Concentration development device comprising three modes and computer process used for this device

Abstract

Device 100 for concentration development, comprising: an optical detection unit including one or more lenses 201, 202 capable of retaining sensitive elements, these elements being configured to detect a biological signal supplied by a user according to at least three operating modes, and three switches for toggling between the different operating modes; a plurality of lighting units configured to indicate each of the operating modes by emitting a predetermined light signal; an information processing unit using artificial intelligence. Figure 1

Description

Title of the invention: Concentration development device comprising three modes and computer method used for this device. Technical field

[0001] The present invention relates generally to optical devices and computer processes used in a concentration development device. It can be used in various applications, including education, training, and therapy.

[0002] CONTEXT

[0003] Various devices exist that use, for example, laser beams as communication channels between the signal transmitter and receiver. Each transmitted signal is then generated by a laser generator equipped with a laser beam modulation device using a data signal connected to a data signal source. Each received signal is received by a photodetector and a device that converts the perceived modulated laser radiation into electrical data signals.

[0004] The drawback of this type of known data transmission system is its low operational reliability, due to the complexity of its design, which includes a large number of complex signal transmitters and receivers with multifunctional connections and a complex precision guidance system with moving parts. In a known system, when transmitting information between a transmitter and a receiver of signals located at considerable distances, for example over hundreds or thousands of kilometers using several repeaters, the transmission delay can reach a few tenths of a second. This known system exhibits insufficient noise immunity, as the appearance of an obstacle on the laser communication line can disrupt the operation of the system or interfere with the transmitted signals.

[0005] It is therefore important to focus on the principle of similarity. The principle of similarity is based on wave synthesis theory combined with unified reality theory (see GP Grabovoi's doctoral thesis in physical and mathematical sciences, "Research and Analysis of Fundamental Definitions of Optical Systems for the Prediction of Earthquakes and Industrial Disasters," Moscow, RAEN Publishers, 1999, pp. 9-19). The methods mentioned below also rely on physical and mathematical theories, experimental results, physical and mathematical calculations, and the results of these calculations are presented in the publication entitled "Research and Analysis of fundamental definitions of optical systems for disaster prevention and predictive control of microprocessors”, Electronic Equipment, Series 3, Microelectronics”, 1999, edition 1 (153), and other scientific documents.Two other patents also form the basis of the claimed device and method: RU2148845C1 entitled "Disaster Prevention Method and Equipment for its Implementation", published on May 10, 2000, relating to an optical system incorporating components produced from crystals distributed along the direction of propagation of the emission and positioned in a glass sphere to anticipate a disaster in an area; and RU2163419C1 entitled "Data Transmission System", published on February 20, 2001, based on the principle of similarity and relating to a data transmission system having a signal transmitter comprising spherical glass sensing elements and a signal receiver mounted at a certain distance from the transmitter having a spherical module spaced from the latter to improve the operating reliability and noise immunity of the system.

[0006] [0004A] US 12,144,599 B2 “DEVELOPMENT DEVICE” "PRK-1U THREE-MOD ETERNAL LIFE CONCENTRATIONS," published on November 19, 2024, relates to a concentration development device comprising an optical sensor with multiple sensitive elements configured to receive a signal sent by the user.

[0007] [0004B] This invention application is essentially identical to the application invention filed by the same applicant, Grigorii Petrovich Grabovoi, with the Hellenic Industrial Property Organization (OBI), which received a decision to grant patent application 20240100429 based on the final report of examination of the invention, the end date of which was May 5, 2025.

[0008] [0004C] This invention application is essentially identical to the application filed by the same applicant, Grigorii Petrovich Grabovoi, with the German Patent and Trademark Office (DPMA) as a utility model, registered on December 13, 2024 under utility model number DE 20 2024 103 073 U1 entitled "Ein Gérât zur Entwicklung der Konzentration mit drei Mode"; The PRK-1UM device has been registered as an industrial design in the following countries:

[0009] (Benelux: Belgium, Netherlands, Luxembourg); 6406099 (United Kingdom); 148367 (Switzerland); 1790930 (Japan); 202418610 (Australia). Summary of the invention

[0010] By departing from the aforementioned logical and widely accessible method for solving the problem, the present invention is both unique and relevant. It meets all the criteria listed above.

[0011] The objective of the present invention is to provide a device for developing a user's concentration through an information transmission system that increases operational reliability while ensuring time-free and noise-free information transmission. Furthermore, a user's concentration can be defined as the mental strength of a person focusing on a specific goal, for example, eternal life.

[0012] The present invention solves all the problems mentioned above by providing a device, a method, and a computerized approach for developing a user's concentration. This device is a three-mode device, also known as the PRK-1UM eternal life concentration device.

[0013] The invention relates to a concentration development device comprising: an optical detection unit, comprising one or more lenses capable of retaining sensitive elements, these elements being configured to detect a biological signal supplied by a user according to at least three modes of operation, the signal being associated with a plurality of electromagnetic fields; and an output signal obtained from the biological signal and the plurality of electromagnetic fields; an optical emission unit configured to emit the output signal; the optical emission unit emitting the output signal in the form of at least one optical signal; three switches for switching between the different modes of operation; a plurality of lighting units configured to indicate each of the different modes of operation by emitting a predetermined light signal; and further comprising: at least two lasers placed inside the device.A first laser is continuously illuminated during a second operating mode, representing the emission of a static light signal by one of the lighting devices; the second laser is connected to a motion sensor capable of switching on and off when a user is nearby and representing the emission of a repeated pulsed light signal by another lighting device; and a processing unit for information from at least one motion sensor, an SD card, a laser, a DC / DC converter, a selector and a USB adapter, using artificial intelligence.

[0014] Preferably, the device may include a power supply in communication with the optical detection unit and the optical emission unit. The sensing elements may be spherical. The device may include a housing and a cover, and several numbers or letters may be placed on the housing or the cover, these numbers or letters being symbols to focus the user's attention. The first set of numbers may include the digits 1, 4, and 5, and a second set of numbers may include the digits 2, 7, 8, and 9, 0, 6, and 3.

[0015] Preferably, the lens or lenses can be arranged on the lid.

[0016] The device may also include a conversion unit configured to convert the output signal into an electrical signal.

[0017] An SD card adapter can also be installed. According to the wave synthesis process, an SD card adapter can be installed to facilitate the transition of an electron to an infinite medium via a number displayed on the screen. The third operating mode, thanks to artificial intelligence, may therefore require the use of an SD card. Concentrating on the numbers read from the SD card, displayed on the screen, allows the user to simulate the operation of the third mode. Thus, by comparing the operation of the third operating mode with its simulated operation, the user can accelerate the development of their concentration and strengthen the focus of their mental models of events.

[0018] In addition, an OLED screen can monitor the series of numbers read from an SD card inserted in the adapter.

[0019] In addition, a compass can be installed on the cover to orient the laser beams in a specific direction.

[0020] In addition, a USB connector can be installed on the back of the device to connect, for example, an external power supply.

[0021] In addition, LED indicators can be installed to display the number sequences from an SD card as light pulses.

[0022] Another object of the present invention is to provide a method for developing concentration.This process comprises the following steps: providing one or more lenses to focus a user's concentration, these lenses being part of an optical detection unit integrated into the device; switching between several operating modes using three switches; indicating, by a light device, each of the operating modes by emitting a predetermined light signal; detecting, by several sensitive elements of the optical detection unit, a biological signal provided by a user according to at least three operating modes, this signal being associated with several electromagnetic fields; and obtaining an output signal based on the biological signal and the electromagnetic fields; converting the biological signal by a conversion unit to obtain an output signal; processing the output signal by a processing unit to obtain an optical signal generated by an optical emission unit.

[0023] Preferably, the method may include the step of providing a power supply, which is in communication with the optical detection unit and the optical emission unit.

[0024] The optical emission unit may include an optical lens.

[0025] A third object of the present invention is to provide a computerized concentration development method, which can be loaded into the claimed device. This method includes the following steps: reception of an electrical signal converted by a conversion unit from at least one output signal; the output signal is obtained from the optical detection unit following a biological signal associated with a plurality of electromagnetic fields provided by a user; processing of the electrical signal by a processing unit using artificial intelligence to produce an optical signal generated by the optical emission unit associated with a user's concentration. DESCRIPTION OF FIGURES

[0026] The description is described in more detail below, with reference to the device, methods and exemplary systems illustrated in the drawings.

[0027] Fig. 1 presents a top left front view of a device according to a first object of the present description.

[0028] Fig. 2 presents a top view of the device according to the first object of this description.

[0029] Fig. 3 presents an internal view of the first object of this description.

[0030] Figure 4 presents an overview of the components of the first object of the present description.

[0031] Figure 5 presents a functional diagram of the first object of this description.

[0032] Figure 6 presents a computer system adapted to a computer-implemented process according to a third object of this description.

[0033] Figure 7 presents an electrical diagram of the first object of this description.

[0034] Figure 8 presents a flowchart illustrating a process of the second object of the present description.

[0035] DESCRIPTION OF THE IMPLEMENTATION METHOD

[0036] During concentration, the user can imagine their consciousness as a sphere of sensitive elements surrounding their body, supported by their own body. In a subsequent step, the user can imagine that the sphere transforms into a form similar to their own, and that this form is then absorbed by the surface of each sensitive element through the reflection of light radiating from the body. The user can imagine that the radiation from the bodily form, upon contact with the surface of this form, propagates throughout the infinite space outside their body. Infinite space is considered the eternal reality linked to the user's organism, which promotes the development of concentration on eternal life.

[0037] In accordance with wave synthesis theory, reality can be considered as a periodic intersection of stationary and dynamic regions, while in these intersection zones the synthesis of a dynamic wave and a stationary wave occurs. Any phenomenon in reality can be defined as a Optical system. Human perception occurs using light elements that carry images containing information. When a person transmits information to an optical sensor, that person can be considered the transmitting optical system. The transmitted information, generated by their thoughts, is received by an optical sensor toward which they direct the generated thoughts. Being an electromagnetic wave, a thought can be transmitted as an element of an optical system. The sensitive elements of the optical sensor preferably have a spherical shape, as this shape allows for maximum activation through the internal reflection of biological signals. Biological signals, or biosignals, can be generated by electric, electromagnetic, or non-electric fields and can be brain waves or other types of signals generated by the human body.

[0038] The tri-mode device for concentration development detects the generation of biological signals and electromagnetic fields from electromagnetic waves generated by the user, according to the principle of universal connection, with concentration control by artificial intelligence (AI).

[0039] Wave synthesis theory recognizes that a thought generated in the form of radiation simultaneously possesses two quantum states. The first state is located on one of the sensitive elements of a signal emitter, and the second on a signal receiver.

[0040] Based on these principles, the thought interaction device for developing concentration described herein was created.

[0041] The device works universally to develop the following concentrations in order to ensure eternal life:

[0042] Command 1:

[0043] - Development of eternal life concentrations for any event.

[0044] Command 2:

[0045] - Development of concentrations of eternal life according to controlled clairvoyance.

[0046] Command 3:

[0047] - Development of eternal life concentrations according to controlled prediction.

[0048] Command 4:

[0049] - Development of eternal life concentrations for rejuvenation. The This device allows the development of concentrations of eternal life in order to master the technologies implemented by spiritual development or controlled clairvoyance.

[0050] With reference to the figures, [Fig. 1] is a general view of a three-mode apparatus 100 for concentration development, hereinafter referred to as "apparatus 100". The apparatus may comprise a substantially rectangular housing. The apparatus illustrates an embodiment of the present invention. This embodiment The device features three lenses 101 that can be fixed to the outer surface of the device's cover. However, this embodiment requires at least one lens 101; the other two could therefore be removed. Each lens 101 can be placed in a plate (for example, a metal plate). The diameter of the lenses 101 can be 20 mm, 25 mm, 60 mm, or any other diameter applicable to a particular embodiment of the device 100. The diameter of the plate can be 60 mm, 64 mm, 70 mm, or any other diameter applicable to a particular embodiment of the device 100.

[0051] The device can be equipped with an additional plate 120, 220 for the placement of stones, such as diamonds, fixed to the case or the cover.

[0052] At least two lasers are also present on the top of the cover. The first laser is continuously illuminated when the device is switched on. The second laser works in conjunction with a motion sensor to detect a user within three meters of the device. However, other types of motion sensors can also be used to detect users at other ranges.

[0053] As shown in [Fig. 1], symbols such as numbers 140, but also letters, can be placed on the lid. For example, the numbers 1, 4, and 5 can be placed near a large lens 101, as illustrated. Concentration, thanks to the presence of numbers near the lenses, can be improved by focusing on the lenses as described above and by concentrating on the specific symbols.

[0054] The device also includes three switches 132, 131, and 130. The first switch, 132, powers the device and puts it into "universal" mode. An indicator light then illuminates. In this embodiment, the button for the first mode is illuminated red. When the second switch, 131, is activated, the button for the second mode is illuminated green, thus reinforcing the stationary phase of reality. The second mode is manifested by the emission of a static light from an LED located on the left side of the device.

[0055] The last button 130 activates the third operating mode, which enhances the dynamic phase of reality (periodic pulse). However, the first mode must be deactivated before the third button 130 can be activated. The second button 131 then begins to flash, and the third button 130 illuminates blue. This third mode is manifested by the emission of periodic pulsed light from the LED located on the left side of the device 100. The third button 130 also activates additional functions of the device. This third operating mode activates two lasers, a motion sensor, an SD card adapter or module, and an OLED screen 160. When the third button is activated, the circuit is powered by 5 V.

[0056] The activation of the lasers can be observed from the rear of the device through the ventilation slots (not shown). The technical effect of the third button is to allow the user to interact with the electromagnetic field when near the first laser or approaching the device just before the second laser is activated by the motion sensor. When the first laser is activated and then the second, the interactions with the human electromagnetic field occur in light beams of higher intensity and radiation density, which normalizes the characteristics of this field and allows the user to focus more actively on events that guarantee an objective, such as eternal life, and thus to implement them quickly. This effect is further enhanced by the operation of the LEDs.

[0057] It is also possible to monitor the device remotely via the Internet. The effect mentioned above is then obtained on the most remote participants or users, in the presence of the electromagnetic field due to the radiation of human thought and the parameters of the user's electromagnetic field combined with the electromagnetic field of the planet.

[0058] In addition, an OLED screen can be activated in number sequence reading mode. To do this, click the large button 170 located to the right of the OLED screen. The LED indicator on the front right panel of the device flashes during number sequence reading, at a frequency and intensity corresponding to the displayed numbers. Numbers or number sequences can be read from an SD card inserted into an SD card adapter on the front of the device 100.

[0059] Using the number sequences on the SD card allows for concentration to be performed with the desired control and at the required level. Number sequences can be added to the SD card periodically. The number sequences stored on the SD card are not deleted during the factory assembly of the device. Specific number sequences can guarantee the development of lifelong concentrations for the user. Clicking the button to the right of the OLED screen allows access to the file from the SD card. The numbers stored on the SD card are then displayed on the screen.

[0060] On [Fig.2], on the upper surface of the body or cover of the device, there is a compass 204 with a marker indicating the location of its needle parallel to the beams of the lasers 210 located inside the device 200. The compass 204 makes it possible to determine the angle between the north-south geographic direction and the direction of the laser beams 210, each indicated by an arrow.

[0061] The lasers transmit a beam of red light to a large lens located inside the device. The beams are directed from the front face to the rear wall, strictly parallel to the lateral plane of the device. The lasers are switched on by by pressing the third button. One of the lasers is permanently on, while the other is connected to a motion sensor. In the absence of the user, this laser switches off 30 seconds after being switched on and switches back on when the user approaches the device within 2 meters.

[0062] The first laser beam 210 acts as a static reality wave dispersing through the lens 450 to infinity, in the eternal environment.

[0063] The dynamic reality wave function is provided by a second laser beam, also present inside the device and activated by a motion sensor 203. This second laser beam, activated by a motion sensor, forms a gap with the first laser beam between these two laser beams, creating an increase in the intensity of the thought radiation due to the scattering and reflection of the laser beams in a large lens inside the device. When a laser beam is activated, this effect occurs inside the lens, in the reflected and scattered sections of a laser beam.

[0064] Figure 3 illustrates the internal arrangement of the present embodiment. Two lasers 310 are installed on the lid, and at least one of them is connected to a sensor board 399 activating the motion sensor on the lid.

[0065] The device 300 is also configured to activate an artificial intelligence (AI) function programmed into two processing units 391 and 392. These processing units can be microcontrollers or similar devices, to process and transmit the information contained on the SD card to the OLED screen or LED lamp. These processing units 391 and 392 receive electrical signals from the converter 380, which increase the input voltage from 5 V to the required voltage of 9 to 12 V, and transfer the signal to a more powerful converter 480, illustrated in [Fig. 3], which converts the optical signal emitted by the optical emission unit.

[0066] The AI ​​function allows the device 300, depending on the user's activity and their degree of focus on eternal life in relation to specific events, to automatically switch off the device 300's operating modes, and then, after a period determined by the device 300, to reactivate one of the three operating modes. The procedure for activating this artificial intelligence function has therefore been developed.

[0067] More specifically, the first processing unit 391 processes and transmits information from the SD card to the screen, while the second processing unit 392 processes and transmits information from the SD card to an LED 398, in the form of light pulses of varying brightness and duration. The information read, containing series of digits, is then transmitted to the LED, which, depending on the digits contained in the card, modifies the pulse pattern (brightness). Each number corresponds to its own pulse frequency and intensity. luminous (brightness). The SD card, according to the wave synthesis process, achieves the transition of an electron to an infinite medium through periodic light pulses in an LED, thanks to the dynamics of light diffusion in space. Thus, the radiation of thought translates the information of the concentration objective corresponding to the series of numbers into an infinite and eternal environment, where a systemic level of objective realization reigns.

[0068] The device 300 may also include mini-buttons 170 for controlling the information displayed on the screen 360. A brief press of the upper button moves the cursor from the top line to the desired file (l.TXT). A brief press of the lower button opens the file and the numbers written on the SD card are displayed on the screen 360.

[0069] In addition, the 300 device offers the possibility of combining three operating modes, thus improving concentration. The 330 switching buttons are connected to a 9-pin switch 397 to switch the signals from the SD card to the processing units.

[0070] The output of the processing units containing a series of numbers for the development of the concentration is monitored on a 360 OLED screen, but it could be any other screen, such as an LED or LCD screen.

[0071] There is also an SD adapter or SD 396 module, which allows an inserted SD card to be read and its contents transferred to the processing units or microcontrollers. As explained previously, the device has an operating mode for reading the number sequence from the SD card. The number sequence displayed on the screen, according to the wave synthesis process, enables the transition of an electron to an infinite, eternal environment or medium via the SD card and the processing unit software.

[0072] Thus, the radiation of thought transfers information from the target of concentration corresponding to the series of numbers to an infinite and eternal environment, where a systemic level of achievement of objectives reigns.

[0073] Each operating mode of the device, associated with the operation of the artificial intelligence, is optimized by an SD card. Using the numbers stored on the SD card, the user can perform concentration with the desired level of control. Number sequences can be added to the SD card periodically. Number sequences stored on the SD card are not deleted during the factory assembly of the device. It is also possible to add individual number sequences or any other pre-selected number sequences.

[0074] When the device is in SD reading mode, the light-emitting diode (LED) located on the front right is illuminated by a signaling LED 398 and flashes at a frequency and intensity corresponding to the digits read.

[0075] At the rear of the device, a USB connector 395 allows, for example, an external power supply to be connected to the device from a 5 V source. In addition, mini USB connectors supply 5 V to the second processing unit 392 by connecting to its connector.

[0076] Figure 4 presents an overview of the main components of an embodiment of the present invention. The biconvex lens 450 can measure 60 mm, but can be of other dimensions. This figure shows the same components as the preceding figures, such as the sensor board 499 and the laser 410 mounted on the cover 403, the OLED display 460, the LED lamp 493, the processing units 491 and 493, a converter 480, etc. In this embodiment, the processing units used are the Arduino 1 and 2. However, many other microcontrollers and microcontroller platforms are available for physics computing. Examples include Parallax Basic Stamp, Netmedia's BX-24, Phidgets, MIT's Handyboard, and many others offering similar functionality. All these tools allow programming in an easy-to-use package.Arduino also simplifies the use of microcontrollers and offers advantages to teachers, students, and hobbyists compared to other systems.

[0077] Figure 5 is a functional diagram illustrating the various units of a three-mode device 500 for developing concentration, according to certain embodiments. More specifically, the device 500 may include an optical detection unit 550, an optical emission unit 510, one or more lenses 501, three switches 530, and an illumination unit 593. The device may include a housing and a cover. The lens(es) 501 and the lasers may be arranged on the cover.

[0078] Figure 6 presents a schematic representation of a computing device for a device 600 according to the present invention, in which a set of instructions enabling the device to perform one or more of the methodologies described herein can be executed. In a network deployment, the machine can operate as a server or a client machine in a server-client network environment. This computing system comprises at least one processor 671, main memory 673, and static memory 675, communicating with each other via a bus 678. The computing device may also include a network interface 677. The hard disk drive 679 may include a machine-readable medium 681, which stores one or more instruction sets 682 implementing or used by one or more of the methodologies or functions described herein.

[0079] The instructions may be software, such as that attached in Annex 1, comprising a computerized concentration development method, loadable into the claimed device 100, 300. The instructions involve receiving an electrical signal converted by a conversion unit from at least one output signal. The output signal is obtained from the optical detection unit from a biological signal associated with a plurality of electromagnetic fields provided by a user. In the next step, the electrical signal is processed by a processing unit using artificial intelligence (AI) to produce an optical signal associated with the user's concentration, in the form of a flashing LED. The AI ​​may consist of any type of artificial algorithm.

[0080] Figure 7 presents an electrical diagram illustrating the electrical connections of all the components of the device. The connected components, for example, between the LB-10 converter and the DC / DC converter, but not mentioned previously, are the 783a and 783b ferrites.

[0081] Figure 8 presents a flowchart explaining each step of the process according to the The present invention. The device 100-700 comprises an optical detection unit and an optical emission unit. The first step 811 of the method consists of integrating one or more lenses into the optical detection unit for detecting biological signals, also called biosignals, provided by the user. The second step 812 consists of switching between three operating modes using three buttons. The third step 813 consists of indicating, by means of a lighting unit or LED, each of the three operating modes by emitting a predetermined light signal. The fourth step 814 consists of detecting, by several sensitive elements of the optical detection unit, a biological signal associated with several electromagnetic fields provided by the user in one of the selected operating modes.Step 5, 815, consists of converting the biological signal into an output signal by processing it with a processing unit, and then, in step 816, emitting the output signal with an optical emission unit. Although the invention has been described by way of example, it is understood that various modifications can be made to the apparatus and means described herein without departing from the scope and teachings of the invention. Therefore, the embodiments described should be considered as mere examples, and the invention or disclosure should not be limited except to the limits specified in the accompanying claims. Appendix 1

[0082] The text of the sketch program included in the device of this disclosure displays a series of numbers from the SD card to the LED (LED - diode):

[0083] #define FILE_NAME "l.txt" / / file to open

[0084] #define LED_PIN 7 / / pin led is connected to

[0085]

[0086]

[0087]

[0088]

[0089]

[0090]

[0091]

[0092]

[0093]

[0094]

[0095]

[0096]

[0097] H 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)

[0098]

[0099]

[0100] * * pulseLed(num, delay, speed) - puisâtes (smoothly flares up and fades out) * pulseLedUp(num, delay, speed) - puisâtes upward (flares up smoothly, then goes out abruptly)

[0101] * pulseLedDown(num, delay, speed) - puisâtes down (lights up sharply and goes out smoothly)

[0102] * 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) * /

[0103]

[0104]

[0105]

[0106]

[0107]

[0108]

[0109]

[0110] [OUI]

[0112]

[0113]

[0114]

[0115]

[0116]

[0117]

[0118] #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 { .

[0119] Serial.print("Initializing SD card...");

[0120] if (SD.begin(lO)) / / try to ini SD card

[0121] {

[0122] Serial.println("card initialized.");

[0123] errorFlag = 0; / / reset flag is OK, so go into reading loop

[0124] }

[0125] else

[0126] {

[0127] Serial.println("Card failed, or not présent"); / / else - just wait to try again

[0128] delay(3000);

[0129] }

[0130] }

[0131] else

[0132] {

[0133] File dataFile = SD.open(FILE_NAME); / / open file

[0134]

[0135]

[0136] if (dataFile) / / if ok - run reading loop

[0137] {

[0138] Serial.println("file opened ");

[0139] Serial.println();

[0140] while (dataFile.available())

[0141] {

[0142] tmp = dataFile.readQ;

[0143] if((tmp>0x2F) & (tmp<0x3A)) / / check is character is a 0-9 num

[0144] {

[0145] tmp -= 0x30; / / get num from an ascii

[0146] Serial.println(tmp, DEC);

[0147] switch(tmp) / / switch between 0-9

[0148] {

[0149] case 0:

[0150] NUM_0_FUNC;

[0151] break;

[0152] case 1:

[0153] NUM_1_FUNC;

[0154] break;

[0155] case 2:

[0156] NUM_2_FUNC;

[0157] break;

[0158]

[0159] case 3:

[0160] NUM_3_FUNC;

[0161] break;

[0162]

[0163] case 4:

[0164] NUM_4_FUNC;

[0165] break;

[0166]

[0167] case 5:

[0168] NUM_5_FUNC;

[0169] break;

[0170]

[0171] case 6:

[0172] NUM_6_FUNC;

[0173] break;

[0174] case 7:

[0175] NUM_7_FUNC;

[0176] break;

[0177]

[0178] case 8:

[0179] NUM_8_FUNC;

[0180] break;

[0181]

[0182] case 9:

[0183] NUM_9_FUNC;

[0184] break;

[0185] }

[0186] }

[0187] }

[0188]

[0189] Serial.println("end of file");

[0190] Serial.println();

[0191]

[0192] dataFile.close(); / / end if file - close it, to open again

[0193] }

[0194] else / / if file has filed to be opened - set flag and wait

[0195] {

[0196] Serial.println("file open error ");

[0197] Serial.println();

[0198]

[0199] errorFlag=l;

[0200]

[0201] delay(lOOO);

[0202] }

[0203] }

[0204] }

[0205] void blinkLed(byte num, uintl6_t del)

[0206] {

[0207] for(byte i=0; icnum; i++)

[0208] {

[0209] digitalWrite(LED_PIN, HIGH);

[0210] delay(del);

[0211] digitalWrite(LED_PIN, LOW);

[0212] delay(del);

[0213] }

[0214] }

[0215] void pulseLed(byte num, uintl6_t del, uintl6_t spd)

[0216] {

[0217] while(num—)

[0218] {

[0219] for(uintl6_t j=l; j <spd; j++)

[0220] {

[0221] digitalWrite(LED_PIN, HIGH);

[0222] delayMicroseconds(j);

[0223] digitalWrite(LED_PIN, LOW);

[0224] delayMicroseconds(spd-j);

[0225] }

[0226] delay(del);

[0227]

[0228] for(uintl6_t j=spd; j; j—)

[0229] {

[0230] digitalWrite(LED_PIN, HIGH);

[0231] delayMicroseconds(j);

[0232] digitalWrite(LED_PIN, LOW);

[0233] delayMicroseconds(spd-j);

[0234] }

[0235] delay(del);

[0236] }

[0237] }

[0238] void pulseLedUp(byte num, uintl6_t del, uintl6_t spd)

[0239] {

[0240] while(num—)

[0241] {

[0242] for(uintl6_t j=l; j <spd; j++)

[0243] {

[0244] digitalWrite(LED_PIN, HIGH);

[0245] delayMicroseconds(j);

[0246] digitalWrite(LED_PIN, LOW);

[0247] delayMicroseconds(spd-j);

[0248] }

[0249] delay(del);

[0250] }

[0251] }

[0252] void pulseLedDown(byte num, uintl6_t del, uintl6_t spd)

[0253] {

[0254] while(num—)

[0255] {

[0256] for(uintl6_t j=spd; j; j—)

[0257] {

[0258] digitalWrite(LED_PIN, HIGH);

[0259] delayMicroseconds(j);

[0260] digitalWrite(LED_PIN, LOW);

[0261] delayMicroseconds(spd-j);

[0262] }

[0263] delay(del);

[0264]

[0265] }

[0266] }

Claims

Demands

1. A concentration development device (100) comprising: - an optical detection unit including one or more lenses (201, 202) capable of retaining sensitive elements. These elements are configured to detect a biological signal emitted by a user according to at least three operating modes, the signal being associated with several electromagnetic fields; an output signal being obtained from the biological signal and the electromagnetic fields; - an optical emission unit configured to emit the output signal; the optical emission unit emitting the output signal in the form of at least one optical signal; - three switches for toggling between the different operating modes; - several lighting units configured to indicate each of the different operating modes by emitting a predetermined light signal;The device is characterized in that it further comprises: - at least two lasers placed inside, a first laser being constantly lit during a second operating mode, representing the emission of a static light signal by one of the lightning rods; the second laser being connected to a motion sensor capable of switching on and off when a user is nearby and representing the emission of a repeated pulsed light signal by another lightning rod; and - a processing unit for information from at least one motion sensor, an SD card, a laser, a DC / DC converter, a selector and a USB adapter, using artificial intelligence.

2. The device according to claim 1 is also characterized in that it comprises a power supply in communication with the optical detection unit and the optical emission unit.

3. The device according to any one of the preceding claims is characterized in that the sensing elements are spherical.

4. The device according to any one of the preceding claims is also characterized in that it comprises a housing and a cover.

5. Device according to claim 4, characterized by a plurality of numbers or letters placed on a case or cover, these numbers or letters being symbols intended to focus the user's attention.

6. Device according to claim 5, characterized by a first set of digits comprising the digits 1, 4 and 5, and a second set of digits comprising the digits 2, 7, 8 and 9, 0, 6 and 3.

7. Device according to claim 4, characterized in that the lens or lenses (201, 202) are arranged on the cover.

8. Device according to any one of the preceding claims, characterized in that the optical emission unit comprises an optical lens.

9. Device according to any one of the preceding claims, characterized in that it comprises a conversion unit configured to convert the output signal into an electrical signal.

10. Device according to any one of the preceding claims, characterized in that an SD card reader is installed.

11. Device according to claim 10, characterized in that an OLED screen displays the series of digits read from an SD card via the SD card adapter.

12. Device according to any one of the preceding claims, characterized in that a compass is installed on the cover to orient the laser beams in a specific direction.

13. Device according to any one of the preceding claims, characterized in that a USB connector is installed at the rear.

14. Device according to claims 10 or 11, characterized in that it is equipped with LEDs to display the series of digits from an SD card in the form of light pulses.

15. Method for developing concentration, comprising the following steps: - providing one or more lenses for focusing the user's concentration, these lenses being part of an optical detection unit, the optical detection unit and an optical emission unit being included in the device according to any one of claims 1 to 14; - switching between several operating modes using three switches; - indication, by a lighting unit, of each of the operating modes by the emission of a predetermined light signal; the method is characterized by: - ​​the detection, by a plurality of sensitive elements of the optical detection unit (210), of a biological signal provided by a user in at least three operating modes, the signal being associated with a plurality of electromagnetic fields; and the obtaining of an output signal based on the biological signal and the plurality of electromagnetic fields; - the conversion of the biological signal by a conversion unit to obtain an output signal; and - the processing of the output signal by a processing unit to obtain an optical signal generated by the optical emission unit.

16. The method according to claim 15 is further characterized in that it includes the step of providing a power supply, which is in communication with the optical detection unit and the optical emission unit.

17. The method according to any one of claims 15 and 16 is characterized in that the plurality of sensitive elements is spherical during the detection step.

18. A method according to any one of claims 15 to 17, characterized in that the optical emission unit comprises an optical lens.

19. A computerized method for concentration development, loadable into the device according to any one of claims 1 to 14, comprising the following steps: - receiving an electrical signal converted by a conversion unit from at least one output signal; the optical signal is obtained from the optical detection unit from a biological signal associated with a plurality of electromagnetic fields provided by a user; and characterized by: - ​​processing the electrical signal by a processing unit using artificial intelligence to produce an optical signal generated by the optical emission unit associated with the concentration of a user.

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