ofComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,IAOf (2) element(s)Corresponds to the vegetative nerve signals collected by the vegetative nerve signal collector one by one, anddata value ofIs characterized by the feature of A (x),time value of
According to vegetative nerve difference set deltaAAnd feature set IAObtaining the variant sequence CA;
According to the corresponding relation, CAAnd obtaining a mental health evaluation result by the facial feature set F.
Alternatively,
for vegetative nerve signal set PALast element in (1)It is related toALast element in (1)Correspond to, anddata value of Time value ofIs composed ofTime value of wherein ,xlSet P for vegetative nerve signalsAThe identity of the last element in;
for vegetative nerve signal set PANon-last element of (1)Its one-to-one correspondence ΔAAn element ofAnd isData value of Time value of wherein ,xjSet P for vegetative nerve signalsAIs not the identification of the last element.
Optionally, the sequence of variations CAEach element in (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
Wherein the vegetative nerve signal set PAAny one element ofOne-to-one correspondence change sequence CAAn element ofAnd isData value ofTime value ofD1(x) Is based on the vegetative nerve difference set deltaAThe first vegetative nerve parameter, D2(x) Is based on feature set IAAnd obtaining a second autonomic nervous parameter.
Optionally, theIs vegetative nerve difference set deltaAThe maximum of the data values of all elements,is vegetative nerve difference set deltaAThe minimum of the data values of all elements,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements,is set forth as feature set IAMean of data values for all elements.
wherein ,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements;
delta-vegetative nerve difference set deltaATime difference between maximum and minimum of data values of all elements/feature set IAThe time difference between the maximum and minimum of the data values of all elements.
Optionally, the step C is carried out according to the corresponding relationAThe obtaining of the mental health evaluation result by the facial feature set F specifically comprises the following steps:
According to the corresponding relation, determining theCorresponding evaluation questions are obtained, and further evaluation questions and C are obtainedAThe corresponding relation of the middle elements;
obtaining the corresponding relation between the evaluation question and the elements in the F according to the time values of the elements in the F and the corresponding relation;
for each question, determining C corresponding to each questionAElements forming a corresponding set of elementsAnd determining F element corresponding to the F element to form corresponding element set
Based on the standard variation value corresponding to each topic,andand obtaining a psychological health evaluation result.
Optionally, the standard variation value corresponding to each topic based on each topic,andthe obtaining of the mental health evaluation result specifically comprises the following steps:
for any subject B, its corresponding CAThe element set isCorresponding F element set isThen calculateWherein y isMiddle element identification, Y identificationThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index y,is a setMean of all the element data values in;
computingWherein u isMiddle element identification, U isThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index u,is a setThe average of all the element data values in (a),is a setMaximum value of all element data values in;
according toDetermining the score of the question B according to the standard variation value corresponding to the question B;
and determining the psychological health evaluation result according to the scores of all the questions.
Optionally, the said according toDetermining the score of the topic B according to the standard change corresponding to the topic B specifically includes:
(III) advantageous effects
The psychological evaluation system for human mind recognition of the present invention comprises: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector; the autonomic nerve signal collector is used for collecting autonomic nerve signals of a user in real time; the display is used for displaying the evaluation questions and the mental health evaluation results to the user; the image collector is used for collecting facial images of a user in real time; the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a psychological health evaluation result and transmitting the psychological health evaluation result to the display. The system evaluates the psychology of the user through the vegetative nerve signals collected by the vegetative nerve signal collector and the images collected by the image collector, and realizes the objective evaluation of the mental health state.
Drawings
Fig. 1 is a schematic structural diagram of a psychological assessment system for human mind recognition according to an embodiment of the present invention.
Detailed Description
For the purpose of better explaining the present invention and to facilitate understanding, the present invention will be described in detail by way of specific embodiments with reference to the accompanying drawings.
With the accelerated social rhythm, people are faced with huge psychological pressure, and are easy to have psychological stress reactions such as fatigue, loneliness, anxiety, depression, panic and the like, so that the psychological problem becomes a social problem. Psychological problems can be transformed into psychologic diseases if the psychological problems are not treated well, and great negative effects are brought to the mind and body of the nation and the work.
The invention provides a psychological evaluation system for human heart recognition, which comprises: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector; the autonomic nerve signal collector is used for collecting autonomic nerve signals of a user in real time; the display is used for displaying the evaluation questions and the mental health evaluation results to the user; the image collector is used for collecting facial images of a user in real time; the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a psychological health evaluation result and transmitting the psychological health evaluation result to the display. The system evaluates the psychology of the user through the vegetative nerve signals collected by the vegetative nerve signal collector and the images collected by the image collector, and realizes the objective evaluation of the mental health state.
In particular implementations, a psychometric questionnaire may be provided to a user, and the user is psychometric by a psychometric system for human recognition as shown in fig. 1 in answering the questionnaire.
Referring to fig. 1, the psychological evaluation system for human mind recognition provided in this embodiment includes: the device comprises a vegetative nerve signal collector, a vegetative nerve signal processor, a display and an image collector.
Wherein, the autonomic nerve signal processor is respectively connected with the autonomic nerve signal collector, the image collector and the display.
1. Vegetative nerve signal collector
And the vegetative nerve signal collector is used for collecting vegetative nerve signals of the user in real time.
2. Image collector
And the image collector is used for collecting the facial image of the user in real time.
3. Display device
And the display is used for displaying the evaluation questions and the mental health evaluation results to the user.
4. Vegetative nerve signal processor
And the vegetative nerve signal processor is used for processing the image acquired by the image acquisition device and the vegetative nerve signal acquired by the vegetative nerve signal acquisition device according to the evaluation questions displayed by the display to obtain a psychological health evaluation result and transmitting the psychological health evaluation result to the display.
During specific implementation, the evaluation questions are displayed to a user by the display, the vegetative nerve signal collector collects vegetative nerve signals of the user in real time in the answering process of the user, the image collector collects facial images of the user in real time, the vegetative nerve signals collected by the vegetative nerve signal collector are transmitted to the vegetative nerve signal processor, and the image collector also transmits the collected facial images to the vegetative nerve signal processor. And the vegetative nerve signal processor processes the image acquired by the image acquisition device and the vegetative nerve signal acquired by the vegetative nerve signal acquisition device according to the evaluation questions displayed by the display to obtain a psychological health evaluation result, transmits the psychological evaluation result to the display, and displays the evaluation result by the display.
The vegetative nerve signal processor processes the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display, and the process of obtaining the psychological health evaluation result is as follows:
the autonomic nerve signal processor firstly acquires the corresponding relation between the evaluation questions displayed by the display and the display time, and simultaneously, the autonomic nerve signal processor sorts the autonomic nerve signals acquired by the autonomic nerve signal acquisition device according to the time sequence to form an autonomic nerve sequence number sequence PAAnd the mind signal processor extracts the facial features of each frame of facial image collected by the image collector, forms a facial feature set F based on time sequence, and finally forms a facial feature set F according to the corresponding relation and PAAnd obtaining a mental health evaluation result by the facial feature set F.
Wherein, the vegetative nerve signal set P obtained by the vegetative nerve signal processorAEach of the elementsComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
PAOf (2) element(s)The vegetative nerve signals collected by the vegetative nerve signal collector correspond to one another, and P isAAny one of the elements ofData value of Time value ofThe acquisition time is A (x), A (x) is the x-th vegetative nerve signal acquired by the vegetative nerve signal acquirer, and x is the vegetative nerve signal identification acquired by the vegetative nerve signal acquirer.
For example, the autonomic nerve signal collector collects 1-5 ms autonomic nerve signals S of the user AAAs shown in Table 1, the autonomic nerve signal processor will then assign SAGenerating a set of autonomic nervous signals PA,PAThe method comprises 5 elements, each element comprises 2 dimensions, the first dimension is the corresponding value of A (x), and the second dimension is the acquisition time of the value.
TABLE 1
Autonomic nerve signal identification | 0 | 1 | 2 | 3 | 4 |
Vegetative nerve signal value | A(0) | A(1) | A(2) | A(3) | A(4) |
Vegetative nerve signal acquisition time | 1 | 2 | 3 | 4 | 5 |
E.g. PAThe 5 elements of (c) are: wherein ,data value ofIs a (0) of a,time value ofIs 1.Data value ofIs a compound of formula (A) 1,time value ofIs 2.Data value ofIs a compound of formula (2),time value ofIs 3.Data value ofIs a compound of formula (A) 3,time value ofIs 4.Data value ofIs A (4),time value ofIs 5.
It should be noted that, the identification of the autonomic nervous signals from 0 and the identification of the elements in the P set from 0 in table 1 are only examples, and in practical applications, the identification may be started from 1, or may be started from any identification point, which is not limited in this embodiment.
Similarly, the identifiers appearing in the present embodiment are all started from 0 as an example, and the identifiers may be started from other identifiers in actual application.
In addition, each element in the facial feature set F includes 2 dimensions, one dimension is a facial feature value of its corresponding facial image, and the other dimension is a time value of the acquisition time of its corresponding facial image.
In addition, the vegetative nerve signal collector is used for collecting the vegetative nerve signals according to the corresponding relation PAAnd the specific process of obtaining the mental health evaluation result by the facial feature set F is as follows:
1) the vegetative nerve signal collector collects P according to the vegetative nerve signalAForming corresponding vegetative nerve difference set deltaAVegetative nerve difference set deltaAEach element of (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
wherein ,ΔAOf (2) element(s)Vegetative nerve signal collected by vegetative nerve signal collectorAnd correspond to each other.
In particular, the method comprises the following steps of,
for vegetative nerve signal set PALast element in (1)It is related toALast element in (1)Correspond to, anddata value of Time value ofIs composed ofTime value of wherein ,xlSet P for vegetative nerve signalsAThe identity of the last element in (a).
For vegetative nerve signal set PANon-last element of (1)Its one-to-one correspondence ΔAAn element ofAnd isData value of Time value of wherein ,xjSet P for vegetative nerve signalsAIs not the identification of the last element.
For example, if the signal processor obtains the set of autonomic nerve signals asThe vegetative nerve difference set Δ also has 5 elements, which are: wherein ,data value of Time value of Data value of Time value of Data value of Time value of Data value of Time value of Data value of Time value of
2) The vegetative nerve signal collector inputs the vegetative nerve signals collected by the vegetative nerve signal collector into the nerve network model for feature recognition to obtain the feature of the vegetative nerve signal value of each element in the vegetative nerve signals, and then a corresponding feature set I is formedASet of features IAEach element ofComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
wherein ,IAOf (2) element(s)Corresponds to the vegetative nerve signals collected by the vegetative nerve signal collector one by one, anddata value ofIs characterized by the feature of A (x),time value of
For example, the autonomic nerve Signal SAThe corresponding feature set I also includes 5 elements, which are: wherein ,data value ofIs the characteristic value of A (0),time value of Data value ofIs the characteristic value of A (1),time value of Data value ofIs the characteristic value of A (2),time value of Data value ofIs the characteristic value of A (3),time value of Data value ofIs the characteristic value of A (4),time value of
3) The vegetative nerve signal collector collects delta according to vegetative nerve differenceAAnd feature set IAObtaining the variant sequence CA。
Variant sequence CAEach element in (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
Wherein, the vegetative nerve signal set PAAny one element ofOne-to-one correspondence change sequence CAAn element ofAnd isData value of Time value ofD1(x) Is based on the vegetative nerve difference set deltaAThe first vegetative nerve parameter, D2(x) Is based on feature set IAAnd obtaining a second autonomic nervous parameter.
Is vegetative nerve difference set deltaAThe maximum of the data values of all elements,is vegetative nerve difference set deltaAThe minimum of the data values of all elements,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements,is set forth as feature set IAMean of data values for all elements.
wherein ,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements.
Delta-vegetative nerve difference set deltaATime difference between maximum and minimum of data values of all elements/feature set IAThe time difference between the maximum and minimum of the data values of all elements.
Also as an example, change set CAThe number of the elements in (1) is also 5, respectively Data value of Time value of wherein , data value of Time value of wherein , data value of Time value of wherein , data value of Time value of wherein , data value of Time value of wherein ,
by doing so, an autonomic nerve signal S can be obtainedACorresponding to a vegetative nerve signal set PAAn vegetative nerve difference set ΔAA feature set IAAnd a variant sequence CA。
PA、ΔA、IA、CANumber of middle element and SAThe number of middle signals is the same, and PA、ΔA、IA、CAAll elements in the same time value correspond to SAThe same signal in (1). Passing time valueCan find SAIn which each signal is in PA、ΔA、IA、CATo the corresponding elements in (1). That is, by the time value t, and t is at PA、ΔA、IA、CAThe element in (1) can know SAA signal value, a difference value, a characteristic value, and a variance. By tracking the above situation, the real response of the autonomic nerve signals of the user to the inner heart can be obtained.
4) The vegetative nerve signal collector is used for collecting the vegetative nerve signals according to the corresponding relation CAAnd obtaining a mental health evaluation result by the facial feature set F.
For the same time t, the autonomic nerve signal processor can determine the evaluation questions displayed by the display at the time, and the autonomic nerve signal processor can also obtain the autonomic nerve signals of the user at the time, and the signal values, the difference values, the characteristic values and the change conditions corresponding to the autonomic nerve signals. The autonomic nerve signal processor will also get an image of the user's face at that moment.
However, the user continues for a period of time when answering each evaluation question, the total time of each question is displayed on the display as the answering time of each question, and a series of corresponding facial images, a series of corresponding autonomic nervous signals, and corresponding signal values, difference values, characteristic values and change conditions can be obtained according to the answering time of each question. The autonomic nervous signal processor can evaluate the psychology of the user in answering each question according to the series of parameters with the same time attribute (i.e. t).
In particular, the method comprises the following steps of,
(2) According to the corresponding relationship, determining theCorresponding evaluation questions are obtained, and further evaluation questions and C are obtainedACorresponding relation of middle elementIs described.
(3) And obtaining the corresponding relation between the evaluation questions and the elements in the F according to the time values and the corresponding relation of the elements in the F.
(4) For each question, determining C corresponding to each questionAElements forming a corresponding set of elementsAnd determining F element corresponding to the F element to form corresponding element set
Executing each question to correspond to one element setAnd a set of elements The change situation of the autonomic nervous signals of the user answering each question is characterized,facial images of the user answering each question are characterized.
(5) Based on the standard variation value corresponding to each topic,andand obtaining a psychological health evaluation result.
For example, for any topic B, its corresponding CAThe element set isCorresponding F element set isThen calculateAndaccording toThe standard variation value corresponding to topic B determines the score of topic B. And determining the psychological health evaluation result according to the scores of all the questions.
Wherein y isMiddle element identification, Y identificationThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index y,is a setAverage of all element data values in (a).
u isMiddle element identification, U isThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index u,is a setThe average of all the element data values in (a),is a setThe maximum value of all element data values in.
The standard variation value is a standard determined when evaluating the subject design.
In addition, the existing process can be adopted according to the scores of all the questions and the process of determining the mental health evaluation result, for example, the scores of all the questions are added, and according to which score segment the added result belongs to, the mental health evaluation result is the result corresponding to the score segment.
The autonomic nerve signals are governed and adjusted by cerebral cortex and hypothalamus, but are not controlled by the will of people, that is, the user can control the emotion, expression, heartbeat, blood and the like, avoid showing the real psychology of the user and cause error of the evaluation result, but cannot control the autonomic nerve signals, so that the truest reaction of the user can be obtained through analyzing the autonomic nerve signals, the final evaluation result is not controlled by people to generate errors, and the accuracy and the objectivity of the evaluation result obtained by the system are improved.
The embodiment relates to a psychological evaluation system for human heart recognition, which comprises: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector; the autonomic nerve signal collector is used for collecting autonomic nerve signals of a user in real time; the display is used for displaying the evaluation questions and the mental health evaluation results to the user; the image collector is used for collecting facial images of a user in real time; the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a psychological health evaluation result and transmitting the psychological health evaluation result to the display. The system evaluates the psychology of the user through the vegetative nerve signals collected by the vegetative nerve signal collector and the images collected by the image collector, and realizes the objective evaluation of the mental health state.
In order to better understand the above technical solutions, exemplary embodiments of the present invention will be described in more detail below with reference to the accompanying drawings. While exemplary embodiments of the invention are shown in the drawings, it should be understood that the invention can be embodied in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the invention to those skilled in the art.
As will be appreciated by one skilled in the art, embodiments of the present invention may be provided as a method, system, or computer program product. Accordingly, the present invention may take the form of an entirely hardware embodiment, an entirely software embodiment or an embodiment combining software and hardware aspects. Furthermore, the present invention may take the form of a computer program product embodied on one or more computer-usable storage media (including, but not limited to, disk storage, CD-ROM, optical storage, and the like) having computer-usable program code embodied therein.
The present invention is described with reference to flowchart illustrations and/or block diagrams of methods, apparatus (systems) and computer program products according to embodiments of the invention. It will be understood that each flow and/or block of the flow diagrams and/or block diagrams, and combinations of flows and/or blocks in the flow diagrams and/or block diagrams, can be implemented by computer program instructions.
It should be noted that in the claims, any reference signs placed between parentheses shall not be construed as limiting the claim. The word "comprising" does not exclude the presence of elements or steps not listed in a claim. The word "a" or "an" preceding an element does not exclude the presence of a plurality of such elements. The invention may be implemented by means of hardware comprising several distinct elements, and by means of a suitably programmed computer. In the claims enumerating several means, several of these means may be embodied by one and the same item of hardware. The use of the terms first, second, third and the like are for convenience only and do not denote any order. These words are to be understood as part of the name of the component.
Furthermore, it should be noted that in the description of the present specification, the description of the term "one embodiment", "some embodiments", "examples", "specific examples" or "some examples", etc., means that a specific feature, structure, material or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the terms used above are not necessarily intended to refer to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples. Furthermore, various embodiments or examples and features of different embodiments or examples described in this specification can be combined and combined by one skilled in the art without contradiction.
While preferred embodiments of the present invention have been described, additional variations and modifications in those embodiments may occur to those skilled in the art once they learn of the basic inventive concepts. Therefore, the claims should be construed to include preferred embodiments and all changes and modifications that fall within the scope of the invention.
It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit or scope of the invention. Thus, if such modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention should also include such modifications and variations.
Claims (10)
1. A psychological assessment system for human mind recognition, said system comprising: the system comprises an autonomic nerve signal collector, an autonomic nerve signal processor, a display and an image collector;
the vegetative nerve signal collector is used for collecting vegetative nerve signals of a user in real time;
the display is used for displaying the evaluation questions and the mental health evaluation results to the user;
the image collector is used for collecting facial images of the user in real time;
the vegetative nerve signal processor is respectively connected with the vegetative nerve signal collector, the image collector and the display and is used for processing the image collected by the image collector and the vegetative nerve signal collected by the vegetative nerve signal collector according to the evaluation questions displayed by the display to obtain a mental health evaluation result and transmitting the mental health evaluation result to the display.
2. The system of claim 1, wherein the autonomic nerve signal processor is configured to:
acquiring the corresponding relation between the evaluation questions displayed by the display and the display time;
sequencing the autonomic nervous signals collected by the autonomic nervous signal collector according to a time sequence to form an autonomic nervous sequence number sequence PA(ii) a The vegetative nerve signal set PAEach of which isComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,PAOf (2) element(s)The vegetative nerve signals collected by the vegetative nerve signal collector correspond to one another, and P isAAny one of the elements ofData value of Time value ofThe acquisition time of A (x), A (x) is the x-th vegetative nerve signal acquired by the vegetative nerve signal acquisition device, and x is the vegetative nerve signal identification acquired by the vegetative nerve signal acquisition device;
extracting facial features of each frame of facial image acquired by the image acquirer, and forming a facial feature set F based on a time sequence, wherein each element in the facial feature set F comprises 2 dimensions, one dimension is a facial feature value of the corresponding facial image, and the other dimension is the acquisition time of the corresponding facial image for the time value;
according to the corresponding relation, PAAnd obtaining a mental health evaluation result by the facial feature set F.
3. The system of claim 2, wherein said mapping is based on said correspondence and PAThe obtaining of the mental health evaluation result specifically comprises the following steps:
according to vegetative nerve signal set PAForming corresponding vegetative nerve difference set deltaASaid vegetative nerve difference set deltaAEach element of (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,ΔAOf (2) element(s)The vegetative nerve signals are in one-to-one correspondence with the vegetative nerve signals collected by the vegetative nerve signal collector;
inputting the autonomic nerve signals collected by the autonomic nerve signal collector into a nerve network model, performing feature recognition to obtain the features of the autonomic nerve signal value of each element in the autonomic nerve signals, and further forming a corresponding feature set IAThe set of features IAEach element ofComprises 2 dimensions, one dimension being a data valueAnother dimension is a time value wherein ,IAOf (2) element(s)Corresponds to the vegetative nerve signals collected by the vegetative nerve signal collector one by one, anddata value ofIs characterized by the feature of A (x),time value of
According to vegetative nerve difference set deltaAAnd feature set IAObtaining the variant sequence CA;
According to the corresponding relation, CAAnd obtaining a mental health evaluation result by the facial feature set F.
4. The system of claim 3, wherein:
for vegetative nerve signal set PALast element in (1)It is related toALast element in (1)Correspond to, anddata value of Time value ofIs composed ofTime value of wherein ,xlSet P for vegetative nerve signalsAThe identity of the last element in;
5. The system of claim 4, wherein the sequence of changes CAEach element in (1)Comprises 2 dimensions, one dimension being a data valueAnother dimension is a time value
Wherein the vegetative nerve signal set PAAny one element ofOne-to-one correspondence change sequence CAAn element ofAnd isData value of Time value ofD1(x) Is based on the vegetative nerve difference set deltaAThe first vegetative nerve parameter, D2(x) Is based on feature set IAAnd obtaining a second autonomic nervous parameter.
6. The system of claim 5, wherein the system is configured to perform Is vegetative nerve difference set deltaAThe maximum of the data values of all elements,is vegetative nerve difference set deltaAThe minimum of the data values of all elements,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements,is set forth as feature set IAMean of data values for all elements.
wherein ,is set forth as feature set IAThe maximum of the data values of all elements,is set forth as feature set IAThe minimum of the data values of all elements;
delta-vegetative nerve difference set deltaATime difference between maximum and minimum of data values of all elements/feature set IAThe time difference between the maximum and minimum of the data values of all elements.
8. The system of claim 7, wherein the first and second sensors are arranged in a single package,wherein C is the correspondenceAThe obtaining of the mental health evaluation result by the facial feature set F specifically comprises the following steps:
According to the corresponding relation, determining theCorresponding evaluation questions are obtained, and further evaluation questions and C are obtainedAThe corresponding relation of the middle elements;
obtaining the corresponding relation between the evaluation question and the elements in the F according to the time values of the elements in the F and the corresponding relation;
for each question, determining C corresponding to each questionAElements forming a corresponding set of elementsAnd determining F element corresponding to the F element to form corresponding element set
9. The system according to claim 8, wherein the standard variation value is based on a correspondence of each topic,andthe obtaining of the mental health evaluation result specifically comprises the following steps:
for any subject B, its corresponding CAThe element set isCorresponding F element set isThen calculateWherein y isMiddle element identification, Y identificationThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index y,is a setMean of all the element data values in;
computingWherein u isMiddle element identification, U isThe identification of the medium-largest element is carried out,is a setThe data value of the element with the middle index u,is a setThe average of all the element data values in (a),is a setMaximum value of all element data values in;
according toDetermining the score of the question B according to the standard variation value corresponding to the question B;
and determining the psychological health evaluation result according to the scores of all the questions.
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