RO131376A2 - Psychometry system with online access - Google Patents

Abstract

The invention relates to an electronic scanning equipment, a method for fast online determination of a set of psychologic indicators using the scanning system and a psychometry system with online access, intended to be used in psychological testing laboratories. According to the invention, the scanning equipment comprises a frequency divider (1), a stage signal generator (2), two signal-access blocks (3s, 3d), two sensor grids (4), two analogue-to-digital converters (5D, 5S), a computer equipment (6) with integrated processor and a user interface (7). The method, as claimed by the invention, comprises a stage in which an excitation signal is applied at the skin level and the response signals are simultaneously recorded, followed by processing the acquisition data to identify the opening level of each energetic centre of the scanned subject. The system, as claimed, acquires primary data using the electronic scanning equipment, the data being then processed according to the claimed method, using an application server.

Description

Title of the invention: Psychometric system with online access

The invention relates to a psychometric system with online access, for the rapid determination of a set of psychological indicators.

Technical field

The system is intended for various uses, for example:

in psychological offices, for vocational and aptitude evaluation; within the recruitment companies, to identify the inter-relational compatibilities;

within the guard and protection companies, for the initial and periodic evaluation of the parameters and performance indicators of the employed personnel; within companies, associations and professional groups, for evaluating inter-relational cohesion and compatibility;

within sports clubs, for daily monitoring of sports performance indicators;

within the air traffic coordination centers, for monitoring the psychophysiological states of the operators;

within the educational institutions and approaches, for monitoring the degree of public attention, during the teaching-learning act;

within companies that carry out activities with a high degree of risk, for monitoring the waking state of the workers.

State of the art

A number of methods and equipment for direct measurement highlight certain psycho-physiological indicators, which can be interpreted in order to establish a psychological profile, based on the inference between electrodermal neurosignals and certain psychological aspects. In this case, the neurosignals are collected by the use of two electrodes, subject to a very small electrical potential difference, between which a measurable electric current is established, and the tonic and phase conductances are characterized. SCL fSkin Conductance Level) represents the tonic or basal conductance of the skin, a level of conductance manifest in the absence of any external stimulus. SCL is expressed

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Psychomeîric

Systems SA

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English Description in SmicroSiemens and generally falls within the range of 10-50 microSiemens. Phasic conductance, SCR (Skin Conductance Response) is born in the presence of an external stimulus (visual, auditory, tactile, etc.) and represents an increase in skin conductance, which can last up to 10-20 seconds, followed by the return to SCL. In the literature (Edelberg R., Biopotentials from the skin surface: The hydration effect, Annals of the New York Academy of Sciences, vol. 148, February 1968) it is mentioned that these SCR or GSR (Galvanic Skin Response) reactions. ) can have Ioc and spontaneously, in the absence of any external stimulus, with a frequency of 1-3 / min, noting that there are so-called electrodermal labile people, who have a high frequency of SCR and slow adaptation to the repetition of simple stimuli, such as and stable electrodermal persons, with rare spontaneous reactions and rapid habituation. These differences are considered to be correlated with a number of psychophysiological variables, the epidermal lability and stability representing fundamental differences in the characteristics of individuals.

The terminology used in the electrodermal activity technique establishes that, for an SCR signal, the following parameters can be recorded: amplitude (expressed in microSiemens), latency, duration of the conductance increase after applying the stimulus and half the time to return to SCL. The amplitude is given by the difference between the maximum level of the SCR response and the level of the SCL when applying the external stimulus. The latency (about 3 seconds) is the duration between the moment the stimulus is applied and the time when the SCR response appears. The duration of the conductance increase is the duration of the ascending slope to the maximum SCR (between 1-3 seconds). The half-time of recovery is recorded from the moment of reaching the maximum SCR up to the level of 50% of amplitude (between 2-10 seconds).

According to Edelberg's exocrine model, one of the most accepted theoretical models of skin conductance, phasic changes in skin conductance occur when the skin glands fill, and the skin conductance returns to baseline when this moisture is reabsorbed by the glands. In this model, in fact, exocrine glands represent some resistance. The conductance increases (the resistance decreases) when these glands are filled. The amplitude of the behavioral change derives from the amount of solution contained by the glands, as well as by the number of exocrine glands activated simultaneously. Activation of the exocrine glands is neurally regulated, being controlled by the brainstem. This is part of the phenomenology of exodermic manifestations of the brain, the electrodermal activity being a projection of the action of the reticular formation of the brainstem, hypothalamus, limbic system and motor cortex. It is also known that the electrical activity of the skin is correlated with the blood flow in the peripheral areas, depending directly on the heartbeat.

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English Description

There are known various devices and devices associated with methods that, based on the electrodermal activity and the correspondence between the measurement points, located on the areas of the palm extremities and the psycho-physiological variables:

- measures the psycho-galvanic reflex - US patent application 3841316A;

- monitors the psycho-physiological state of a person - patent application US6067468A;

- Measures the aura of the human body and its associated system - US Patent No. 5,646,397B;

- visualize the energy centers and the aura of the human body, using a multimedia system with bioreactions, interactive assisted by computer-patent application US5720619A.

The disadvantages of these devices, devices and methods mentioned are either in the complexity and dimensions of the device or devices, or in the limited destination of the method or use of the devices, providing insufficient data to outline a psychological profile.

Other equipment and another method based on electrodermal activity and the projective correspondence between the measuring points, located on areas of the palm extremities and a set of psycho-physiological functions, are described in patent RO127615B, entitled Electronic equipment and method for rapid evaluation of psychological profile. Unlike the other devices and methods, this system allows the rapid establishment of the psychological profile, consisting of indicators of cognitive intelligence, emotional intelligence, vocation, temperament and behavioral style, motivations, abilities, skills, professional compatibility and activity profile.

The disadvantages of using this system of rapid assessment of the psychological profile are: its limitation to a number of preset constructs;

the lack of online access to an adequate database for processing a more generous set of psychological indicators severely limits further development, as well as the interconnection with other psychological assessment systems.

Summary of the invention

The objective of carrying out this invention is to provide a psychometric system, with online access, for quick determination of a set of psychological indicators, in order to construct constructions of a psychological profile in the descriptive variants and of desired numerical or nominal scales.

Technical problem

The technical problem is the lack of the possibility of customizing the set of psychological indicators by the users, necessary to adapt a psychological profile to the evaluation requirements.

The solution of the problem

Romanian

Description ^ -2015-- 0 0 1 57ο 2 -03The psychometric system accessed online, according to the invention, solves the technical problem by performing data acquisition with a scanning equipment, data that it processes based on a rapid determination method of a set of psychological indicators, through an application server made up of the following modules: a module dedicated to the management of the electronic scanning equipment and the remote control; a module that provides the data processing service, running the algorithm for the scanned data, the module that has its own database; a server module with an interface for managing the system through operations of connection, identification, visualization of the subject to be evaluated, registration of the subject to be evaluated, respectively starting of the scan; a module responsible for the processing services command, respectively the scan command, the scan processing command, the report generation command; a module for ordering a data query service that brings the history of scans and reports; a module that provides the account / payment service and checking the balance of the account, having its own database for account management and payments.

The electronic scanning equipment, according to the invention, solves the technical problem by being composed of a frequency divider, made by means of two asynchronous 14-bit counters with oscillator, placed in cascade, the oscillator of the first counter being piloted with a quartz of whose oscillation frequency is 3MHz, from which a tactile frequency Fo - 11.44 Hz is obtained, a step signal generator, designed on the structure of a digital-analog converter that has two four-state displacement registers. , with serial input and parallel output. The signal generator uses the Fo tactile frequency, generates the step signal and transmits it to two signal access blocks, each made up of two eight-channel multiplexers, simultaneously controlled in three bits by the frequency-frequency divider. Fi = 1.43 Hz. The equipment also includes grids of sensors that come into contact with the epidermis. The frequency divider assigns addresses to an integrated mini-computer and to the signal access blocks, so that the addresses open simultaneously and synchronized with the integrated mini-computer, at the level of the signal access blocks, a signal separation path to a set resistance. at the supply voltage and a group of seven paths to the measuring areas, arranged on the sensor grids. A signal of excitation voltage level, obtained from one of the outputs from the level of the two integrated areas of the signal generator, is directed to the measurement areas. The excitation signals are constituted in response signals, after the opening of the measurement paths, these being also directed to two analog-digital converters that convert them and lead them to some inputs of the integrated computer. The integrated mini-computer is programmed to record and perform a preliminary processing of the acquisition data and also to read and store the voltage values of these signals in a data acquisition stack. It is then transmitted online

• gO3344857s

Psychrometers

Systems SA

Napoca * Romf

CV 2 fl 1 5 - - 001570 2 -03- 2015

English Description to a dedicated server, with which it communicates through a user interface, through a data cable, or through a wireless online connection. Finally, the equipment records and stores values of the conductance variations of the epidermis, expressed in corresponding voltage values, after the relation U = l / G, under the conditions in which the current remains constant throughout the measurement chain, using a sampling frequency in cycles. Fe = 0.18 Hz, or a scan time Tc = 5.6 sec / cycle and performs a total number of Ntc = 45 cycles at full reading.

The method for rapid online determination of a set of psychological indicators, according to the invention, provides a projective probing of brain functions by identifying a set of variables capable of providing a set of objective psychological indicators, using the aforementioned electronic equipment, making a number of 45 interrogations of the measurement areas, by applying, at the level of the epidermis, an excitation signal in the form of a voltage level in the step and simultaneous recording of the response signals on each query cycle, for each channel individually, in a data set of purchase in the form of a file. The data obtained are processed in order to identify the opening level of each energy center C _x , respectively their coherence level F _y . The data set is associated with the identity of the scanned subject, by assigning personal data, in order to be subjected to an encryption process, so that a stack of acquisition data is sent to the server, the content of which does not reveal the identity of the evaluated subject, but includes all the intermediate parameters necessary to raise a psychological profile, having the form: encryption code / C _Ms / C _ls / € * $ / CțJ Qj / CpJ C _Vs / F _Ps / F ^ / F _Ms / Fis / Cmî / Cm / Cm / CtJ Cm! Cm / Cva / Fm / Fe «j / F _Md / Fw.

With the help of the acquisition data stack, we calculate the value of some indicators _{p p (V} with psychological significance, which reflects the openness and coherence of the energy center from which they were identified, expressing the activity level of the cognitive, affective or volitional functions on which With these indicators with psychological significance, a programmable platform is created, through which the user customizes, at the level of the user interface, in addition to the predetermined constructs, any other psychological construct.

Advantageous effects of the invention

The invention has the following advantageous effects:

- constitutes an open, flexible and effective system, in which the number of C ₆₂ ⁵ constructs referring to the psychological profile can be customized, by preferential selection of indicators,

Romanian

Description ^ -2 0 1 5 - 001570 Ζ -03- 2015

- the specificities of a number of 24 professional themes from the maximum of 40 ⁸ possible and 12 activity profile themes from the maximum of 7 ⁸ possible can be customized, a special feature that allows any field of activity to be characterized and investigated with great effectiveness;

- ensures a high level of data security, by addressing the cloud computing solution, as well as a unitary approach to the maintenance and implementation of new software facilities;

- improves the validity and fidelity of the psychological indicators obtained, through a high level of the statistics of the acquisition data;

- ensures a very low time for generating reports;

- allows a great flexibility regarding the further development of the method and its interconnection with other psychological assessment systems.

Brief description of the drawings

The following drawings illustrate the system according to the invention. Thus, the figures represent:

Fig.1 - block diagram of the electronic scanning equipment within the system, according to the invention; Fig. 2 - diagram of excitation and response signals;

Fig.3 - block diagram regarding an application server from the system composition, according to the invention; Fig.4 - diagram of the stage of acquisition and formatting of the primary data;

Fig. 5 - schematic of the method of rapid determination of a set of psychological indicators, according to the invention;

Fig. 6 - sensor on ring support;

Fig. 7 - constructive variant of the system according to the invention, designed to monitor the attention;

Fig. 8 - bracelet sensor;

Fig. 9 - constructive version of the system according to the invention, intended for monitoring the awake state; Fig.lO - block diagram of the constructive variant of fig. 9.

Description of embodiments

Fig. 1 is a block diagram of an embodiment of the electronic scanning equipment according to the invention. The equipment implements the phase neurostimulation of the epidermis, consisting of a frequency divider 1, a step signal generator 2, two signal access blocks, 3s and 3d, a grid of 4 silver sensors, two analog-to-digital converters. 5D and 5S and an integrated minicomputer 6, the entire assembly having a single power supply (not shown).

Romanian

Description 'V 2 0 1 5 - - 00157II 2 -13In order to determine the working frequencies, at which it is possible to phase neurostimulation of the epidermis, it was taken into account that, in the theory of electrodermal activity, the phase conductance of the SCR arises in the presence of an external stimulus ( visual, auditory, tactile, etc.) and represents an increase of the skin conductance, which can last up to 10-20 seconds, followed by the return to the SCL tonic conductance, the temporal sequences of the GSR phenomenon being the following: latency - Τ ^ γ- about 3 seconds; the duration of the conductance increase - T _COND - between 1 and 3 seconds; semi-recovery time - between 2 and 10 seconds, sequences that last, from the moment of the stimulus to half the recovery time, between a minimum of 6 seconds and a maximum of 16 seconds. In the sense of the above, the phase neurostimulation of the epidermis, therefore, implies the electrical stimulation of the epidermis, respectively maintaining it in a state of excitation within a calibrated time interval on the level of the phase conductance.

On the other hand, the heart beats at a rate normally between 70 and 100 beats per minute, meaning an average number Nmb = 85 beats per minute, with the average heart rate being Tpc = 0.7 seconds. For at least one pulse pulse to be intercepted at a step signal pulse, sent to the measurement area, the pulse duration, Ti, must be greater or at least equal to the pulse duration. The excessive increase of the duration of the impulse can, however, lead to the decrease of the number of readings, respectively to the diminution of the resolution of the measurement, for which reason, according to the invention, the condition was adopted: Ti = Tpc, respectively Ti = 0.7 seconds, condition that required the use of an eight-step formatting frequency for the signal provided by the generator 2 with a value deduced by the formula: Fi = 1 / Ti, resulting in Fi = 1.43 Hz, where from the Fi is deduced the tact frequency for the eight-signal generator step states, Fo, according to the formula Fo = 8 Fi, resulting Fo = 11.44Hz. Each step pulse will be directed to the two 3s and 3d blocks of eight-way signal access, blocks controlled by the frequency divider 1 cascading through the addresses Ao, Αχ, A ₂ with the frequency Fi = 1.43 Hz. At these two blocks 3s and 3d of eight-way signal access the sampling in scan cycles takes place, the sampling frequency in cycles being Fe = Fi / 8, resulting in Fe = 0.18 Hz, or Tc = 5.6 seconds / cycle.

Given that a full scan cycle lasts Tc = 5.6 seconds (time very close to the minimum duration of an electrodermal signal stimulated T _sfm ~ 6 seconds) and that at the end of the maximum period of existence of this signal, T _slM ~ 16 seconds , on the epidermis, respectively of the measurement areas, a Nc ~ T _sfM / Tc number was applied, resulting in Nc ~ 2.9 cycles for a stimulated electrodermal signal. The phasic neurostimulation of the epidermis can by psychophysiological inference capture events whose projections in electrical signal will be recorded after the latency period, of 3 seconds, and up to the time of reaching the maximum conductance, up to 3 seconds, even from the first scan cycle, T _WT ~ 3 s <Tc <T _C0ND ~ 6 s, which gives the accuracy of the process, given that the step stimulator signal has a frequency comparable to that of

- ^ 033448575 * Psychometric _____ Systems SA______

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Romanian

Of 2 o 1 5 - - 001570 2 -03 “?« Î5

Description of the pulsatile wave, the neurostimulation thus being applied with a probability between Pi ~ T ^ / Tc, resulting in P _x ~ 54% and P ₂ ~ T _COND / Tc, resulting in P ₂ ~ 100%. In other words, the probability that neurostimulation will catch an inferential event until the maximum conductance is reached, in a single measurement cycle, is between 54% and 100%, when the pulsed blood flow to the extremities of the palms is maximum, ensuring the maintenance epidermis in a state of excitation within a time interval calibrated on the phase conductance level by the condition: Tc <T _sfM .

Since some people are electrodermal labile, having a high frequency of SCR and slow adaptation to the repetition of simple stimuli, to perform a most resolved scan, the scanning equipment, according to the invention, will perform a total number Nc = 45 cycles at one reading. fill.

The frequency divider 1 is realized by means of two asynchronous 14-bit counters with oscillator, placed in cascade. The oscillator of the first counter is piloted with a quartz whose oscillation frequency is 3MHz. The tactical frequency Fo = 11.44 Hz is obtained by dividing by the order 18, respectively by 2 ¹⁸ = 262.144 times from the basic frequency of the oscillator.

The step signal generator 2 is designed on the structure of an analog-to-digital converter and consists of two four-state shift registers, with serial input and parallel output, two integrated areas with eight ports with Darlington transistors with common transmitter and two networks. voltage dividers, corresponding to each area of ports, made with low power resistors. The shift registers are loaded one by one, serially, with pulses starting at the frequency Fo = 11.44 Hz, so that, after charging the eight pulse, it resets the cascade of registers, preparing it for a new load. The parallel outputs of the registers send the pulse sequence through the two areas integrated with ports with Darlington transistors to the voltage divider network of each area, each signal traveling through a resistor to a common point, separated by the mass with another resistor, where it is summes the currents charged by the Darlington ports, a signal consisting of step voltage levels being realized, the measured values of which are shown in Table 1. These voltage level signals thus obtained are transmitted to the access blocks 3s and 3d. signal and to two analog-digital converters, 5D and 5S, which will drive the transformed signals to the CH1 and CH2 inputs of the integrated minicomputer computing equipment 6 where the response signals will be recorded as a result of the opening of the measurement paths and the useful signal constitution .

Table 1

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Romanian

Description

The 3s and 3d blocks of signal access are made on the structure of two multiplexers with eight channels, ordered simultaneously in three bits by the frequency divider 1 cascade through addresses A "; Aj A ₂ . The first seven binary sequences will simultaneously open two groups of seven paths, selectable with the frequency pulse Fi = 1.43 Hz provided by the signal generator 2, through the two multiplexers, located in a 3s or 3d block of signal access to the measuring areas constituted by the grid 4 sensors. The eighth sequence (1,1,1) will simultaneously activate the eighth channel, through which the common input of a multiplexer, respectively the inputs of the 5D and 5S converters, are in the state of 1 logic through a resistor. connected to the supply voltage + Vcc, state that will be recorded as a separating pulse for the set of seven useful signals, intercepted by the two measurement paths by the 5D and 5S converters, converters capable of recording the conductance variations as corresponding level variations voltage over a number of cycles of measurement, providing them with entries Chişa CH2, calculation minicomputer built-6 which, in order to identify the test site, to synchronize the addresses a _o, a _{1 (a 2} control of 3s and 3d blocks of signal access provided by the frequency divider.

In the embodiment illustrated by FIG. 1, the grids 4 of sensors contain a number of 40 metal sensors, grouped into seven measuring lines, arranged on the upper part of the electronic equipment housing, according to the anatomical shape of the palmelo, The arrangement respects the correspondence rule between centers and measuring areas, after as follows: the first center towards the palm, the second center to the thumb, the third center to the middle finger, the fourth center to the little finger, the fifth center to the index finger, the sixth center to the ring finger, and the seventh center to the center hand.

The integrated mini-computer 6 is programmed, on the one hand, to record and perform a preliminary processing of the acquisition data and to store the calculated values in an intermediate data file and, on the other hand, it can be connected for the initial settings with a user interface 7, via a data cable, for example LAN type, respectively, can be connected wirelessly online (for example, Wi-Fi) to the server containing the data processing module.

After the initiation of the scan cycle, at the generator 2 level two identical signals will be formed, which will be sent through 5D and 5S converters to the two inputs of the integrated mini-computer 6. These signals will also be directed to the common inputs of the access blocks. 3s and 3d signal. The cascade frequency divider 1 will control the signal access blocks 3s and 3d, which simultaneously open the selectable measurement paths with the frequency pulse F | = 1.43Hz, towards the 4 sensor grids, from where the conductance variations of the epidermis at the level of the palms, intercepted on the silver sensors, are intercepted. The conductance variations are processed by 5D and 5S converters, viewed and recorded as corresponding voltage variations, according to the following relation: conductance G = 1 / R;

Η 1 5 - 8 0 1 5 7 10

Romanian

Description

2 -03- Î2Î5 epidermal resistance R = U / l, where U is the applied voltage, respectively G = l / U. Thus, the small measured voltage values reveal a high conductance of the epidermis, and the high voltage values reveal a reduced conductance of the epidermis, as long as the current remains constant throughout the measuring chain. The shape of the excitation and response signals at the two inputs are shown in Fig. 2.

The scanning equipment according to the invention has the following specific advantages:

- measures electrodermal parameters in a scan time of the order of minutes, having the possibility of accessing the application server from any device connected to the Internet, for example: desktop, laptop, tablet, mobile phone, etc .;

- it is autonomous, being usable for scanning even in the case of Internet connection interruption, because the data stack is verified, validated, stored and ready to be sent to the application server after online reconnection;

- provides the user with an analysis of the variability of the acquired signal level, so that, at a sufficiently small variation of the whole set of signals, the scanning session is stopped before the end of the maximum time allocated to the reading cycles;

- takes the electrodermal information with a very low working frequency, which eliminates any possibility of interference with any source close to the radioelectric signal.

Fig. 3 shows the block diagram of the system components according to the invention. The system, in local connection, contains the scanning equipment and the integrated mini-computer 6, which are connected for the initial settings to the user interface 7, by means of a data cable, for example LAN type.

The application server in the system component contains the following modules:

- a DMS module dedicated to the management of the scanning equipment and the remote control;

- a DPS data processing module, which runs an algorithm for the data stack, the module having its own DB-PR database;

- an FES server module with an interface for managing the system through operations of connection, identification, visualization of the evaluated subject, its registration, respectively the effective start of the scan;

- an OPS module responsible for transmitting the processing commands to the server, scanning, scanning processing, generating reports, etc .;

- an ODQS module for data query command, which brings the history of scans and reports;

- an APS module that ensures the account / payment and checking the balance of the account, having its own DB-AP database for account management and payments.

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Description

Romanian

The initialization of the scanning equipment is done by starting a DHCP server, installed on the integrated mini-computer 6, which assigns a local IP to the scanning equipment, for the unique authentication, which will be communicated to the DIVIS module, installed on the application server, which responds by sending a software token, used throughout the active session. The scanning equipment sends keep alive requests to DIVIS, which responds with intelligible commands for the equipment. An example command is START_SCAN.

All communication between the local connection and the application server is ensured through the FES server module. The user authentication is done by the APS module, whose task is to confirm the user's identity and to provide a token software, used throughout the active session of the user, respectively to display the details related to the profile and the information portfolio associated with the user, retained by enrolling in a own DBAP database.

Once the user authentication is performed, the user interface 7, installed on the user's computer, allows to manage the data of the evaluated subjects: adding or modifying personal data, initiating the scanning procedure, viewing reports corresponding to the scans, etc. These capabilities are described in detail in the following.

Adding a new topic is done by sending a request to the OPS module, via the FES module, a request that is processed and sent back to the DPS module, which cracks the data and saves them in the DB-PR database, under a unique identifier in the system.

The scanning process is initiated using the same user interface 7, which requests the DIVIS module a unique identifier for scanning the subject, following the sequence: FES -> OPS -> DPS -> DIVIS. The DIVIS module sends this request generated to the scanning equipment by the data acquisition program installed on the integrated mini-computer. Throughout the scan, the integrated mini-computer 6 sends information on the status of the scan, information stored in the DB-PR database through the DMS and DPS modules. This information is used in the local connection, in order to ensure the transparency of the process or to display possible purchase errors, by accessing the ODQS module, which reads and returns the scanning status from the DB-PR database. Once the scanning is completed, the data are preliminary processed according to the algorithm in fig. 4, which are then sent to be stored in the DB-PR database as a procurement stack. These initial data are then processed by the DPS module, by running the algorithm presented in fig. 5, resulting in a number of indicators, which in turn are stored in DB-PR.

The generation of reports corresponding to the scans is done by sending a request to the DPS module, through the sequence FES -> OPS, which reads the data from the DB-PR database and composes a report. In advance, it is checked whether the user has sufficient credit. If

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Romanian

Description The user's credit is insufficient, he will be warned through the user interface 7 to reload his account. The reincarnation of the account is done through the APS service, through a regular online payment procedure. After confirming the data processing execution, the user can request the generation of standard reports, included in the purchased package. If the user wants a psychological construct other than the default ones, using the user interface 7 he can customize the programmable platform, benefiting, in the credit limit, from this construct, provided by an identical procedure from the standard reports.

Requesting the history of scans and reports of a evaluated subject is done through the user interface 7, where that subject will be selected and through the FES module the user and the encryption code of the identity of the evaluated subject are identified and the status server is requested from the OPS module, which the application server generates from the DPS module, respectively from its DB-PR database.

When the online connection is interrupted, the user connects the user interface 7 with the scanning equipment, using the data cable. In this case, the user interface 7 allows the registration of subjects, in order to evaluate and perform the scan. After completing the data acquisition, they are pre-processed and saved locally on the integrated mini-computer 6, with the possibility of being sent to the application server, for processing, after online reconnection, following the same data processing sequences.

The method of rapidly determining online a set of psychological indicators, according to the invention, provides a projective probing of brain functions, by identifying a set of variables capable of providing a set of objective psychological indicators, using the aforementioned electronic equipment.

The method goes through the following steps:

- applying, at the level of the epidermis, an excitation signal and the simultaneous recording of the response signals, in each interrogation cycle, in a number of 45 queries of the measurement areas;

- processing the acquisition data, in order to identify the level of openness of each energy center C _x , respectively its coherence level F _Y ;

- the obtained data set is associated with the identity of the scanned subject, by assigning personal data (such as first name, last name, date of birth, sex and place of residence), in order to be subjected to an encryption process, so that to the server to send a stack of acquisition data, the content of which does not reveal the identity of the evaluated subject, but includes all the necessary intermediate parameters, such as: encryption code / C _Ms / CJ C _As / C _f JC _cs / C _Ps / C _Vs / F ^ / F _Es / F _Ms / F _ls / C „ _d / CJ Cm / C _Fd / Supr / W Cvd / Ff <j / FEd / F | Wld / FldJ

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Description

- with the help of the acquisition data stack, the value of some _pxy indicators with psychological significance is calculated, which reflects the openness and coherence of the energy center from which they were identified, expressing the activity level of the cognitive, affective or vocational functions that they represent projectively. ;

- with the help of these indicators l _pxy with psychological significance, transposed on the programmable platform, the user customizes at the level of the user interface, in addition to the predetermined constructs, any other psychological construct CP _n CP2 »..... CP _n .

Fig. 4 shows the schematic of the data acquisition stage which, according to the invention, involves placing both palms of the subject on the sensor grid of the scanning equipment and triggering the reading sequence. A number of 45 queries of the measurement areas are performed, by applying, at the level of the epidermis, an excitation signal in the form of a step voltage signal. At the same time, the response signals of the variation of the epidermal conductance are recorded and stored, as corresponding variations of voltage level on each query cycle and for each channel separately, together with the excitation signal, in an input data file , with the possibility of viewing them on the computer, with the help of a data acquisition program. After the scan sequence is performed, the input data report is subjected to a comparison process, which validates the format of the acquired data. Once the validation has Ioc, the data are filtered, in order to determine the signals with maximum voltage level, corresponding to the minimum conductivity levels of type SCR, respectively SCL, taken at the end of the query of the measurement zones, according to the relation U = l / G, where U is the applied voltage, G = 1 / R is the conductance of the epidermis, the resistance of the epidermis is deduced from Ohm's law, R = U / I, and I is the electric current considered constant in the measurement chain.

The processing takes place as follows: after filtering, the openings of the energy centers C _K are determined for each hand, according to the invention, by identifying the maximum voltage level, corresponding to the minimum conductivity level of the SCR response signal between all the cycles. query, for each center separately. The rule is that a high voltage level, corresponding to a low conductance level of the SCR response signal, reflects a large opening of center C ", and a low voltage level reflects a small opening. The variation of the opening of the energy center C _x is set between O and 100 units.

Also, from the resulting data, we identify the F _y coherences of the energy centers, associated with the minimum voltage level, corresponding to the maximum conductance level of the SCR signal, measured at the end of the query of the correspondence zones, according to the rule that a high value of this voltage reveals a high coherence of that center, while a low value represents a poor coherence of its center. Also, the variation of the coherence level F _y is set between 1 and 150 units and, depending on

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Romanian

Description of the measurement channel and their grouping on four levels, signifies the coherence of the bearing y = F, F _f for the first and second centers; the coherence of the bearing y = E, F _E for the three and four centers; consistency of bearing y = M, F _M for centers five and six and coherence of bearing y = I, F, for center seven.

Fig. 5 shows the schematic of the method according to the invention. After receiving the acquired information from the scanned subject, the DPS module of the application server reads the acquisition data stack, and the information regarding the coherence of the centers will be used to identify a scale parameter l _s "by means of a scale factor F _s and a the width of an interval L, "for each parameter C, of the opening of the energy centers. The width of _your L interval is calculated by the relationship

L, _x = 150-F _x , where the value of the upper end of the coherence scale is 150, and F _x is the scale value corresponding to the coherence level of the center represented by the parameter C _x for which the scale parameter is identified. The scale factor F _s , according to the invention, is calculated in relation to a scale of S = 190 units, in which the useful parameters from which the final psychological indicators are composed are identified. F _s is given by the formula F _s = S / âF where âF = 149, resulting from the difference between the scales of the coherence values, resulting in F _s = 1.275. The final shape of the scale parameter is l _sx = 1.275 (150 - F _x )

The scale parameter l _sx and parameter C _x are used to determine the values of the intermediate parameters according to the formula:

lin ⁼ QJsx where l, _x becomes the intermediate parameter corresponding to the parameter C _x . Also, the parameter C _x is used for the evaluation of the yield p. For the yield, the passive potential P _p of the energy potentials assembly is calculated, according to the relation:

”I £ _Ci

P, = »; n = 7, which represents the arithmetic mean of the value of all the openings of the energy centers, as well as the active potential P _a , also evaluated according to the invention as follows: for the first and second centers, P _aF = (Ci + C ₂ ) / 2; for centers three and four, P _aE = (C ₃ + C ₄ ) / 2; for centers five and six, P _aM = (C5 + C ₆ ) / 2; for center seven, P _a , = C ₇ . The yield is evaluated for each level y based on the relationship:

Py = Pay / Pp

Using the intermediate parameters l _lx and the yield p _y determine the useful parameters after the relation: l _U xy ^- Pxyhx

After establishing the useful parameters, they are reported to a database containing all their possible meanings, with which, according to the function of parameters C "and type 33448575

Psychrometers

Systems SA__ ,,

-Napoca ★ R

vV 2 0 1 5 - - 00157o 2 -0315

English Description of bearing, they are assigned the appropriate meaning. After assigning significance, they acquire the quality of psychological indicator l _pxy and are related to the lower end value of scale Vi = 75, according to the formula l _pXY = V, + l _uxy . The value of the indicator thus determined signifies the openness and coherence of the energy center, from which it has been identified and expresses, according to the invention, the activity level of the cognitive, affective or volitional function that it designates.

With these indicators l _pxy , the programmable platform is used, which gives the user, at the level of the user-interface 7, the possibility to customize any psychological construct of the CPi type,

CP ₂ , ..... CP _n , according to the model presented in Table 2. Each construct is made up by selecting the desired psychological indicators and setting their desired size on one of the five areas of the scale. Following the evaluation of the subject, each selected psychological indicator will be calculated as a percentage deviation from the scale reference set, according to the invention, according to the rule: the lower the deviation from the middle of the selected scale area, the more the psychological indicator of the subject fits better on the scale. The average deviation of all selected indicators indicates the extent to which the evaluated subject is in the profile configured in the psychological construct. After the construction is completed, it can be saved in the user interface 7, so that, in addition to the standard constructions, it can use its own (customized) construct.

Table 2

SCALE LEVEL LEVEL LEVEL LEVEL LEVEL THE PROCENT IN WHICH ROAD SIGN VERY LOW ENVIRONMENT PICKED UP VERY SUBJECT INDICATORS LOW PICKED UP IT FITS THE SCALE Indicator 1 X Ex. 27% Indicator 2 X Ex. 79% • X Ex. 75% X Ex. 30% • X Ex. 89% X Ex. 22% Indicator no X Ex. 87%

For example, the approach on how to customize a construct is detailed below.

In order to evaluate the intelligence aspects, according to the invention, a predetermined psychological construct has been made, extracting from the indicators with psychological significance those corresponding to cognitive intelligence: general intelligence, visual-spatial intelligence, practical intelligence, verbal intelligence, mathematical intelligence, intuition and clarity of reasoning, which will

-qp33448575

Psychometric> -_- Sy ^s * ^etTls sa

Napoca *

6 \ · 2 Ο 1 5 - - 00157fl 2 -03- 7-GÎ5

Romanian

Description be distributed on a scale with the length S = 190 units, divided into five areas: very low level, low level, medium level, high level, very high level.

The activity level associated with the cognitive intelligence project, PE-IQ, is evaluated as an arithmetic mean of the values of the distributed indicators and, according to the invention, represents the operational level of the cognitive area. At the same time, from the indicators with psychological significance, the ones corresponding to the emotional intelligence are extracted: introspective emotional intelligence, relational (empathic) emotional intelligence, self-image, inner comfort, integrative adaptability and stress response, which will be distributed on a scale. The activity level associated projectively with emotional intelligence, PE-EQ, is evaluated as an arithmetic mean of the values of the distributed indicators and, according to the invention, represents the operational level of the emotional area.

In order to evaluate the personality aspects, according to the invention, a predetermined psychological construct was made, in which the relation between a set of sixteen vocations V ₃ was fixed ...... Vi ₆ , a set of eight behavioral styles S _x .... .S ₈ and a set of four T ₁ temperaments _; T ₂ , T ₃ , T ₄ according to the rules presented in Table 3, where l _a , l _b , O _a , O _b , D _a , D _b , R _a and R _b are behavioral style bipolar indicators, for which we will evaluate the weights, extracting from the indicators with psychological significance four sets of indicators, corresponding to the behavioral functions: understanding, organization, decision and relationship. Their psychological significance is distributed bipolar by assigning a weight so that:

- the understanding receives as a weight for the set of psychological indicators analyzed, always, only one of the values l _a and l _b , respectively practical or intuitive;

- the organization receives as a weight for the set of psychological indicators analyzed, always, only one of the values O _a and O _b , respectively cautious or spontaneous;

- the decision receives as a weight for the set of psychological indicators analyzed, always, only one of the values D _a and D _b , respectively affective or reflective; and

- the relation receives as a weight for the set of indicators analyzed, always, only one of the values R _a and R _b , respectively reserved or open.

To determine these weights, each set of indicators corresponding to the behavioral functions was organized into two sub-sets of psychological indicators with antagonistic significance. The value of a bipolar indicator is given by the arithmetic mean of the values of the indicators corresponding to a subset. By comparing the values of the pair of behavioral style bipolar indicators, the highest value is selected, which will constitute the weight of the set of indicators corresponding to each behavioral function.

For example, the decision receives a set of four indicators: I ₃ and l ₄ , where D _a = (li +

U) / 2 represents the weight of affectivity, and D _b = (l ₂ + I ₃ ) / 2 represents the weight of reflexivity. If

- ^ 033448875 ^ * Psychometric

Systems SA ί \ - 2 Ο 1 5 - - 0 0 1 5 7 17

Romanian

Description

Ο Q: * 03 * the MAX function (D _a , D _b ) identifies the highest value for D _b , then the decision is reflective. If the highest value identified is D _a , then the decision is affective.

Likewise, the understanding can be: practical or intuitive, the organization can be: cautious or spontaneous, and the relationship: reserved or open.

In order to determine the vocation, a set of sixteen weights P _vl , P _u2 , ..., P _wX6 , corresponding to the sixteen vocations, is evaluated. The evaluation of these weights is done, according to the invention, by comparing the corresponding amounts realized with the values of the behavioral style bipolar indicators, identified according to Table 4. The highest weight of these amounts is given by the MAX function (P _v i, P _V 2, -Aie ) · The vocation corresponding to this value represents the basic vocation of the evaluated subject.

The behavioral styles S _x ..... S ₈ are assigned to each vocation according to the correspondence presented in Table 3, so that each vocation corresponds to a number of two behavioral styles, and each behavioral style corresponds to two bipolar indicators in the set of eight.

The temperaments T _x , T ₂ , T ₃ , T ₄ each group four vocations. The grouping mode is presented in Table 3. To determine the temperament ratio, the sixteen weights P _vX , P _v2 , Pvi6 corresponding to the sixteen vocations are ordered. Each vocation is identified by temperamental belonging. From the analysis of the first five temperaments identified for the first five vocations, it is established, according to the invention, the temperamental proportion in percentages.

For example, if T _x is identified three times and T ₃ is identified twice in the first five positions, then the proportion of T _x is 60% and the proportion of T ₃ is 40%.

In order to determine the abilities and aptitudes, a set of seven indicators with meanings related to abilities and aptitudes is extracted from the indicators with psychological significance, whose values are introduced in a level discriminator. The discriminator, according to the invention, sorts all the indicators whose values exceed the level established by the formula MIN (l _al , l _a2 , ... l _a7 ) + (MAX (l _al , l _a2 , ... I _a7 ) - MIN (l _al , l _a2 , ... l _a7 )) / 2. After identifying the most important values, the information is constituted in a set of indicators of abilities and aptitudes.

In order to identify the motivations, a set of seven indicators with significance related to the motivations, whose values, as in the previous situation, are introduced in a level discriminator, is extracted from the indicators with psychological significance. The discriminator, according to the invention, sorts all the indicators whose values exceed the level established by the formula MIN (l _mX , l _m2 , ... l _m7 ) + (MAX (l _m i, l _m2 , ... I _m7 ) - MIN ( l _mX , l _m2 , ... l _m ?)) / 2. After identifying the most important values, the information is constituted in a set of motivational indicators.

fy- 2 01 5 - - 0 0 15 7 l -03- 2ui5

Romanian

Description

Table 3

Ti sz and S3 DFE FTB Hi Rb a b lb Ob VI s AND ¥ 2 s 53 ¥ 5 56 51 ve s S3 T2 SZ 56 54 55 ob Rb Hi Rb to 03 the Ob ¥ 3 s saddle ¥ 4 52 55 ¥ 7 56 54 ¥ 8 96 55 13 St 57 58 53 03 fb Ra Db a R ib ob ¥ 9 sr 51 V3O 57 53 ¥ 13 58 AND ¥ 14 58 53 T4 54 57 58 55 (3 a Ra ob a FTA n Ob Vil sr 54 ¥ 12 S7 55 ¥ 15 58 54 ¥ 16 58 SS

Table 4

33448575

Psychrometers

Systems SA

_L V 2 O 1 5 - - DU 1 b 7 O 2 -03- 2SÎ5

Romanian

Description

ftmdere Indkaloribipobri behavioral fate P ». db Rb a b P »» db Rb Ib ob "*", db Rb a b p »* db Rb Ib ob p »» db Rb to a db Rb to ob p ", db Rb to a P »> ob Rb to ob p «* 8a db a b p »* FU db Ib ob PWL Yes Rb a b P » _M db Rb Ib ob Rb db your a Ρκα FTA db to ob Ptfa db 8a to a P ». db R to ob

In order to establish the profession compatible with the evaluated subject, a set of forty indicators is extracted from the indicators with psychological significance, whose values are l _pl , l _p2 , ... l _p40 which, according to the invention, are arranged matrix on a scale with eight steps in which, for each location, the weight of the real value of each indicator is calculated, P _ipx . The scale has a length calculated for all indicators according to the formula L = MAX (l _{pl /} l _p2 , ... I _p4 o) - MIN (l _p i, l _p2 , ... l _p40 ), and the scale step rate r _t is deduced from the formula r _t = L / 8. The weight of the real value of each indicator, P _pi ⁿ is identified by tracking the position of the value l _pi of the indicator on position n on the scale.

For example, if the position of the value l _pi is in the third step of the scale, n = 3, for the third location of the scale, P _p ⁸ = lpl, for the fourth location, the weight is Ppi ⁴ = lp, + r _t , for the second location, the weight is P _pl ² = lpl- rt, for the first location, the weight is Ρρ * = lpl- 2rt, respectively for the eighth location, the weight is Pp ⁸ = lpi + 5r _t .

Then a professional theme trainer is used, which can contain 24 professional themes out of a maximum of 40 ⁸ possibilities. The profession theme is formatted, according to the invention, on the structure of an identical matrix, as the number of lines and columns, with the matrix identifying the position weight on a scale, described above. Thus, each indicator with psychological significance receives a ^^^^^ 3344 8 5 75 ^ Χζ, ^ Psychometric *

Romanian

Description $ -2015-- 001570 2 -03- The reference theme for its value. The reference theme is established by entering the figure 1 in the corresponding location in the theme matrix, meaning, for the value of the indicator, a minimum or maximum mark. By comparing the theme matrix with the weight identification matrix, according to the invention, all the locations in which the maximum or minimum reference subjects have been registered will be identified and the real values of the weights of those locations will be reproduced in the position weight matrix on scale.

For example, if the position of the value l _p] is in the third step of the scale, and the benchmark in the reference topic is one of maximum, then the actual value of the weight corresponding to the value indicator l _pi is the one marked on the maximum, ie the weight from the eighth location of the scale, respectively P _pI ⁸ = l _pi + 5r _t . The arithmetic mean of all the weights thus identified by the matrix comparator represents for each reference topic, the real way of mirroring the indicators with psychological significance in the profession topic. The hierarchy of the 24 arithmetic means (Mi, M ₂ , ..., M ₂₄ ), corresponding to the programmed themes, gives for the maximum value, the compatibility with the profession. Thus, the MAX function (M _lf M ₂ , ..., M ₂₄ ) indicates the profession most suited to the evaluated subject.

Similarly, in order to establish the activity profile compatible with the evaluated subject, a set of seven indicators is extracted from the indicators with psychological significance, whose values are l _pl , Ip2> ··· lp? / which, according to the invention, will be arranged. matrix on an eight-step scale in which, for each location, the weight of the real value of each indicator P _lpx is calculated. The scale has a length calculated for all indicators, according to the formula L = MAX (l _pl , l _p2 , ... I _p7 ) - MIN (l _pl , l _p2 , ... I _p7 ), and the scale rate r _t is deduced from the formula r _t = L / 8. As in the previous case, the weight of the real value of each indicator, P _pi ⁿ is identified by following the position of the value l _for the indicator on the position n on the scale.

Similar to the previous step, an activity profile theme trainer is used, so that it contains a number of 12 activity profile themes out of the maximum 7 ⁸ possible. The theme of the activity profile is formatted, according to the invention, on the structure of an identical matrix as the number of lines and columns, with the matrix identifying the scale position weight, described above. Thus, each indicator with psychological significance receives a reference theme for its value. The reference theme is established by entering the number 1 in the corresponding location in the theme matrix, meaning, for the value of the indicator, a landmark on any of the steps of the scale.

By comparing the theme matrix with the weight identification matrix, according to the invention, all the locations in which the maximum or minimum type reference subjects have been registered will be identified and the real values of the weights of those locations will be reproduced in the position weighting matrix on scale.

2015-- 00157fl 2 -03- ^ '5

English Description

For example, if the position of the value l _p , is is in the third step of the scale, and the reference in the reference theme is one located on the fourth step, then the real value of the weight corresponding to the value indicator l _pi is that given by weight of the location on step four, respectively P _pi ⁴ = l _pi + r _t . The arithmetic mean of all the weights thus identified by the matrix comparator represents, for each reference topic, the real way of mirroring the indicators with psychological significance in the activity profile theme. The hierarchy of the 12 arithmetic means (M _lz M ₂ , ..., M ₁₂ ), corresponding to the programmed themes, gives for the maximum value, the compatibility with the activity profile. Thus, the MAX function (M _lf M ₂ , ..... M _i2 ) indicates the profile most suited to the evaluated subject. An example of a calculation is shown in Table 5.

Table 5

0.19 0.19 fl.l! 3.19 0.18, 0.19, 0.19 0.19 9.00 «2.21« 2.39 «238 162 * 77 182, M« 3.14 «3.33 18332« 3.71 12.5 25.0 315 62.5 '75.0 87.5 W COMMUNICATION 182.27 019 0.19 0.19 0.19 .19 0.19 0.19 0.19 112,208 182.39 162.58 162.77 102.96 183 ' 18 333 183.52 163.71 M38 Muj MW 103.00 "3.14 «w M3, &) "3.71 VECTOR SELECTED VALUES 115 0 25 12.5; 37.5 25 50 37.5 52.5 »62 75 "5 87.5 75 87 87.5 1 » 12.5 25.0 37.5 50.8 62.5 75.0 67.5 130.8 125 8 25 12.5 37.5 25 50 37.5 025 SO 75 62.5 87.5 75 87 87.5 100 taterl «2.21 «UI 162.M 181.83 "1.04 «w 461.27 "1.88 10U8 8 "1.83 161.13 * dkite? 2 163.71 MW 102 ' MW MW 163.14 ME" MW 103.71 1 1 162.56 162.58 ate <3 IO 103.31 MW MW 103 H aut 183) " MW 3 1 102.31 1SJ1 iter4 152.73 16U2 182.41 182 ' 102.78 "08 "2.41 "2.22 "2.84 5 1 162.22 162.22 uterus? 162.82 "!," «US 102.13 "2.32 «UI "2, the MW MM? 0 1 W2.82 162.82 • third party £ 162 1 182.24 11W "!," "sheep 102.82 162.43 ium " MW 1 162.62 182.H HfertorT W 162.23 182.47 102.28 182. " "1.18 that 101.53 101.34 1 161.53 16W WEIGHING ON THE SCALE PROGRAMMED THEME COMPARATED RESULT 0.19 0.19 0.19 0.19 0.13 0.19 8.19 8Λ8 030 182.21 182.39 182.58 «2.77 182.98 183.14 183.33 18332 163.71 • 123 25.0 37.5 50.0 S2.5 75.0 87.5 100.0 DESIGN 182.57 8J0 3.19 0.19 Q 19 0.19 3.19 5.19 0.19 182.208 182.39 182.58 182.7? 182.98 183.14 183.33 163 ^ 2 163.71 102.38 "2ai 102.77 "M5 183.14 1MB "3.M MW VECTOR SELECTED VALUES 125 25 125 _d 37.5 25 50 37.5 62.5 50 62 £ 5 "7.5 75 07 100 87.5 1 M 12.5 25.0 375 5Q.Î 52.5 75.8 87.5 1M.8 12.5 0 25 ".5 37.5 25 5S 37 S. 825 50 75 £ 5 87.5 75 87 100 87.5 100 bterl 15221 "W 152.02 101 ' 181.64 «14» w MW 150.80 8 1 161.83 "133 ether 163.71 "W 162.88 182.77 "2," 163.14 MW 153.02 1 * 3.71 163.71 163.71 ether 163 ^ «w IO KM 1ftW 183.06 183.25 1Î3.S6 102.87 3 152.58 162.50 biter 4 152.79 1sw 102.41 182 ' mw » KM "2.41 "2 182.04 1 162X1 <41 • ted 16232 162.23 182.46 162.63 152.82 162.63 MW MW MW 5 1 1 £ 63 162.63 «Third party 162.B1 162J4 "W '02 152.6 ' 102.02 162.43 152.24 "2.05 5 162.62 162.62 ether 7 1Β2Λ7 «US "I 162.28 102 ' 111 ' ιοί, n 10143 "1.34 7 1 162.28 15220

Table 6 presents the values evaluated for a number of 12 subjects, for which either the aspects of the real profession were exposed.

Table 6

jȚo3 34485 75

Psychometric *

Systems SA Goose ★ $ -2015-- 0 0 1 5 7o l -03- ÎSÎ5

Romanian

Description

». REAL PROFE53OXAL ASPECTS DETERMINATIONS OF COMFATtHUJTATE PROFESS REAL REAL PROFILE ssAcnvmiB VOCATION ASSESSED COMPAHBUITATEA professorship THE PROFILE OF ACTIVITY COMPATIBLE I PROFESSOR UNIV. PSYCHOLOGIST Education UWV. BtOMOTOR EDUCATION ADMINISTRATIVE PROFILE ACT PROFILE. OFFICE 2 NOTARY PUBLIC mummy INSPECTOR ATTORNEY FREELANCER ACT PROFILE. OFFICE COMMUNICATION PROFILE 3 MANAGER, ENGINEER HLSCTUB®ST BUSINESS, RESEARCH MANAGER FSEELANGEB RESEARCH PROFILE MEȘTEȘUG ARH SC TECHNOLOGY PROFILE 4 PRIEST RELIGION MANAGER BBLKBB C & RnWZB ACADEMIC PROFILE ȘniNȚIBC PROFILE 5 ENGINEER PHYSICIST RESEARCH ANALYST INDUSTKEB RESEARCH profile MEȘTEȘUG ARH SC TECHNOLOGY PROFILE β PROFBSOR UNIV. ECONOMIST FINANCE VISIONARY researcher PUBLIC FINANCES. BANKS SOCIAL PROFILE ACADEMIC PROFILE 7 PROFESSOR gymnasium SPORTS EXECUTOR SPORTS FRHELANCBR PROFILE craftsman TECHNOLOGY PROFILE 8 SURGEON HEALTH EXPERT HEALTH, PUBLIC SERVICES TECHNOLOGY PROFILE PROFILE craftsman 9 DIRECTOR DB THE BANK, ECONOMIST FINANCE VISIONARY PUBLIC FINANCES. BANKS, JUSTICE MARKET PROFILE ACADEMIC PROFILE 10 DOCTOR PEDIATRICIAN RESEARCH, HEALTH EXPLORER RESEARCH HEALTH PROFILE MSSIESUGARBSC TECHNOLOGY PROFILE 11 MRBCTOR TRUSTMBDIA MAS5MEDIA PROFESSOR MASS-MEDIA POLITICAL ANALYSIS PROFILE craftsman TECHNOLOGY PROFILE 12 ACADEMICIAN RESEARCH EXPLORER RESEARCH POLITICAL ANALYSIS PROFILE craftsman TEHNOUXHC PROFILE

For the elaboration of the final report of the psychological profile, according to the invention, a descriptive register of the elements of psychological construction is used, which contains all the meanings of form and background for each element of psychological profile. The substantive meanings are expressed by a general description of the psychological indicator. Form meanings are described as attributes, corresponding to the value determined by the evaluation method. The description accompanies the indicator evaluated in the structure of the presentation table in the final psychological report.

In order to format the report sequence, the information from the descriptive register of the psychological construct elements is taken and placed on a formatted structure, together with the scale areas, appropriately assigning the background and form significance, to the values determined for the evaluated indicators. The report sequence will thus contain a calibrated scale, divided into five areas: very low level, low level, medium level, high level, very high level, and the evaluated indicator, placed on the scale, corresponding to its value described as both background and as a form. For example, the report regarding the activity levels PE-IQ and PE-EQva contains seven, respectively five report sequences, in which each intermediate indicator is described in general and particular way, in the scale sequence in which it is distributed. At the same time, the report also presents the total value of each intelligence indicator.

- ^ 033448575 * Psychometric *

Systems' hasoca Q (3- 2015-- 08157o 2 -0323

English Description

Both the report sequences regarding the structure of the PE-IQ and PE-EQ levels, the correspondence register, as well as the intermediate report of the programmable construct form a psychological profile report, which, once generated from the server, can be archived, displayed or printed. An example of a presentation in the final personality report of the activity level associated with the cognitive intelligence PE-IQ is presented in Table 7.

Table 7

ST AH UDE DEZVOLTAŞI reiQtot.1 Nirel fente rabmt Nivelac & Ent Medium level iodine value IQ NvdriCert Very high level 1. ΪΛ & Εφαφι of the general derailment indicatedMEMpIm I 2. IitiuHjnHfu MnS int value as Sori deecriema of the form «dieatan & B 1 value indicators general decay of mAotomlm 2 Î.Iitl ^ aifapneâei the dismissal of the geserala in Aratamta 3 4. Iiu & eati verbtU indicator value 4 docnerea fan · declaratoryDi 2 lalcare mdscatorj deecâevea shape Iadicatocatai 3 the general derailment of all $ 4, in & 8ge * fi £ general derailment of wastes ^ cKoîiM 5 d./fnCK^&r general derailment of iadtcxtomhtt 6 7, Cfo & uttta r ^ iTTinimTiniwiior deraiare ggnwaîi a tadicatorațâ 7 value ifidjcAire deaeierea shape indieattKBbiS diarrhea isdicafeinihii women 4 indicator value 7 farm derailment isdicatocDhâ 7 jadrador value 5 farm demand icdicafersîai 5

a. In a first constructive embodiment of the invention, by miniaturizing the electronic equipment components, it is practically integrated on a glove-type holder containing the sensor grid, for each hand, so that the AD converter modules are placed at the level of each hand and communicate with an equivalent of the integrated minicomputer (in the form of a chip or microcomputer, for example) through a wireless connection (solution adopted for monitoring over distances up to 100 m). For optimum operation, the inner gloves of the gloves are purged with an inert gas (eg argon), which ensures excessive moisture drainage.

In this configuration, using the same method of data processing, respectively server application, the set of psychological indicators specific to high risk activities can be monitored in real time (for example, air traffic control, piloting an airplane, manipulating a crane, driving a vehicle, etc.).

^{: g} R03 ³ 4 485 752 ^ ¾¾¾ 'Psychometric * • —_ Systems SA ___ oca ★ β- I Ο 1 5 - - 0 0 1 5 7 0 Ϊ -03- -Î5

Romanian

Description

b. Figures 6 and 7 illustrate the second constructive variant of the invention, in the configuration of a reactive sensor system for attention monitoring, consisting of at least one sensor, a data acquisition unit and a radio connection (solution adopted for monitoring over distances up to 100 m). In particular, the sensor is embedded in the structure of an electrically insulating material, easy and convenient to wear on the left thumb of the left hand (Fig. 6). The reactive sensor has a small radio device, being powered by a built-in battery. He communicates to the purchasing unit, data on the level of electrical activity of the measuring area, respectively on its integration level. The acquisition unit consists of, for example, a set of radio modules with WSN transmission, installed according to the number of monitoring stations and a data acquisition module with 32 channels, interconnected with the user interface.

The system is intended for monitoring individual attention (for example, in courses, seminars, conferences, focus groups, etc.). In this way, direct, fast and objective feedback can be obtained regarding the degree of attention of the participants to the event.

c. Figures 8, 9 and 10 illustrate the third alternative embodiment of the invention, in the configuration of a reactive sensor monitoring system, consisting of at least one sensor, a data acquisition module and a radio connection, administered via a dispatcher (solution adopted for monitoring over distances exceeding lOOm). The dispatcher takes the signals transmitted by a mobile unit in local connection with the sensor, and transmits them to the acquisition module through a fixed local unit. In particular, the sensor is embedded in the structure of a bracelet made of electrically insulating material, easy and convenient to wear on the left wrist (Fig. 8). The reactive sensor communicates with the mobile radio unit, being powered by a built-in battery. In this case, the AD converters are distributed according to the number of monitoring stations, together with the mobile units of the radio station, and whose useful signals will be multiplexed and transmitted through the fixed unit of the radio station, the acquisition module and then a minicomputer. integrated.

The system is intended to monitor the waking state of the personnel in areas of activity with high risk. It can ensure both the convenient use of a device by the monitored personnel and the computerized assistance of the personnel during the high risk activity, to which the system can send warning and warning signals.

Depending on where the surveillance is conducted, the system may be:

- with local action (installed in a factory hall, control panel, heavy equipment platforms, etc.);

- with action in traffic (installed on moving vehicles).

It is understood that the embodiment, with the constructive variants described here, do not constitute limitations of the materialization of the invention, but are given as an example.

rQ33448575

Psychrometers

Systems SA

-No *

Thu- 2015- - 001570 2 -03- £ SÎ5

Romanian

Description

Cited Patent Literature [1] PTLl: RO127615B, Electronic Equipment and Method for Rapid Psychological Profile Assessment [2] PTL2: US3841316A [3] PTL2: US6O67468A [4] PTL3: US6746397B [5] PTL4: US5720619A

Non-patent literature [6] NPL1: Edelberg R., Biopotentials from the skin surface: The hydration effect, Annals of the New York Academy of Sciences, Volume 148, February 1968

Claims (15)

1. Electronic scanning equipment, intended for data acquisition, consisting of a frequency divider (1), made using two 14-bit asynchronous binary counters with oscillator, placed in cascade, the oscillator of the first counter is piloted with a quartz of whose oscillation frequency is 3MHz, from which a tactile frequency Fo = 11.44 Hz is obtained, a step signal generator (2) designed on the structure of a digital-analog converter which consists of two displacement registers with each four states, with serial input and parallel output, which use the tactile frequency Fo and which generate the step signal and transmit it to two signal access blocks (3s and 3d), each made up of two eight-channel multiplexers, controlled simultaneously in three bits by the cascade frequency divider (1), with the frequency Fi = 1.43 Hz, as well as some grids (4) of sensors, characterized by in that the frequency divider (1) assigns addresses (A _o , Αχ, A ₂ ) to an integrated mini-computer (6) and to the signal access blocks (3s and 3d), the addresses (Ao, A _x , A ₂ ) open simultaneously and synchronized with integrated mini-computer (6), at the level of the signal access blocks (3s and 3d), a path of signal separation to a resistance placed at the supply voltage (+ Vcc) and a group of seven paths to the measurement areas, disposed on the grids (4) of sensors, to which a signal of excitation voltage level is directed, obtained from one of the outputs from the level of the two integrated areas of the signal generator ( 2), constituted, after the opening of the measurement paths, in response signal, these being also directed to two analog-digital converters (5D and 5S) that drive the transformed signals to some inputs (CH1 and CH2) to the integrated processor ( 6), programmed to record and perform ze a preliminary processing of the acquisition data, in order to establish a stack of acquisition data and to store the calculated values in a data file, in order to be transmitted online to a dedicated server, with which it communicates through a user interface (7 ), by a cable of LAN type, respectively by an online connection (Wi-Fi), so that finally to record and to store values of the variations of conductance of the epidermis, expressed in corresponding values of voltage, after the relation U = l / G, when the current remains constant throughout the entire measurement chain, equipment using a sampling frequency in cycles Fe = Fi / 8, respectively Fe = 0.18 Hz, or a scan time Tc = 5.6 seconds / cycle and performs a total number Ntc = 45 cycles at full reading. 2. Electronic equipment according to claim 1, characterized in that the integrated mini-computer (6) is programmed to monitor the rate of variability of the signal level. Systems SA fcf <2 ^ ^a piic ^a * R ¹ -RQ334485; Psychomet <χ- 2 Ο 1 5 - - 001570 2 -03- & 5 English Claims purchased, so that, at a sufficiently small variation of the entire set of signals, the scanning session may be stopped before the end of the maximum time allocated to the reading cycles. The electronic equipment according to claim 1, characterized in that the sensor grids (4) contain at least one sensor and their arrangement can be adapted for the reception of signals from different areas of the epidermis. 4. Method of rapidly determining online a set of psychological indicators, which provides a projective probing of brain functions, by identifying a set of variables capable of providing a set of objective psychological indicators, using the scan equipment of claim 1, characterized by going through the following steps: - applying, at the level of the epidermis, an excitation signal and the simultaneous recording of the response signals on each interrogation cycle, in a number of 45 queries of the measurement areas; - processing of the acquisition data, in order to identify the level of openness of each energy center (C _x ), respectively its coherence level (F _v ); - the obtained data set is associated with the identity of the scanned subject, by assigning personal data, in order to be subjected to an encryption process, so that, to the server, a stack of acquisition data is sent, whose content does not reveal the identity of the evaluated subject. , but includes all necessary intermediate parameters, such as: encryption code / C _Ms / C, s / C _As / C _Fs / C _cs / C _Ps / Cvs / F _Fs / F _Es / F _Ms / F | s / C _M d / Cu / C _A d / C _F d / C _C d / C _P d / C _V d / F _F d / F _E d / F _M d / F | d, ' - using the acquisition data stack, the value of some indicators (l _pxy ) is calculated ₍ with psychological significance reflecting the openness and coherence of the energy center from which they were identified, expressing the activity level of the cognitive, affective or volitional functions that they have represents projective; - the indicators (l _pxy ) with psychological significance are transposed on a programmable platform, through which the user customizes, at the level of the user interface (7), in addition to the predetermined constructs, any other psychological construct (CP _lf CP ₂ , .... .CP _n ). 5. Method according to claim 4, characterized in that, for the elaboration of a final report of the psychological profile, a descriptive register of the elements of psychological construction is used, containing all the meanings of form and background for each element of the psychological profile, the meanings of fund being expressed by a general description of the psychological indicator, and the form meanings being described as attributes corresponding to the determined value, H033448 5 75 ~ Psychrometers Systems SA Napoca ★ β- 2 Ο 1 5 - - 00157 Ο 2 -03- 2-3 Romanian Claims the description accompanying the indicator evaluated in the structure of the presentation table from the final psychological report in which, for the formatting of the report sequence, the information from the descriptive register of the elements of psychological construction is taken and placed on a formatted structure, together with the scale areas, appropriately assigning the meaning background and shape, the values determined for the evaluated indicators, the report sequence thus containing a calibrated scale, divided into five areas (very low level, low level, medium level, high level, very high level), as well as the evaluated indicator, placed in scale, corresponding to its value described both as background and form. The method of claim 5, characterized in that: - a psychological construct is made up by selecting the desired indicators and setting their desired size on one of the five areas of the scale; - as a result of the evaluation of the subject, each deviation selected is calculated as a percentage deviation from the scale benchmark, the average deviation of all the selected indicators indicating the extent to which the evaluated subject is found in the profile configured in the psychological construct; - after the construction is completed, it is saved in the user interface (7), so that, in addition to the default constructions that the user receives in a standard evaluation, he can use his own construction prepared in an intermediate report of the customized construction. ; - the intermediate report of the customized construct forms the final report of the psychological profile, which, once generated from the server, can be archived, displayed or printed. 7, psychometric system accessed online, for the rapid determination of a set of psychological indicators, characterized in that it performs the data acquisition with the scanning equipment of claim 1, data that it processes based on the method of rapid determination of a set of indicators. psychological claims of claim 4, through an application server consisting of the following modules: - a module (DMS) for managing electronic scanning equipment and remote control; - a data processing module (DPS), which runs an algorithm for the data stack, the module having its own database (DB-PR); - a server module (FES) with an interface for managing the system through operations of connection, identification, visualization of the evaluated subject, its registration, respectively the effective start of the scan; ^ -2015--00157 ο ι -03- «· 5 Romanian claims - a module (OPS) responsible for transmitting the processing commands to the server, respectively scanning, processing the scanning and generating reports; - a module (ODQS) for the data query command, which brings the history of scans and reports; - a module (APS) that ensures the account and the payment and checking of the balance of account, having its own database (DB-AP) for account management and payments, system that works as follows: - the scanning equipment is initialized by starting a server (DHCP) installed on the integrated minicomputer (6), which will assign a local IP to the scanning equipment, IP which is communicated, for the unique equipment authentication, the equipment management module (DMS) electronic, which responds by sending a token software, used throughout the active session, and the scanning equipment sends keep alive requests to the module (DMS), which responds by commands intelligible by the equipment; - the entire communication between the local application and servers is ensured through the server module (FES), the user authentication being done by the account and payment module (APS), whose task is to confirm the user's identity and to provide a token used throughout the session user assets, respectively displaying details regarding the user profile and information portfolio, retained by registering in their own database (DB-AP); - once the user authentication is performed, the user-interface (7), accessible through its computer, allows to manage the data of the subjects, respectively adding or modifying the data, initiating the scanning procedure, viewing reports corresponding to the scans, adding a new subject is sent by request. to the appropriate module (OPS), via the server module (FES), a request that is further processed and sent to the data processing module (DPS) that encrypts the data and stores them in its own database (DB-PR), under a unique identifier in the system, and the same interface is used to initiate the scanning process, which requires a unique identifier to scan the respective exam, the electronic equipment management module (DMS), through the modules and in this order: FES -> OPS> DPS -> DMS, the equipment management module (DMS) sends the needle the request was secured, which is provided by the data acquisition program installed on the integrated mini-computer (6) which, throughout the scan, sends information regarding the status of the scan, data that is saved in its own database (DB-PR) through the appropriate modules (DMS and DPS, respectively), these ev 2 0 1 5 - - 0 0 1 5 70 2 -0330 English Claims information is then used by the local application to ensure transparency of the process or to display possible purchase errors, by accessing the query module (ODQS), which reads and returns the scanning status from its own database (DB-PR). 8. System according to claim 7, characterized in that, once the scanning is completed, the data is preliminary processed by a dedicated program, installed on the integrated mini-computer (6), and then sent to be stored in its own database ( DB-PR) in the form of the acquisition data stack, file processed by the data processing module (DPS), processing from which the basic system indicators result, indicators that will in turn be stored in their own database (DB-PR). 9. System according to claim 7, characterized in that the generation of reports corresponding to the scans is performed by sending a request to the data processing module (DPS), through the server and processing modules (FES -> OPS), the processing module reads the data from its own database (DB-PR) and composes a report, after which, beforehand, it checks whether the user has sufficient credit, an operation that can generate two situations: if the credit is insufficient, the user is warned through the interface- (7) to reload his account, the reloading being done through the module of account and payment (APS), through a common procedure of online payment, and if the credit is sufficient, after confirming the execution of the data processing, the user can request the generation standard reports, included in the purchased package. 10. System according to claim 7, characterized in that the user can configure one or more psychological constructs, with the help of the user interface (7), benefiting, within the credit limit, from the reports of these constructs, provided by the identical procedure from the standard reports. . 11. System according to claim 7, characterized in that, but requesting the history of scans and reports of a subject is made through the user interface (7), where that subject is selected and, through the server module (FES), the user and the user code are identified. Subject identity encryption, this status is requested by the processing control module (OPS), which the server generates from the data processing module (DPS) level, respectively from its database (DB-PR). 12. System according to claim 7, characterized in that, in the case where the online connection is interrupted, the user connects the user interface (7, with the scanning equipment using a data cable, the interface allowing the registration of subjects for evaluation and scanning , and after the completion of the acquisition, the data are preliminary processed and saved locally at the integrated minicomputer level (6), with the possibility of being sent to the server for processing after online reconnection, following the same sequences regarding the data processing. RO3344857Ş Psychomefric Systems SA Napoca ★ R ' ⁵ ''' ?. # -2015-- 001570 2 -03- Σ-S Romanian claims 13. Online access psychometric system according to claim 7, characterized in that in a miniaturized version of the electronic equipment components, it is practically integrated on a glove-type holder containing the sensor grid, for each hand, so that the AD converter modules are placed at the level of each hand, communicating with an equivalent of the minicomputer integrated through a wireless connection, this configuration having the role of monitoring in real time the set of psychological indicators specific to high risk activities. 14. Psychometric system with online access, according to claim 7, characterized in that it can be configured as a system with senior reactive for attention monitoring, made up of at least one sensor, a data acquisition unit and a radio connection, having the sensor incorporated in the structure. a ring made of electrically insulating material, easy and convenient to wear on the thumb of the left hand. 15. Psychometric system with online access, according to claim 7, characterized in that it can be configured as a system with senior reagent for monitoring the awakening, consisting of at least one sensor, a data acquisition module and a radio connection, administered through - a dispatcher, the sensor being incorporated on the structure of a bracelet made of electro-insulating material, to be worn on the left wrist.