Apparatus for destroying viruses by complementary radiation

Abstract

A device for the destruction of viruses by means of complementary radiation, focused on weakening the lipid layer that covers some viruses, thus indirectly destroying it, this technique uses intense modulated light radiation, the main emitter being a 460 nm LED, with the technique of the invention, a secondary radiation is emitted in the 400-460 nm band, to achieve the weakening and destruction of the light, the lipid layer that covers viruses such as SARS-CoV-2, this light radiation is complemented with ultrasound pulses, completing the destruction of the virus internally, for this a technique is used that involves the emission by stratified quantum excitation, this technique uses a monochromatic LED to achieve a very high intensity multicolor emission, this emission is very controllable in terms of tissue penetration.

Description

TECHNICAL FIELD

[0001] The present invention relates to the field of biochemistry, medicine, optoelectronics and electronics development. BACKGROUND

[0002] While fighting viral and bacterial infections through purely chemical means and genetic and biological manipulations, great efforts have been made both theoretically and practically to develop solutions based on electromagnetic radiation and mechanical waves. Basically, these efforts have focused on the destruction of the viral core, and so far no optimal solution has been developed to fight viral pandemics through purely physical means, and it is known that ionizing ultraviolet radiation can destroy almost all viruses. However, this radiation causes very serious damage to the surrounding tissues, which makes it impossible to use it practically on patients. It has been seen that ultra-high frequency waves of the order of 60 GigaHertz allow the modification and in some cases the destruction of the core of certain viruses, although this type of treatment has not yet been perfected for general use, and one of the main treatments of this type of therapy must face the problem of poor penetration of the radiation into the body, for which it has to resort to extracorporeal circulation techniques, extracting the patient's blood and directing it to a chamber where the blood is irradiated, then re-irradiated and re-introduced into the patient. The problem of these dialysis-type techniques is that they can only attack viruses in the blood, but in the case of the SARS-CoV-2 coronavirus, for example, the concentration of pathogens in the lungs, heart and kidneys is very high, and it is usually not reached by the radiation techniques of this type that have been developed so far.

[0003] In the case of the coronavirus SARS-CoV-2, among others, there is still no drug to fight it, and the development of a vaccine to prevent it also takes a long time, and a non-invasive treatment that does not depend on a specifically designed drug or biological solution is needed, a tool of great value on a global scale. It should be noted that many viruses, especially those based on RNA, can mutate, and in the long term it is necessary to continue developing vaccines and drugs. SUMMARY

[0004] The technical purpose of the present invention is to attack the fat or lipid covering in the range of electromagnetic radiation of different frequencies, especially in the range of 400 nanometers to 460 nanometers (blue light) and ultrasonic and supersonic mechanical waves, such as the SARS-CoV-2 coronavirus and other viruses, so that the core of the virus is easily destroyed. This is very different from the non-invasive methods that have been developed, because the other processes attack the core directly, while our technology focuses on using an indirect strategy to destroy the virus, which is heavier in destroying the fat layer around the virus. In order to apply this technology to patients, we use a device that emits high-energy light pulses in a specific wavelength range of 460 nanometers to 400 nanometers, which has a destructive effect on fat and penetrates deep into the tissue to reach the organs where the virus acts, we use very narrow frequencies in a PWM type arrangement, where the valley peak relationship allows us to have good penetration without applying too much energy. Likewise, this technology allows to combine the pre-programmed distribution patterns according to the intensity, duration and repetition frequency of the pulses, to direct light of different wavelengths to specific areas of the patient, depending on the use of another wavelength range between 650 nanometers and 950 nanometers to complement the destructive action of blue light (400 nanometers to 460 nanometers) in this therapy, since the irradiation with light or photon pulses in the range of 950 nanometers to 650 nanometers increases the levels of ATP (adenosine triphosphate), an element that provides energy to the cells and participates actively in the strengthening and recovery.

[0005] The device for the annihilation of viruses by complementary radiation simulates the hand washing process, which has been proven to be very effective in controlling the proliferation of the SARS-CoV-2 coronavirus, since this process weakens the lipid layer of the coronavirus, making it soluble, in water by saponification, once this is done, the mechanical properties of pressure and tension will destroy the nucleus of the virus. Our system includes the weakening of the lipid layer by the action of electromagnetic waves, especially light energy near 460 nanometers in wavelength, and then attacking the virus with ultrasound, so that the destruction of the virus is completed after losing the protection of fat and is assisted by the subsequent irradiation with greater light energy in a later wavelength that produces collateral effects that help the structural destruction of the virus and the inability of the cell to strengthen.

[0006] The modular nature of the system allows the design of specialized devices for the treatment of patients in different conditions and situations and in different stages of the disease; chairs, tables and radiology rooms can provide treatment to patients automatically or manually according to individualized schedules.

[0007] Once the fat covering layer is destroyed, the application of focused ultrasound can quickly destroy and break down the virus, not only for dialysis type devices (extracorporeal circulation), but also for direct external application to the organs that require it. Likewise, the irradiation head can be used for irradiation devices and accessories, such as masks, gowns and instruments, to limit the spread of the virus.

[0008] For the production of energy that would weaken the lipidic covering of the virus, we used an unconventional technique to excite the light-emitting diode, which employs a quantum process completely different from the traditional one to produce light energy through the LED, which allows the production of very high energy in very short pulses, while emitting secondary radiation of harmonic wavelengths, based on a proprietary LED and laser excitation technology, called quantum stratified excitation of the light-emitting diode, which allows the simultaneous use of the highest level allowed by the light-emitting diode to use monochromatic diode crystals for polychromatic emission, thus allowing a wide control of the penetration of the irradiation and of the wavelength range that constitutes each pulse emitted during the treatment, this is the excitation technology emitting head designed around the stratified quantum of the light-emitting diode of the technology, but also the way of controlling and modulating the maximum and minimum radiation levels is modified. BRIEF DESCRIPTION OF DRAWINGS

[0009] Figure 1 It shows the coronavirus in different stages of decomposition during photonic irradiation.

[0010] Figure 2 It shows a device for destroying viruses, in which the photonic head is supplemented by an ultrasonic emission system.

[0011] Figure 3 Photonic emission diagram for destroying viruses.

[0012] Figure 4 It shows the formation of a sequence of radiation pulses.

[0013] Figure 5 It shows the penetration of photonic irradiation into the skin and tissues as a function of the width and intensity of the energy pulses.

[0014] Figure 6 It shows a block diagram of an ultrasonic generation system with phase interaction.

[0015] Figure 7 It shows the application fields of the front and back irradiation treatment.

[0016] Figure 8 It shows a multipoint treatment bed.

[0017] Figure 9 It shows an irradiation system with automatic positioning.

[0018] Figure 10 It shows a machine for treating patients seated.

[0019] Figure 11 It shows the mechanical support structure of the radiation emitter.

[0020] Figure 12 It shows a module with light and ultrasonic emitters.

[0021] Figure 13 An in vitro blood irradiation system is shown.

[0022] Figure 14 The circuit of a multiband polychromatic emission device using an LED layered quantum emission system is shown. DETAILED DESCRIPTION

[0023] Traditional methods against diseases caused by viruses are mainly based on the development of biochemical devices, vaccines and drugs specifically designed to combat a certain virus, rather than a universal method, on the other hand the current trend in the development of technology allows to destroy viruses in a more universal way, until now these methods have focused mainly on destroying the nucleus and genetic material of the virus. The device for the annihilation of viruses by means of complementary radiation, object of the present invention, has a completely different approach and is based on a technique that allows to destroy the fatty or lipid layer that surrounds a wide variety of viruses, some of which are the most deadly, among them SARS-CoV-2, this technique that concerns us can saponify the fatty or lipid layer at a certain distance, that is, it can dissolve the fat like a soap. In fact, it is one of the most important techniques, globally recognized as a method to prevent the spread of the SARS virus CoV-2, consists of washing your hands with soap for a few seconds, to destroy the fatty layer that covers the core of the virus, making it vulnerable to the effects of stress to expose and destroy the genetic material of the viral core.

[0024] Figure 1 A coronavirus 2 is shown, which has a series of structural protein protrusions 3, a fatty covering layer 4 and a nucleus with a non-segmented RNA genome 66, this virus when exposed to a pulse of strong photon radiation in the range of 390 nanometers to 480 nanometers, by using a photon pulse generator device 1 that generates intense and penetrating photon radiation 7, quickly presents the degradation of the surrounding fatty layer or lipid, as shown below the fatty covering is damaged by the radiation coronavirus 5, that is why it begins to expose its ribonucleic acid (RNA) genetic material, making its viral nucleus vulnerable, subsequently in this step leading to the destruction of the core coronavirus 6 RNA 67 is destroyed and cannot function, the virus can no longer continue to cause damage, to reinforce the destructive action on the internal structure of the virus we combine the photon radiation 7 with the irradiation of ultrasound waves, this ultrasound irradiance vibration is also carried out in the form of high-energy pulses and using various modulation frequencies according to the interference pressure zones of the waves, when a wave hits a point, a pressure point is generated due to the phase coincidence of the various ultrasound pulses, that is, if an ultrasound wave peak coincides with another ultrasound wave peak, its amplitude increases, while when a peak coincides with a trough, the pressure effect generated is the subtraction of the two waves.

[0025] The complementary action of the two radiations, photons and ultrasound, works in a similar way to the action of soap and water on a hand contaminated with a virus, i.e. a combination of a saponifying agent and mechanical force. As shown in Figure 2 modulated ultrasound emitter 73 is added to the photon pulse generator device 1, generating an ultrasonic radiation 75 with high penetration of cells and tissues; the optical emission circuit 30 focuses the photon radiation 7 appropriately, so that the energy of the two sources of radiation combines to first weaken the layer of fat surrounding the virus and then destroy the structure and genetic material of the virus.

[0026] The complete radiation head is integrated into a single unit, in which the optical emission circuit 30 and the modulated ultrasound emitter 73 are coordinated by a central controller 85, which is powered by a general power supply system 74.

[0027] The photon radiation can have various wavelengths, but basically we use light with a wavelength of about 460 nanometers, this blue light has the property of saponifying fat, but in order to generate a saponification effect in life of the lipidic covering of the virus, this photon emission must have a very high intensity, the light we use is preferably generated by light emitting diodes (LEDS) or laser diodes, in both cases the light intensity is such that it can burn the patient if it penetrates a few centimeters below the skin, this is why it is necessary to generate very high intensity light pulses, but they are separated in time, in such a way that it is possible to perform a deep irradiation without having to expose the treated area to very high energies, to achieve this we use a method completely different from the traditional activation of light emitting diodes.

[0028] The general practice of activating light emitting diodes, whether they are simple LEDs or laser diodes, consists of passing a controlled current through them, whether constant or pulsed. In the device of the invention, we use the introduction of high pressure carriers of energy, (electrons or holes) to the array of light emitting diodes, without any limitation on the current, letting the carriers flow through the array until it is about to collapse thermally, at which point the supply of carriers is completely cut off and the time allowed for the latent temperature of the array of light emitting diodes to drop on the basis of a predetermined thermal flow, assisted by active cooling by fans and heat sinks, once the cooling allows, the activation cycle is repeated, thus generating a series of very high power light pulses, which contain wavelengths extending from the basic wavelength of the emitter to tens of nanometers below, which means that if the basic wavelength of the emission matrix is 460 nanometers, the emitted pulses will contain light in the range from 460 nanometers to 400 nanometers.

[0029] Figure 3A light emission circuit 30 is shown, which is based on the principle of layered quantum excitation of light emitting diodes, which by exciting the light emitting diodes, whether LEDs or lasers, with very high voltage pulses (several times the nominal voltage of the lamp), this overexcitation makes the carriers (electrons or holes) reach a stable energy state as they cross the diode junction, the excess energy is released through layered energy jumps, i.e. a single carrier can emit different wavelengths until it stabilizes, since the amount of photon energy is established by a constant multiplied by the frequency of the emitted radiation, only before reaching stability the excess photon emission is converted into heat; this technique allows very high photon energies and makes light emitting diodes nominally designed to emit a specific wavelength of light can emit secondary radiation of shorter (higher energy) wavelengths, in addition to the basic problem.

[0030] Using this technique it is also possible to emit secondary radiation at 450 nanometers and 430 nanometers from an array of 460 nanometer light emitting diodes, to which we add in the system an OOK type modulation to achieve a mechanical impact effect, the effect photons or luminescence except. Although the equipment of the present invention to annihilate viruses through the complementary radiation target can operate with a photonic lighting system with conventional active emitters, the use of the layered quantum excitation head of the light emitting diodes emits a perfect combination of beams of very narrow pulses, high power and controlled bandwidth range of photon emission and by adding the OOK type modulation and the multiple selection of the lighting matrix section in the basic concept of layered excitation emission, the optimal lighting is not limited to one area but to a certain volume of the patient's body.

[0031] As Figure 3The light emission circuit 30 shown is formed by an array of high-power LEDs or laser emitters 57, which include a group of solid-state elements, each with an electrical power capacity greater than 1 watt, but grouped in an array of 30 watts or more per unit, it is possible to use emitters with lower power capacity, but if the array power remains between 30 and 150 watts, this will extend the time the patient needs to be treated, the time of each treatment can be between 3 and 5 minutes, the light energy emitted by the array of emitters 57 has a main radiation pattern 33 that must be concentrated by the focusing device 34 to produce a pattern of photon radiation 7 with a suitable scattering angle 35; the array of emitters 57 has an excitation circuit formed mainly by the power supply system 50, a low-impedance voltage source 56, which must have a low inductance in the micro-henry output range and a resistance of a few tenths of a milliohm, this is achieved under special discharge capacitors for pulsed treatment, the excitation or disconnection of the array of emitters 57 is controlled by a high-speed solid-state switch 54 (switching times less than 20 to 30 nanoseconds), the system uses an energy estimator 52 to evaluate the amount of electrical energy that has passed through the matrix or array of emitters 57, which will be converted into light and heat, the function of the energy estimator element is to provide the necessary information to the integrated device and pulse controller 55 so that it estimates when the supply of energy through the matrix or array of emitters of LEDs or laser diodes 57 should be interrupted, this is done in such a way that the maximum duration of the pulse at the maximum current capacity, without measuring the heat energy generated, which can cause the destruction of the emission matrix, starting from the fact that the circuit and the heat flow are known. In this case, it is an active cooling assisted by a fan, which provides us with the theoretical value of the maximum electrical energy that can flow through the matrix before entering the destruction process, it should be remembered that the potential drop of each light-emitting diode depends on the temperature; for this reason, once the integrator circuit and the pulse controller 55 consider that it is necessary to cut off the power supply through the matrix, it provides information to the emission power control 36 to start the process of absolute disconnection of the matrix. The high-speed solid-state switch 54, to achieve this, the command to turn off must have enough capacity to handle the capacitance and parasitic elements found at the activation control input of the high-speed solid-state switch 54 for this a current amplifier 32 is used so that the activation command from the emission power control 36 reaches the high-speed solid-state switch 54 with enough energy.Although this circuit is able to emit the maximum light energy that the matrix of light-emitting diodes can provide, it also protects them from the damage caused by the heat generated by themselves and, after determining the maximum energy that can flow, it also allows the emitter matrix to emit this energy that can be controlled downwards, that is, it can be changed using levels lower than the maximum and even modulated according to a specific program, so here we present a method for generating photonic pulses based on the proprietary technology of layered quantum stimulation of LEDs that, upon impact, generates significant mechanical forces, but modifies the way in which the maximum and minimum radiation is controlled based on a digital signal and OOK type modulation that can generate mechanical vibrations, under the influence of the photonic pulse, this digital control signal 58 for the optical impact acts on the integrator and pulse controller 55 duality of optical and mechanical effects.

[0032] The duration and intensity of each light pulse is very important, as is the repetition rate, that is, how many pulses are emitted per second, and the way in which they are modulated. It is essential that the energy consumed by the array of light-emitting diodes or emitter array 57 in each cycle does not exceed the maximum allowed by the heat flow, as Figure 4 As shown, the light emission circuit 30 can generate low and narrow pulses or low and wide pulses, Figure 4 The emission power 39 shown in can be seen how the emission power control 36 determines how the photonic emission will be in such pulse width 40 and pulse height 41 can vary according to the predetermined emission, but always taking into account the area ratio of each pulse (width versus height) and the dead time 43 between pulses, the modulation of the pulses and their shape is established in a variable, fixed or adjustable period of time 42, according to the treatment and the treatment area to be irradiated. In Figure 5 In which a part of the patient 8 is shown schematically, the radiation beam 18 must pass through the skin 64 and the muscle 63 to reach the target 17, if the pulse mode is that of wide energy pulses 16, since these are not so intense, they will not have much penetration power, however, the narrow energy pulses 22, which have a greater specific intensity (joules per microsecond), can have greater penetration power in the body, so that it is possible to reach and treat internal organs, such as the lungs or the kidneys, without burning the skin 64 of the patient 8; the type of treatment, the organ to be irradiated or the area to be treated, determines the programming of the sequence of pulses.

[0033] Since the technology we use to generate the string of photonic pulses can generate mechanical forces, in fact, if the emitters are directed at the ear, a low frequency can be heard, although no sound is emitted, the perception of sound is so intense due to the influence of the photonic impact wave that it generates pressure in the impact area. This allows us to use only light or photonic energy in certain cases to destroy viruses, since the saponification is achieved by light radiation and the mechanical stress on the virus can also be applied by the sequence of pulses generated by the circuit, however, in Figure 3In this case, in order to increase the mechanical action of pressure and friction on the virus, we use ultrasonic emitters, such as Figure 6 As shown, the modulated ultrasonic emitters 73 are arranged in pairs, each generating an ultrasonic radiation 75, that is, although the modulated ultrasonic emitters 73 can act individually, when acting together with the other ultrasonic emitters, their effectiveness is increased at a predetermined depth, even sweeping the entire area with pressure waves. To achieve this, we use a primary resonant oscillator 76, which is controlled by a high-frequency modulator 77, so that the output of the primary resonant oscillator 76 is connected to a frequency and phase modulator generator 79, which in turn is controlled by a low-frequency modulator 78, this device allows to generate two sequences of ultrasonic pulses whose oscillation frequency is slightly changed around the base frequency in an FSK system, in addition to these pulse sequences being modulated in OOK with a low-frequency signal, these two phase and amplitude modulation signals are connected to a primary booster 80 and a secondary booster 81, which provide high voltage levels to the signals, so that more energy is delivered to the transducers that form each modulated sound emitter 73, the primary and secondary impedance couplers 82 and 83 allow maximum energy transfer to the transducers.

[0034] Depending on the area of the patient to be treated, more or less penetration of the photon radiation 7 and the ultrasonic radiation 75 will be required. In fact, Figure 7 The treatment of the femoral region shown in the middle as a femoral treatment area 12 requires little penetration and the treatment of the facial treatment area 11 will require less penetration of the photon radiation 7 and the ultrasonic radiation 75. In fact, Figure 7 The treatment of the femoral region shown in the middle as a femoral treatment area 12, like the facial treatment area 11, requires little penetration, these areas are important because important arteries and veins pass through them, almost the entire blood flow passes in no more than 5 minutes; however, this only allows to fight the virus that is spread in the blood, Figure 7 The front view of the patient is shown Figure 9 And the back view of the patient Figure 10 Where the main irradiation areas for fighting viral diseases are, for example, they are the renal treatment area 15, the front lung treatment area 13 and the back lung treatment area 14, these last two present the problem of the ribs being placed crosswise between the irradiation head and the lungs, for this the device is designed so that the head can be moved to avoid the ribs, that is, it only allows the irradiation of the intercostal areas. The control of the device can be in Figure 9As can be seen, here is a set of positioning servo motors 48, which, based on the information received by a set of ultrasonic emitters 49, allow vertical, horizontal and rotational movement of the head, in order to position and avoid the ribs when treating the lung area, performing this operation automatically. These ultrasonic emitters 49 are low-power units, as opposed to the high-power units or modulated ultrasonic emitters 73 mentioned above, and in this case, the objective is to automatically position the ultrasonic emitter module. In this case, the objective is to automatically position the ultrasonic emitter module radiation 38, which operates under the general central control 37 and power emission control 36. The servo motor controller 71 allows positioning the radiation emission module 38 in the optimal position and angle to perform the irradiation, whose operation is based on the ultrasonic controller 51, which provides information based on the sodar-type action of the ultrasonic emitters 49, all coordinated by the central navigation and positioning control 53, powered by the power supply system 50. This assembly constitutes the automatic navigation system 28, particularly suitable for lung treatment, as it reduces the risk of infection of the operator due to proximity and contact with the patient.

[0035] The patient can be irradiated lying down or sitting, for which, as shown in Figure 8 the treatment table 68 is used, on which the patient 8 can lie on his back, or down, the radiation transparent window 46 allowing the radiation beam 18 to reach the patient 8, in this case, the modular femoral emitter set 44, the modular kidney emitter set 45, the modular lung emitter device 47 and the frontal lung emitter device 72, some support arms 69, allowing the head or emitter device to be correctly positioned in such a way that the radiation beam reaches the desired area, the alternative being to use a bed with a headrest only placed in the upper part, which allows the use of half a headrest, but the patient 8, once he has received a frontal treatment, must turn over to receive the corresponding dorsal treatment, which doubles the treatment time required for each patient.

[0036] The irradiation head can be easily integrated into various treatment devices, aimed at treating patients in very different stages of the development of the disease, although the irradiation head and device can be used manually for the irradiation of each of the areas of concentration of the virus, these heads can also be integrated into devices such as the chair shown in Figure 10 , which is an assembly for the treatment of patients in the early stages of the disease, such as Covid 19.

[0037] Figure 10The assembly shown is one in which the patient sits on a bench, the device automatically performs the required treatment and seeks the best irradiation mode, the patient is placed on a seat 70 and some dorsal lung emitters 19, kidney emitters 20 and frontal lung emitters 21 are synchronised and automatically irradiated through the femoral radiation guides 26 on the three main areas of viral concentration and the femoral area, a pair of supports 23 coming out of the vertical guides 24 are fixed to the universal base 25 through the sliding base 27, allowing horizontal and rotational vertical movement of the head in order to better position it, the kidney and lung heads and emitters are placed in pairs to direct the irradiation beam in the best way. In Figure 11 In the middle, it can be seen how the dorsal lung emitters 19 and the kidney emitters 20 are mounted to the positioning arm 60 through the fixing element 29, thus allowing them to move vertically through the sliding guides 31 on the support 23.

[0038] The modularity of the system allows the construction of a head with only photonic emitters capable of emitting various wavelengths but manual and portable, a hybrid head with photonic and ultrasonic emitters for manual irradiation, in addition to a modular head equipped with photonic and ultrasonic radiation emitters that integrates an ultrasonic transducer as a transceiver into the automatic navigation and positioning system, which in turn is integrated into the automatic treatment machine, the head can also be used in a disinfection station to treat accessories and instruments such as masks, gloves, medical staff clothing and general instruments that can be contaminated with viruses, given that the hybrid irradiation is capable of destroying them. Figure 12 A modular radiation emission device 61 is shown, which is mounted on the device support 62 through a modular support 59 equipped with a plurality of modular photonic emitters 65 and ultrasonic emitters 49, these heads are automatically positioned by motors or servomotors that allow them to rotate and move in various directions to achieve automatic positioning, thus making the most correct irradiation in the desired areas. Although the object of the device of the present invention is mainly focused on treating the patient's body directly, it can also be applied to dialysis-type treatments that divert the patient's blood to an external circuit to pass it through an extracorporeal irradiation chamber and then return it. It is applied to the patient's body 8, Figure 13 This type of application is shown, in which an extracorporeal irradiation chamber 84 is used to directly irradiate the blood with ultrasonic radiation 75 and photonic radiation 7, in which the device 1 with its optical emission circuit 30 of the photonic pulse generator is supplemented by the installation of a modulated ultrasonic emitter 73, so that, when required, there is an alternative device for irradiating the patient's blood.

[0039] A plurality of photonic heads are assembled using arrays of LEDs or laser diodes with various nominal wavelengths, the basic unit is composed of an array containing light-emitting diodes covering most of the blue spectrum, others close to the red spectrum covering most of the blue spectrum and others covering the near infrared (between 800 and 950 nanometers), such as Figure 14As shown, a low impedance voltage source 56 is connected to the emitter selector 87, the emitter connector of which is based on the wavelengths required for each treatment stage.

[0040] The emission power control 36 selects the light emitting diodes within the multi-color matrix 86 that will be activated at each stage of the treatment.

Claims

1. A device for eliminating viruses through complementary radiation, characterized in that, It includes at least one photon radiation emitter and one ultrasonic pulse emitter, the emitters being assembled in a modular head equipped with mounting and fixing devices. The photon radiation emitter is an emitting device including the emitting head that covers a wavelength band from 400 nanometers to 460 nanometers through layered quantum excitation of LEDs combined with an OOK-type modulator and an illumination matrix sector selector. The wavelengths of this wavelength band have a destructive effect on fat and penetrate deep into tissues to reach organs where viruses can act. The light-emitting circuit (30) appropriately focuses the photon radiation, so that the energy of the two radiation sources is combined to first weaken the lipid layer around the virus, and then destroy the structure and genetic material of the virus; The light emitting circuit excites the LED via a voltage pulse, and the light emitting circuit (30) includes: The emitter array (57) consists of high-power LEDs or lasers and has an excitation circuit formed by a power supply system (50) and a low-impedance voltage source (56). The activation or deactivation of the transmitter array (57) is controlled by a high-speed solid-state switch (54), and the amount of electrical energy that has passed through the transmitter array (57) is assessed by an energy estimator (52). The function of the energy estimator (52) is to provide the necessary information to the integrated device and pulse controller (55) so that the integrated device and pulse controller (55) can assess when the energy supply should be interrupted through the transmitter array (57); When the integrated device and pulse controller (55) determines that the power supply through the transmitter array (57) must be cut off, it provides information to the transmit power control (36) to initiate the absolute disconnection process of the matrix; The current amplifier (32) is used to ensure that the activation command from the transmit power control (36) reaches the high-speed solid-state switch (54) with sufficient energy.

2. The device for eliminating viruses through complementary radiation according to claim 1, characterized in that, The ultrasonic pulse transmitter consists of one or more transmitting elements, which are activated by phase- and frequency-modulated oscillators.

3. A device for eliminating viruses through complementary radiation according to claim 1 or 2, characterized in that, A pulsed emitting head, comprising one or more photon and ultrasonic energy sources, may be placed in a manually or automatically activated support, which is positioned around an element in which the patient resides, such as a bench or bed, wherein the bed has at least one surface that is radioactively transparent to the emitting head or transmitter.

4. The device for eliminating viruses through complementary radiation according to claim 1, characterized in that, The irradiation head is connected to the medical supplies and accessories sterilization chamber, so that the items to be sterilized are placed under the radiation beam of the 460-nanometer head equipped with a modulated ultrasonic transmitter.

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