Device of development of concentration comprising three modes and computer-implemented method used in the same

Abstract

To provide an optical device for developing concentration and a computer-implemented method used in the same.SOLUTION: A device 100 for development of concentration is provided, the device comprising: an optical sensing unit comprising a lens 101 or two or more lenses capable of holding sensitive elements, wherein the plurality of sensitive elements are configured to sense a biological signal provided by a user in at least three operational modes, the signal being associated with a plurality of electromagnetic fields; three switches 130, 131, and 132 for switching between the plurality of operation modes; a plurality of lightning units configured to indicate each of the operation modes by emitting a predetermined light signal; and a processing unit for processing information by using artificial intelligence.SELECTED DRAWING: Figure 1

Description

[Technical Field]

[0001] The present invention relates generally to optical devices and computer-implemented methods for developing concentration, which can be used in a variety of educational, training, and therapeutic settings. [Background technology]

[0002] Various systems use, for example, laser light as a communication channel between a signal transmitter and receiver. Each transmitted signal is generated by a laser oscillator with a modulator for the laser light onto which the data signal is superimposed, which is connected to a data signal source. Each received signal is received by a photodetector and a device for converting the detected laser-modulated light into an electrical data signal.

[0003] A drawback of existing data transmission systems of this type is their complex system design, which includes many complex signal transmitters and receivers with complex precision guidance systems with multiple connections and moving parts, resulting in unreliable operation. In existing systems, when transmitting information between transmitters and signal receivers located at great distances from each other, for example, over distances of 100 to 1,000 kilometers using several repeaters, delays in information transmission can be measured in the order of 0.1 seconds. These existing systems also lack sufficient noise immunity, as any disturbances in the laser communication lines can interfere with the operation of the system or even interrupt the transmitted signal.

[0004] Therefore, it is important to pay attention to the principle of similarity, which is based on the combination of the theory of wave synthesis and the theory of unified reality (see G.P. Grabovoi, Doctoral Dissertation in Physical and Mathematical Sciences, "Study and Analysis of the Basic Definitions of Optical Systems for Prediction of Earthquakes and Disasters of Industrial Origin", Moscow, RAEN Publishing House, 1999, pp. 9-19). The method described below is further based on the physical and mathematical theories, experimental results, physical and mathematical calculations and their results described in the publication "Study and Analysis of the Basic Definitions of Optical Systems in Microprocessor Control for Disaster Prevention and Prediction", Electronic Equipment, Series Vol. 3, Microelectronics, 1999, 1st Edition (153) and other scientific sources. There are two other patent documents claiming devices and methods: Russian Patent Publication No. 2148845, "Method for preventing disasters and device for realizing it," published on May 10, 2000, which relates to an optical system including a product of crystals distributed along the direction of radiation and arranged in a glass sphere for disaster prediction in an area; and Russian Patent Publication No. 2163419, "Data Transmission System," published on February 20, 2001, which is based on a similar principle and includes a signal transmitter including a spherical glass sensing element and a signal receiver mounted at a certain distance from the transmitter with a spherical module located at a distance from the receiver to improve the system's operational reliability and noise immunity. (0004A) U.S. Patent No. 12,144,599, issued November 19, 2024, entitled "PRK-1U Device for Developing Concentration for Eternal Life with Three Modes," relates to a device for developing concentration that includes an optical sensing unit having multiple sensing elements configured to receive signals emitted by the user. (0004B) This invention application is essentially the same as patent application No. 20240100429, filed by the same applicant, Grigorii Petrovich Grabovoi, with the Greek Industrial Property Organization (OBI) and issued based on the final report of the invention examination dated May 5, 2025. (0004C) This invention application is essentially the same as a utility model application filed with the German Patent and Trademark Office (DPMA) by the same applicant, Grigorii Petrovich Grabovoi, and registered on December 13, 2024, under German Utility Model No. 20 2024 103 073, "Device with three modes for developing concentration", and the PRK-1UM device is registered as an industrial design in the following countries: 90582-01 (Bernex: Belgium, Netherlands, Luxembourg), 6406099 (UK), 148367 (Switzerland), 1790930 (Japan), and 202418610 (Australia). Summary of the Invention

[0005] By departing from the logical, widely available problem-solving approaches described above, the structure of this disclosure is both unique and relevant. This disclosure meets all of the above criteria.

[0006] It is an object of the present invention to provide an apparatus for developing a user's concentration using an information transmission system that is operationally reliable, ensures the transmission of information without delay, and is not susceptible to noise. A user's concentration may be defined as the strength of a person's mind to focus on a particular goal, such as eternal life.

[0007] The present disclosure overcomes all of the above-mentioned problems by providing an apparatus, method, and computer-implemented method for developing a user's focus, which is a three-mode apparatus, which may also be referred to as the PRK-1UM Three-Mode Concentration Device for Eternal Life.

[0008] An apparatus for developing concentration is provided, the apparatus comprising: an optical sensing unit including one or more lenses with sensing elements configured to sense biosignals associated with a plurality of electromagnetic fields emitted by a user in at least three operational modes; an optical emitting unit configured to emit an emitted signal based on the biosignal and the plurality of electromagnetic fields, the optical emitting unit configured to emit the emitted signal in the form of at least an optical signal; three switches for switching between the plurality of operational modes; a plurality of lighting units each indicating each operational mode by emitting a predetermined optical signal; at least two lasers disposed inside the apparatus, including a first laser that is always illuminated when a second operational mode is activated, emitting a static light by one of the plurality of lighting units, and a second laser that is connected to a motion detection sensor that enables on / off illumination by another lighting unit, emitting a repetitive pulse signal when a user is nearby; and a processing unit that processes information from at least one of the motion detection sensor, the SD card, the laser, the DC / DC converter, the selection switch, and the USB adapter using artificial intelligence. Preferably, the device includes a power source coupled to the optical sensing unit and the optical transmitting unit. The plurality of sensing elements may be spherical. The device may include a housing and a lid, and a plurality of numbers or letters serving as symbols for focusing the user's attention may be inscribed on one of the housing or the lid. The first group of number sequences may include 1, 4, and 5, and the second group of number sequences may include 2, 7, 8, and 9, 0, 6, and 3.

[0009] Preferably, one or more lenses are disposed on the lid.

[0010] Furthermore, the device may include a converter unit configured to convert the outgoing signal into an electrical signal.

[0011] Additionally, the device may include an SD card adapter. The SD card adapter is provided to realize the transmission of electrons to an infinite medium via the numbers on the display according to the process of wave synthesis. Thus, the third operational mode may require the use of an SD card due to the operation of the artificial intelligence. By focusing on the numbers read from the SD card and monitored on the display, the user can simulate operation in the third operational mode. By comparing operation in the third operational mode with the simulated operation in the third operational mode, the user can accelerate the development of concentration and strengthening of the mental model of events.

[0012] Additionally, the OLED display may display a sequence of numbers read from an SD card inserted into the SD card adapter.

[0013] Additionally, a compass may be provided attached to the lid for directing the laser beam in a specific direction.

[0014] Additionally, there may be a USB connector mounted on the back of the device, for example, for connecting an external power source to the device.

[0015] Additionally, an LED light may be provided to display the sequence of numbers from the SD card with light pulses.

[0016] Another object of the present invention is to provide a method for developing concentration, comprising the steps of: providing one or more lenses, which are part of an optical sensing unit included in a device, for focusing a user's attention; switching between a plurality of operation modes by three switches; indicating each operation mode by emitting predetermined light signals by an illumination unit; sensing, in at least the three operation modes, biosignals associated with a plurality of electromagnetic fields emitted by the user by a plurality of sensing elements of the optical sensing unit; obtaining emitted signals based on the biosignals and the plurality of electromagnetic fields; converting the biosignals into emitted signals by a converter unit; and processing the emitted signals by a processing unit to obtain optical signals generated by the optical emitting unit.

[0017] Preferably, the method may include providing a power source coupled to the optical sensing unit and the optical transmitting unit.

[0018] Preferably, the optical emitting unit may include an optical lens. A third object of the present invention is to provide a computer-implemented method for developing concentration that can be loaded into a device according to the claims, the method comprising the steps of receiving, by a converter unit, an electrical signal converted from at least an emitted signal obtained from an optical sensing unit based on biosignals associated with a plurality of electromagnetic fields emitted by a user, and processing the electrical signal by a processing unit using artificial intelligence to emit an optical signal generated by an optical emitting unit that is associated with the user's concentration. [Brief explanation of the drawings]

[0019] Further details of the disclosure are described below with reference to exemplary apparatus, methods and systems illustrated in the figures. [Figure 1] FIG. 1 shows a view from the upper left front side of the device according to the first object of the present disclosure. [Figure 2] FIG. 2 shows a top view of the device according to the first object of the present disclosure. [Figure 3] FIG. 3 shows an internal structural diagram of the first object of the present disclosure. [Figure 4] FIG. 4 shows a schematic diagram of the configuration of the first object of the present disclosure. [Figure 5] FIG. 5 shows a block diagram of the first object of the present disclosure. [Figure 6] FIG. 6 shows a computer system corresponding to the computer-implemented method according to the third object of the present disclosure. [Figure 7] FIG. 7 shows an electrical circuit diagram of the first object of the present disclosure. [Figure 8] FIG. 8 shows a flowchart illustrating the method according to the second object of the present disclosure. DETAILED DESCRIPTION OF THE INVENTION

[0020] When the user focuses their consciousness, they can imagine their consciousness as a spherical sensing element centered around their own body. They can then imagine the sphere transforming to resemble their own body shape, with light radiating from their body being reflected and absorbed by the surface of the sensing element. They can imagine the body-shaped radiation contacting the body-shaped surface and expanding outward into infinite space. Infinite space can be thought of as an external reality connected to the user's life form, resulting in the development of a focus toward eternal life.

[0021] According to wave synthesis theory, reality can be thought of as a periodic intersection of dynamic and static domains, with the intersection zone resulting in the synthesis of dynamic and static waves. Any real-world phenomenon can be defined in the form of an optical system. Human perception is achieved using image-forming optical elements containing information. When a person generates information to be transmitted and transmits that information to an optical sensing element, that person can be considered a transmitting system in an optical system. The transmitted information generated by a person's thoughts is received by the optical sensing unit toward which the thoughts generated by the person are directed. Because thoughts are electromagnetic waves, they can be transmitted as elements of an optical system. The sensing elements of an optical sensing unit are preferably spherical because a spherical shape maximizes activation of the sensing element through internal reflection of biosignals. Biosignals, also known as biosignals, can be generated from electrical, electromagnetic, or non-electrical fields and can include brain waves and other signals generated by the human body.

[0022] The three-mode device for developing concentration uses artificial intelligence (AI) to control the focus of concentration, and works based on the principle of universal coupling to detect biosignals and electromagnetic field emissions from the user's electromagnetic waves.

[0023] In wave synthesis theory, it is known that a radially emanating thought can simultaneously exist in two quantum states: one located in one of the sensing elements of the signal transmitter, and the other located in the signal receiver. Based on these principles, the device described herein for interacting thoughts and developing concentration has been created.

[0024] The device operates universally and develops the following concentration, ensuring eternal life. Control 1: -Development of concentration towards eternal life for all events. Control 2: -Development of concentration towards eternal life based on clairvoyance (clairvoyance). Control 3: -Development of concentration towards eternal life based on controlled foresight. Control 4: -Development of concentration towards eternal life for rejuvenation (regeneration). This device develops concentration towards eternal life for mastering techniques performed through spiritual development and clairvoyant control.

[0025] Referring to the drawings, FIG. 1 is an exterior view of a three-mode device 100 (hereinafter referred to as device 100) for developing concentration. The device may include a generally rectangular housing. The device illustrates one example embodiment of the present invention. In this embodiment, three lenses 101 are attached to the exterior surface of the device's lid. However, in some embodiments, at least one lens 101 is required, and the other two lenses 101 may be absent. Each lens 101 may be attached to a plate (e.g., a metal plate). The diameter of the lens 101 may be, for example, 20 mm, 25 mm, 60 mm, or any other diameter applicable to a particular embodiment of device 100. The diameter of the plate may be, for example, 60 mm, 64 mm, or 70 mm, or any other diameter applicable to a particular embodiment of device 100.

[0026] The device may further comprise a plate 120, 220 attached to the housing or lid for placing a stone such as a diamond.

[0027] Additionally, there are at least two lasers located on the lid of the device. One laser is constantly lit when the device is powered on. The other laser works in conjunction with a motion sensor to detect a user within 3 meters of the device. However, other types of motion sensors with other ranges may be used.

[0028] As shown in Figure 1, symbols, which may also be letters, may be placed on the cover, as shown at 140. As shown, the numbers 1, 4, and 5, for example, may be placed near the large lens 101. By focusing the lens in the manner described above and concentrating on the particular symbol, the presence of the numbers near the lens can help develop concentration.

[0029] The device also has three switches 132, 131, and 130. The first switch 132 is for activating the device and the "general purpose" operational mode and is illuminated when activated. In this embodiment, the switch button for the first operational mode is illuminated red. When the second switch 131 is engaged, the switch button for the second operational mode is illuminated green, and the static aspects of the actual operation are enhanced. The second mode is indicated by the emission of a static light from an LED light on the left side of the device.

[0030] The final switch button 130 activates a third operational mode (periodic pulsing) that enhances the dynamics of reality. However, to engage the third switch button 130, the first switch mode must be disengaged. The second switch button 131 then begins flashing, and the third switch button 130 lights up blue. The third mode is indicated by a periodic pulsing of the LED light on the left side of the device 100. The third switch button 130 can also add functionality to the device. The third operational mode activates two lasers, a motion detection sensor, an SD card adapter or module, and an OLED display 160. When the third switch button is engaged, 5 volts of power is supplied to the circuit.

[0031] The activation of the laser may be visible from the back of the device through a ventilation hole (not shown). The technical effect of the third switch button is to allow a user to interact with the electromagnetic field of a user near the first laser or approaching the device immediately before the second laser is activated by the motion sensor. When the first laser is activated, and when the second laser is activated, an interaction with the human's electromagnetic field occurs in the form of a stronger, denser beam of radiation within the laser beam. This interaction modifies the characteristics of the electromagnetic field, allowing the user to develop greater focus on goal-realizing events, such as eternal life, and to rapidly manifest those events. This effect is further enhanced by the activation of the LED light.

[0032] The device can also be monitored remotely via the internet, and the effects described above can be perceived by distant participants and users due to the presence of electromagnetic fields from human thought radiation and parameters of the user's electromagnetic field coupled with the Earth's electromagnetic field.

[0033] Additionally, the OLED display can be illuminated in a number sequence read mode by pressing the large button 170 toward the right side of the OLED display. The LED lights on the right side of the front panel of the device will flash with a frequency and intensity corresponding to the digits on the display when in number sequence read mode. Digits and number sequences may be read from an SD card inserted into the SD card adapter on the front of the device 100.

[0034] The number sequence on the SD card allows for concentration with the desired level of control. The number sequence may be periodically written to the SD card. The number sequence stored on the SD card is not erased during the assembly process at the factory. A particular number sequence may ensure the development of concentration towards eternal life for the user. The files from the SD card can be accessed by pressing the button to the right of the OLED display. The numbers stored on the SD card will then be displayed on the screen.

[0035] 2, the top surface of the device body or lid has a compass 204 with markings indicating the position of the compass needle parallel to the beam of a laser 210 located inside the device 200. The compass 204 can measure the angle between the geographic north-south direction and the beam direction of the laser beam 210 indicated by each arrow.

[0036] The laser sends a beam of red light to a large lens located inside the device. The beam is perfectly parallel to the lateral plane of the device and is directed from the front panel to the rear wall. The laser is turned on by attaching a third switch button. One side of the laser is always on, and the other side is connected to a motion detection sensor. The laser turns off 30 seconds after being turned on if there is no user, and turns on again if someone approaches within 2 meters of the device.

[0037] First laser beam 210 operates as a static reality wave that disperses infinitely through lens 450 into the outside environment. The dynamic reality wave wave function is activated from a second laser beam, also inside the device and activated by motion sensor 203. A space is created between the first laser beam and the second laser beam, activated by the motion sensor, where the intensity of the thought radiation is increased by scattering and reflecting the laser beam inside a large lens inside the device. This effect is achieved inside the lens by the reflected and scattered portion of one laser beam when one laser is activated.

[0038] Figure 3 shows the inside of the device of this embodiment. The lid is equipped with two lasers 310, at least one of which is connected to a sensor board 399 that activates a motion sensor on the lid.

[0039] The device 300 is further configured to run an artificial intelligence (AI) function programmed in two processing units 391, 392. These processing units can be microcontrollers or similar in order to process the information contained in the SD card and send it to an OLED display or LED light. The processing units 391, 392 receive an electrical signal from a converter 380, which increases the input voltage from 5V to the required 9-12V and sends the signal to a larger converter 480, shown in Figure 4, which converts the optical signal emitted by the optical emitter unit.

[0040] According to the AI ​​function, based on the user's thought generation movement and the degree of development of concentration towards eternal life on a particular event, the device 300 can independently turn off its operation mode and after a set period of time, turn on any of the three operation modes again. Thus, a series of operations of this artificial intelligence function was developed.

[0041] Specifically, the first processing unit 391 processes the information on the SD card and transmits it to the display, while the second processing unit 392 processes the information on the SD card and transmits it to the LED light 398, which uses light pulses of various intensities and intervals. The read information, including a number sequence, is then transmitted to the LED, which changes its (continuous) light fluctuation mode according to the numbers contained in the card file. Each number corresponds to a unique pulse frequency and brightness (brightness). The SD card, following the process of wave synthesis, realizes the transmission of electrons to an infinite medium via the periodic light pulses of the LED light through the dynamics of light scattering in space. Thus, thought radiation transforms the information of the target of consciousness corresponding to the number sequence into an infinite and eternal environment at the systematic level of goal achievement.

[0042] The device 300 may include mini buttons 170 for controlling the information shown on the display 360. A short press of the up button moves the cursor from the top line to the desired file (1.TXT). A short press of the down button opens the file and the number written on the SD card is displayed on the display 360.

[0043] Furthermore, the device 300 can incorporate three operation modes to create higher levels of concentration. A switch button 330 is connected to switch 9-pin 397 to switch the signal from the SD card to one of the processing units.

[0044] Additionally, the output from the processing unit, including the concentration enhancing sequence, may be displayed on an OLED display 360, but may also be displayed on other displays such as an LED display or an LCD display.

[0045] There is also an SD adapter and SD module 396 that can read the SD card when inserted in order to transmit the information contained therein to the processing unit or microcontroller. As mentioned above, the device has an operational mode whereby a sequence of numbers can be read from the SD card. Through the SD card and through the software in the processing unit, the sequence displayed on the display can cause electrons to be transferred to an infinite and eternal environment or medium according to a process of wave synthesis.

[0046] Thus, the radiation of thought transmits the information of the object of conscious concentration, which corresponds to the number sequence, to the infinite and eternal environment at the systematic level of goal attainment.

[0047] Each operational mode of the device is powered by an SD card in conjunction with the operation of the artificial intelligence. The numbers on the SD card allow the user to focus their attention with the desired level of control. Number sequences may be periodically added to the SD card. The number sequences stored on the SD card are not erased when the device is assembled at the factory. Individual or other pre-selected number sequences may be added.

[0048] When the device is in SD reading mode, a light emitting diode or LED light on the right front side of the device is illuminated by a signal LED diode 398 and flashes at a frequency and intensity corresponding to the digit being read.

[0049] The rear side of the device has a USB connector 395 for connecting an external power source to the device, for example, a 5V power supply. It also has a mini USB connector that connects to the second processing unit 392 to supply 5V voltage.

[0050] FIG. 4 shows a schematic diagram of the major components of one embodiment of the present disclosure. The biconvex lens 450 can be 60 mm, but can be any size. This diagram shows the same components as the previous diagram, such as the sensor board 499, the laser 410 mounted on the lid 403, the OLED display 460, the LED lamp 493, the processing units 491 and 493, and the converter 480. In this embodiment, the processing unit used is an Arduino 1 or 2. However, there are many other microcontrollers and microcontroller platforms available for physical computing. For example, Parallax Basic Stamp, Netmedia's BX-24, Phidgets, MIT's Handyboard, and many other tools offer similar functionality. All of these tools provide programming in an easy-to-use package. Arduino simplifies the microcontroller process and offers advantages not available with other systems for teachers, students, and interested amateurs.

[0051] 5 is a block diagram illustrating various units of a three-mode device 500 for developing concentration, in certain embodiments. In particular, device 500 may include an optical sensing unit 550, an optical transmitting unit 510, one or more lenses 501, three switches 530, and a light emitting unit 593. The device may include a housing and a lid. One or more lenses 501 and multiple lasers may be disposed in the cover.

[0052] FIG. 6 is a schematic diagram of a computer system 600 according to the present disclosure, in which a set of instructions for causing the system to perform any one or more of the methodologies described herein are executed. In a networked deployment, the system can operate as a server or client system in a server-client network environment. The computer system includes at least one processor 671, a main memory 673, and a static memory 674, all interconnected by a bus 678. The computer system may also include a network interface device 677. A hard disk drive 679 may include a computer-readable medium 681 having one or more instructions 682 stored thereon that may be implemented or utilized by any one or more of the methodologies or functions described herein.

[0053] The instructions may be a software program such as the attached Appendix 1, which includes a computer-implemented method for developing concentration that can be loaded into the claimed device 100, 300. The instructions involve receiving at least an electronic signal that is converted by a conversion unit from an output signal. The output signal is derived from the optical sensing unit based on biosignals associated with a plurality of electromagnetic fields from the user. The electronic signal is then processed by an AI-based processing unit to output an optical signal in the form of a flashing LED light emitted by the optical emitting unit that is associated with the user's concentration.

[0054] 7 is an electrical circuit diagram showing the electrical connections of all components in the device. For example, components connected between converter LB-10 and the DC / DC converter but not mentioned above are ferrites 783a and 783b.

[0055] FIG. 8 shows a flowchart illustrating all method steps of the method according to the present disclosure. The devices 100-700 include an optical sensing unit and an optical transmitting unit. A first method step 811 provides one or more lenses as part of the optical sensing unit for sensing biological signals, also referred to as biosignals, from a user. A second method step 312 involves switching between three operational modes using three switch buttons. A third method step 813 involves indicating each of the three operational modes by emitting a predetermined light signal from a light-emitting unit or LED. A fourth method step 814 involves sensing a plurality of electromagnetic field-related biological signals from a user using a plurality of sensing elements of the optical sensing unit in one of the selected operational modes. A fifth method step 815 involves converting the biological signals into output signals by processing the signals using a signal processing unit, and a final step 816 involves transmitting the output signals using the optical transmitting unit. While the invention has been described with reference to the illustrated embodiments, various modifications may be made to the apparatus and means described herein without departing from the scope and teachings of the invention. Accordingly, the described embodiments are intended to be illustrative only, and the invention and disclosure are not to be limited except as specified in the appended claims. Attachment 1 The text of the sketch program which is in the device of the present disclosure displays number series from SD - Card to LED (LED - diode): #define FILE_NAME "1.txt" / / file to open #define LED_PIN 7 / / pin led is connected to / / functions for every number 0-9 #define NUM_0_FUNC blinkLed(2, 500) #define NUM_1_FUNC blinkLed(3, 250) #define NUM_2_FUNC pulseLed(2, 100, 500) #define NUM_3_FUNC pulseLed(3, 10, 300) #define NUM_4_FUNC pulseLedUp(2, 100, 500) #define NUM_5_FUNC pulseLedUp(3, 10, 400) #define NUM_6_FUNC pulseLedUp(4, 10, 300) #define NUM_7_FUNC pulseLedDown(2, 100, 1000) #define NUM_8_FUNC pulseLedDown(3, 10, 750) #define NUM_9_FUNC pulseLedDown(4, 10, 500) / * * blinkLed(num, delay) - just blinking. Num - number of blinks, delay - delay between blinks (ms) * * pulseLed(num, delay, speed) - pulsates (smoothly flares up and fades out) * pulseLedUp(num, delay, speed) - pulsates upward (flares up smoothly, then goes out abruptly) * pulseLedDown(num, delay, speed) - pulsates down (lights up sharply and goes out smoothly) * num - number of blinks, delay - delay between blinks (ms), speed - speed at which it lights up and goes out (the higher the number, the slower) * / #include <SPI.h> #include <SD.h> byte tmp; bool errorFlag = 1; void setup() { delay(300); Serial.begin(9600); / / pinMode(14, OUTPUT); / / DELETE LATER !!!! Used that pin as gnd for testing pinMode(LED_PIN, OUTPUT); } void loop() { if(errorFlag) / / if errof happened or boot up { Serial.print("Initializing SD card..."); if (SD.begin(10)) / / try to ini SD card { Serial.println("card initialized."); errorFlag = 0; / / reset flag is OK, so go into reading loop } else { Serial.println("Card failed, or not present"); / / else - just wait to try again delay(3000); } } else { File dataFile = SD.open(FILE_NAME); / / open file if (dataFile) / / if ok - run reading loop { Serial.println("file opened "); Serial.println(); while (dataFile.available()) { tmp = dataFile.read(); if((tmp>0x2F) & (tmp<0x3A)) / / check is character is a 0-9 num { tmp -= 0x30; / / get num from an ascii Serial.println(tmp, DEC); switch(tmp) / / switch between 0-9 { case 0: NUM_0_FUNC; break; case 1: NUM_1_FUNC; break; case 2: NUM_2_FUNC; break; case 3: NUM_3_FUNC; break; case 4: NUM_4_FUNC; break; case 5: NUM_5_FUNC; break; case 6: NUM_6_FUNC; break; case 7: NUM_7_FUNC; break; case 8: NUM_8_FUNC; break; case 9: NUM_9_FUNC; break; } } } Serial.println("end of file"); Serial.println(); dataFile.close(); / / end if file - close it, to open again } else / / if file has filed to be opened - set flag and wait { Serial.println("file open error "); Serial.println(); errorFlag = 1; delay(1000); } } } void blinkLed(byte num, uint16_t del) { for(byte i=0; i <num; i++){ digitalWrite(LED_PIN, HIGH); delay(del); digitalWrite(LED_PIN, LOW); delay(del); } } void pulseLed(byte num, uint16_t del, uint16_t spd) { while(num--) { for(uint16_t j=1; j <spd; j++){ digitalWrite(LED_PIN, HIGH); delayMicroseconds(j); digitalWrite(LED_PIN, LOW); delayMicroseconds(spd-j); } delay(del); for(uint16_t j=spd; j; j--) { digitalWrite(LED_PIN, HIGH); delayMicroseconds(j); digitalWrite(LED_PIN, LOW); delayMicroseconds(spd-j); } delay(del); } } void pulseLedUp(byte num, uint16_t del, uint16_t spd) { while(num--) { for(uint16_t j=1; j <spd; j++){ digitalWrite(LED_PIN, HIGH); delayMicroseconds(j); digitalWrite(LED_PIN, LOW); delayMicroseconds(spd-j); } delay(del); } } void pulseLedDown(byte num, uint16_t del, uint16_t spd) { while(num--) { for(uint16_t j=spd; j; j--) { digitalWrite(LED_PIN, HIGH); delayMicroseconds(j); digitalWrite(LED_PIN, LOW); delayMicroseconds(spd-j); } delay(del); } }

Claims

1. an optical sensing unit having one or more lenses (201, 202) capable of holding a plurality of sensing elements for sensing biosignals associated with a plurality of electromagnetic fields emitted by a user in at least three operational modes, wherein an output signal is obtained based on the biosignals and the plurality of electromagnetic fields; an optical transmitting unit for transmitting said output signal in at least the form of an optical signal; Three switches for switching between the plurality of operation modes; a plurality of light-emitting units each representing one of the operation modes by emitting a predetermined light signal; at least two lasers inside the device, including a first laser that is constantly active during a second operational mode, representing the emission of a static light signal by one of the plurality of optical emitting units, and a second laser connected to a motion detection sensor that can be turned on and off when approached by a user, representing the emission of a repeating flashing light signal by another light emitting unit; a processing unit that processes information from at least one of the motion detection sensor, the SD card, the laser, the DC / DC converter, the selection switch, and the USB adapter using artificial intelligence; A device (100) for developing concentration, comprising:

2. 10. The apparatus for developing concentration of claim 1, further comprising a power source coupled to said optical sensing unit and said optical transmitting unit.

3. 3. The device for developing concentration according to claim 1 or claim 2, wherein the plurality of sensing elements are spherical.

4. 4. The device for developing concentration according to any one of claims 1 to 3, further comprising a housing and a lid.

5. 5. The device for developing concentration according to claim 4, wherein the device has a plurality of numbers or letters located on one of the housing or cover as symbols for focusing the user's attention.

6. 6. A device for developing concentration according to claim 5, characterized in that the numbers are arranged such that a first group includes the numbers 1, 4 and 5, and a second group includes the numbers 2, 7, 8 and 9, 0, 6, 3.

7. 5. A device for developing concentration according to claim 4, characterized in that said one or more lenses (201, 202) are arranged on a lid.

8. 8. A device for developing concentration according to any one of claims 1 to 7, characterized in that the optical emitting unit comprises an optical lens.

9. 9. The device for developing concentration according to any one of claims 1 to 8, further comprising a conversion unit for converting the output signal into an electrical signal.

10. 10. A device for developing concentration according to any one of claims 1 to 9, characterized in that the device is provided with an SD card reader.

11. 11. The device for developing concentration as claimed in claim 10, wherein the SD card is read from an SD card adapter and the number sequence read from the SD card is displayed on an OLED screen.

12. 12. A device for developing concentration according to any one of claims 1 to 11, characterized in that the device is provided with a compass on its cover for pointing the laser beam in a specific direction.

13. 13. The device for developing concentration according to any one of claims 1 to 12, wherein the device is provided with a USB connector on the rear side thereof.

14. 12. A device for developing concentration according to claim 10 or claim 11, characterized in that the device comprises an LED light for displaying the sequence of numbers from the SD card in the form of light pulses.

15. providing one or more lenses for focusing a user's attention as part of an optical sensing unit included together with an optical transmitting unit in a device according to any one of claims 1 to 14; switching between a plurality of operation modes with three switches; indicating each of the plurality of operational modes by emitting a predetermined light signal with a light-emitting unit; sensing biosignals associated with a plurality of electromagnetic fields emitted by a user by a plurality of sensing elements of the optical sensing unit (210) in at least three operational modes, and obtaining an output signal based on the biosignals and the plurality of electromagnetic fields; converting the biological signal into an output signal by a conversion unit; processing the output signal by a processing unit to obtain an optical signal generated by the optical transmitting unit; 1. A method for developing concentration, comprising:

16. 16. The method of developing concentration of claim 15, further comprising the step of providing a power source coupled to said optical sensing unit and said optical transmitting unit.

17. 17. The method for developing concentration according to claim 15 or 16, wherein the plurality of sensing elements in the sensing step are spherical.

18. 18. A method for developing concentration according to any one of claims 15 to 17, wherein the optical emitting unit comprises an optical lens.

19. 15. A computer-implemented method for developing concentration, loadable into a device according to any one of claims 1 to 14, comprising: receiving an electrical signal converted by a conversion unit from at least an output signal obtained from the optical sensing unit based on a biosignal associated with a plurality of electromagnetic fields emitted from the user; processing said electrical signals in a processing unit using artificial intelligence to output an optical signal generated by the optical emitting unit that is related to the user's concentration; 10. A computer-implemented method comprising:

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