Apparatus and method for imprinting the active effect of at least one reference product into a treatment product - Patent Application 20070122997

Abstract

The present invention relates to a method for imprinting the active effect of at least one reference product into a processed product, having a second imprint phase (E2) comprising the following steps: reading (E21) an associated digital signature of at least one reference product from a database; forming (E23) an electrical imprint signal from the digital signature of the reference product; imprinting (E24) the active effect into a neutral solution containing at least one salt, by passing the electrical imprint signal through one or more electrical wires of a plate of an imprinting device in which the neutral solution is located, thereby imprinting the active effect of the at least one reference product into the neutral solution over a predetermined imprint period, thereby converting the neutral solution into the processed product.

Description

[Technical Field]

[0001] The present invention relates to a method for obtaining a digital signature of a reference product in order to prepare an active product. The present invention also relates to a method for imprinting an active effect of at least one reference product into a treated product. The present invention further relates to a method for manufacturing a treated product. The present invention also relates to a capture machine and / or machine for imprinting an active effect. The present invention also relates to a computer program for implementing one of the above-mentioned methods. Finally, the present invention relates to a recording medium having such a program recorded thereon. [Background technology]

[0002] Media such as water, polymer substrates (such as glass fiber or some plastics) have been investigated for their ability to store information, particularly via the electromagnetic fields emitted by biological elements and minerals, including stones. This research has led to the search for technological solutions to capture such fields and transfer them to media, particularly to imprint them in aqueous solutions, in order to obtain active products.

[0003] However, the technical solutions resulting from this research have drawbacks: in particular, the operation of existing capture and imprint systems can be disrupted by the Earth's electromagnetic field or electromagnetic fields emitted within the environment of the capture system. Summary of the Invention

[0004] The object of the present invention is to provide an acquisition and imprinting device and method that improves on acquisition and imprinting devices and methods known from the prior art. In particular, the present invention makes it possible to manufacture an acquisition and imprinting device and method that is simple and reliable.

[0005] To this end, the present invention relates to a method for structuring a medium containing water molecules, comprising a step of emitting electromagnetic waves into said medium.

[0006] The present invention also provides a method for imprinting the active effect of at least one reference product into a treatment product, comprising a second imprint phase comprising the following steps: · Reading the relevant digital signature of at least one reference product from the database; · Constructing an electrical imprint signal based on the digital signature of a reference product; Imprinting an active effect into a neutral solution containing at least one salt, said imprinting being performed by passing an electrical imprint signal through one or more electrical wires of a plate of an imprinting device on which the neutral solution is disposed for a predetermined imprint duration, thereby imprinting the active effect of at least one reference product into the neutral solution and converting the neutral solution into a treatment product.

[0007] In one embodiment, the medium comprises at least one salt selected from magnesium chloride and sodium chloride, and water molecules surrounding at least one salt crystal within the medium structure itself.

[0008] In one embodiment, the structuring method is for cooling a medium containing water molecules.

[0009] In one embodiment, the electromagnetic waves are emitted over a frequency range of 120 to 30,000 Hz, or even 1,000 to 5,000 Hz.

[0010] In one embodiment, the electromagnetic waves are generated by an electrical structured signal having a maximum current intensity of 8-96 μA, or even 10-20 μA.

[0011] The invention further relates to a method for capturing the digital signature of a reference product with the aim of preparing an active product containing the active effect of the reference product.

[0012] The capture method includes the following steps: recording the electrical signals measured between at least two measurement electrodes of a capture device comprising a plate on which a reference product is placed, said plate comprising one or more electrical wires capable of generating a virtual coil over a volume containing said reference product; · Processing the recorded electrical signal to form a digital signature comprising the frequency spectrum of the recorded electrical signal; · Store your digital signature in a database.

[0013] The present invention further relates to a method for imprinting the active effect of at least one reference product into a treatment product.

[0014] The capture method includes the following steps: · Reading the digital signature of at least one reference product from the database; ·Constructing an electrical imprint signal based on the digital signature of a reference product; Imprinting an active effect into a neutral solution containing at least one salt, said imprinting being performed by passing an electrical imprint signal through one or more electrical wires of a plate of an imprinting device on which the neutral solution is disposed for a predetermined imprint duration, thereby imprinting the active effect of at least one reference product into the neutral solution and converting the neutral solution into a treatment product.

[0015] In one embodiment, at least two wires of a set of wires are parallel. Alternatively, at least two wires of a set of wires are arranged in a spiral.

[0016] In one embodiment, the imprint method further comprises determining imprint parameters including a selected imprint duration, wherein the duration over which the step of imprinting the active effect is performed is equal to the selected imprint duration.

[0017] In one embodiment, constructing an electrical imprint signal based on a digital signature of the reference product comprises: obtaining a first electrical signal by applying an inverse Fourier transform to at least one digital signature of the reference product; and optionally Generating a set of harmonics of the first electrical signal and then adding the set of harmonics to the first electrical signal, the set of harmonics including second and / or third and / or fourth and / or fifth harmonics.

[0018] The present invention further relates to a method for producing the treatment product.

[0019] The manufacturing method comprises a first step of capturing at least one digital signature of a reference product by implementing a capture method according to the present invention, and a second step of imprinting at least one active effect in a neutral solution based on said digital signature by implementing an imprint method according to the present invention.

[0020] In one embodiment, the method of manufacture comprises the additional step of structuring a medium containing water molecules by carrying out a structuring method according to the invention, Additional steps are performed before and / or during the first capture step to structure the reference solution, and / or Additional steps are carried out before and / or during the second imprint step to structure the treated product.

[0021] The present invention further relates to a method for cooling a culture medium containing water molecules, comprising a step of structuring the culture medium by the structuring method according to the present invention.

[0022] The invention further relates to an apparatus for imprinting an active effect, the apparatus comprising: · Processing plate containing one or more electrical wires; · Access to a database containing the storage of the digital signature of at least one reference product; a control unit comprising hardware and software means configured to implement the above-mentioned imprinting method and / or the above-mentioned manufacturing method, said control unit comprising firstly a link to a database for storing and / or reading at least one digital signature in the database and secondly a link to one or more electrical wires of the plate for generating and / or measuring an electrical signal; A human-machine interface for starting and / or interrupting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling and for inputting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling parameters.

[0023] The invention also relates to a capture device and / or a device for imprinting an active effect or a structuring device, comprising: · Processing plate containing one or more electrical wires; · Access to a database containing the storage of the digital signature of at least one reference product; a control unit comprising hardware and software means adapted to implement the structuring method according to the invention and / or the capturing method according to the invention and / or the imprinting method according to the invention and / or the manufacturing method according to the invention and / or the cooling method according to the invention, said control unit comprising firstly a link to a local or remote database for storing and / or reading at least one digital signature in said database and secondly a link to one or more electrical wires of said plate for generating and / or measuring electrical signals; A human-machine interface for starting and / or interrupting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling and for inputting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling parameters.

[0024] In one embodiment, the capture device and / or device for imprinting an active effect and / or structuring device according to the invention comprises at least first and second measurement and / or injection electrodes, and one or more wires are connected to the first and second measurement and / or injection electrodes in an electric circuit, such that a first end of each of said one or more wires is connected to the first measurement and / or injection electrode and a second end of each of said one or more wires is connected to the second measurement and / or injection electrode.

[0025] In one embodiment, the plate comprises a set of wires, the wires of which may or may not be equidistant from one another. The wires may be substantially straight and parallel. Alternatively, the plate comprises one or more wires in the shape of a spiral.

[0026] In one embodiment, the plate comprises a plurality of wires and a first zone and a second zone, wherein a first distance measured between each pair of adjacent wires in the first zone is different from a second distance measured between each pair of adjacent wires in the second zone.

[0027] In one embodiment, the wires in at least one or at least two zones of the plate are capable of generating equivalent electric fields to imprint the same active effect in different volumes of the neutral solution.

[0028] In one embodiment, the capture parameters include: Selection of at least one zone of the plate to be used for capture, called the capture zone, and / or a first capture mode called "unstructured" capture mode, or a second capture mode called "structured" capture mode, and / or a range of current intensity and frequency values ​​of the current injected into at least one capture zone, and / or a mode for reducing or canceling noise contained in the captured electrical signal, the first reduction mode being referred to as the "no reduction mode", the second reduction mode being referred to as the "averaging-based" reduction mode, or the third reduction mode being referred to as the "phase reversal-based" reduction mode; and / or Duration of the capture.

[0029] The imprint parameters additionally include: Selection of at least one zone of the plate to be used for imprinting, called the imprint zone, and / or a first imprint mode, called "without structure" imprint mode, or a second imprint mode, called "with structure" imprint mode, and / or a range of current intensity and frequency values ​​of the current injected into the imprint zone, and / or a mode for reducing or canceling noise contained in a signal, the first reduction mode being called "reduction mode without reduction" or the second reduction mode being called "averaging-based" reduction mode or the third reduction mode being called "phase reversal-based" reduction mode; and / or the type of dilution applied to the digital signature, which may be a mode called "no dilution" mode, or a mode called "harmonic dilution" mode, and / or a mode called "inverse harmonic dilution" mode; and / or The mode for applying the dilutions, such as sequential or simultaneous, and / or the volume of the neutral solution to be imprinted, e.g., 25 milliliters, 5 liters, 10 liters, 25 liters, and / or Imprint time.

[0030] The accompanying drawings show, by way of example, one embodiment of a capture and imprint apparatus according to the invention, one mode of execution of the capture method, one mode of execution of the imprint method, and one mode of execution of the manufacturing method. [Brief explanation of the drawings]

[0031] [Figure 1] 1 illustrates a schematic representation of an embodiment of a capture and / or imprint device; [Figure 2] 1 is a schematic illustration of the operation of the capture device. [Figure 3] 1 is a schematic explanation of the operation of the imprint apparatus. [Figure 4] FIG. 2 is an explanatory view of a processing plate according to an embodiment of the present invention. [Figure 5] An example of a virtual coil created by two wires is shown below. [Figure 6] 1 is a flowchart of a capture method according to one embodiment of the present invention. [Figure 7] 1 is a flowchart of an imprinting method according to an embodiment of the present invention. [Figure 8] Indicates the harmonics of an electrical signal. [Figure 9] 1 illustrates the simultaneous addition of harmonics to an electrical signal. [Figure 10] 1 is a flowchart of a manufacturing method according to the present invention. [Figure 11] 1 is a flowchart of a structuring method according to one embodiment of the present invention. [Figure 12] 10 shows measurements of electrical signals as a function of time resulting from electromagnetic fields from first and second electrodes, respectively, of a capture device according to one embodiment of the present invention in the presence of a low frequency generator. [Figure 13] 10 shows measurements of electrical signals as a function of time from a first electrode and a second electrode, respectively, of a capture device according to an embodiment of the present invention in the absence of a low frequency generator. DETAILED DESCRIPTION OF THE INVENTION

[0032] One exemplary embodiment of a capturing and / or imprinting and / or structuring device is described below with reference to FIG.

[0033] In the remainder of this document, the capture and / or imprint and / or structuring apparatus will be referred to as apparatus 10 .

[0034] Furthermore, in the remainder of this document, the information captured by device 10 from the reference product will be referred to as a "digital signature," with the term "digital" referring to the manner in which the information is recorded, recorded in a database stored in digital memory, also referred to as electronic memory in the remainder of this document.

[0035] The device 10 mainly comprises the following elements: · Processing Plate 1, also referred to as "Plate 1" in the rest of the document; · Access to database 2; · Control unit 3; ·Human Machine Interface4.

[0036] The control unit 3 incorporates at least one computer 30 and a connection system 32 that allows the computer 30 to be connected to the electrodes 13, 14 of the device 10, in particular the measurement electrodes 13 and injection electrodes 14 arranged on the plate 1. Furthermore, the control unit 3 comprises a data storage device or electronic memory 31. The control unit 3 comprises a power supply 34 connected to all or some of the injection electrodes 14, thus allowing current to be injected into the plate 1 via the electrodes 14. The control unit 3 further comprises at least one voltage sensor 36 for collecting voltage measurements via all or some of the measurement electrodes 13 arranged on the plate 1. The electronic memory 31 allows for the measurement and / or calculated data to be stored locally on the device 10. In one embodiment, the control unit 3 may also comprise an amplifier 37 for amplifying the signals measured by the voltage sensor 36 at the terminals of all or some of the measurement electrodes 13.

[0037] The control unit 3 further comprises communication means for communicating with a human machine interface 4 and processing means for processing commands from the human machine interface 4 .

[0038] The control unit 3 is provided with a link to the database 2 for storing and / or retrieving data in / from the database 2. In the remainder of the document, the term "request" may be used to designate a command sent by the control unit 3 to the database 2.

[0039] The database 2 contains records of the digital signatures of the captured reference products 100 .

[0040] In one embodiment, the database 2 further comprises a record of the digital signature of the composite product resulting from the recapture, ie the signature of the product resulting from the imprint phase previously carried out via the device 10 .

[0041] The database 2 allows the control unit 3 to access its contents in at least two modes: · Read mode via a read request issued by the control unit 3; Write mode is via a write request issued by the control unit 3.

[0042] Access to database 2 in read mode primarily concerns the imprint phase, which is described in the remainder of the document. Access to database 2 in write mode primarily concerns the capture phase, which is described in the remainder of the document.

[0043] The data in the electronic memory 31 can be read by the computer 30 and has recorded thereon a computer program for operating the apparatus 10, and in particular for implementing the capture, imprint, and manufacturing methods described in the remainder of this specification.

[0044] The device 10 has the capability to capture the active effect of the reference product 100 by means of a digital signature 101 of the reference product in order to be able to imprint the active effect of the reference product 100 in the treatment product 200. Additionally or alternatively, the device 10 has the capability to structure the molecules of the reference product 100 or the treatment product 200.

[0045] FIG. 2 is a schematic illustration of the operation of the device 10 during the process of capturing a digital signature 101 of a reference product 100 .

[0046] During the capture process operation, the device 10 has a first function of capturing the digital signature 101 of the reference product 100 and recording it in the database 2 .

[0047] The reference product 100 can take various forms: it can be, inter alia, a molecule, or a solution, for example an aqueous solution, a plant, a mineral, or a powder.

[0048] The reference product 100 preferably has an active effect, in other words, the reference product 100 preferably comprises a bioactive compound that has a therapeutic or prophylactic effect.

[0049] The digital signature, which is predefined as the information captured by the device 10 from the reference product, may be simple if the reference product contains a single component, or alternatively, may be complex if the reference product contains multiple components.

[0050] During the capture process operation, a reference product 100 is placed on the plate 1 of the device 10. The control unit 3 then records the electrical signal 102 emitted by the reference product on the set of wires 11 of the plate 1.

[0051] The electrical signal 102 is a superposition of vibrational signals emitted by molecules contained in the reference product, with each type of molecule emitting a different vibrational signal. The vibrational signals are not necessarily sinusoidal. The water molecules contained in the reference product organize themselves into "coherence regions," which are sets of water molecules vibrating at the same frequency and in phase. The electrical signal 102 may also include vibrational signals arising from the spaces between the molecules of the reference product.

[0052] In one embodiment, the electrical signal 102 is captured in the form of a voltage measured between at least two measurement electrodes 13 of the plate 1 .

[0053] The voltage measured between the at least two measuring electrodes 13 of the plate 1 is transmitted to a control unit 3, which comprises processing means for processing the electrical signal 102. The control unit 3 notably makes it possible to apply a Fourier transform analysis to the electrical signal 102. The frequency spectrum thus obtained is contained in a digital signature 101 of the reference product 100. The digital signature 101 is recorded in a database 2.

[0054] During the capture phase, and in particular at the start of the capture phase, the human machine interface 4 allows the user to parameterize the capture process, thereby for example parameterizing the duration of the capture phase. The parameters related to capture and that can be set via the human machine interface 4 are described later in this document.

[0055] The device 10 has a second function of imprinting an active effect on the treatment product 200 based on the digital signature 101 of the reference product 100 , which digital signature 101 has been pre-recorded in the database 2 .

[0056] FIG. 3 provides a schematic illustration of the operation of the apparatus 10 during a processing operation to imprint a digital signature 101 onto a treatment product 200.

[0057] The treatment product 200 is produced from an imprint medium 201. The imprint medium 201 is preferably a neutral medium, such as an aqueous liquid, disposed in a container 301. The container may be, for example, a container 301, such as a bottle, or a patch 302.

[0058] Alternatively, the medium placed in the container may be an ionic medium, such as magnesium chloride, MgCl.

[0059] The imprint medium is placed on the plate 1. The control unit 3 retrieves the digital signature 101 from the memory 2 for conversion into an electrical signal 103. The electrical signal 103 is transmitted by the control unit 3 to the plate 1 in the form of a time variation of a voltage applied between the injection electrodes 14 of the plate 1. The electrical signal commanded by the control unit 3 generates an electromagnetic field that structures and / or transfers information to the molecules of the imprint medium 201, thereby generating the treatment product 200.

[0060] A structured molecule may belong to one or more coherence domains. Structuring may also be applied to the space between molecules, to particles, or to the protons and / or photons emitted by the atoms of the molecule.

[0061] At the end of the imprinting operation, the treated product 200 emits a digital signature 101 that includes the signature of the reference product 100 used during capture.

[0062] During the imprint phase, and in particular at the start of the imprint phase, the human machine interface 4 allows the user to parameterize the imprint process, for example the duration of the imprint phase. The imprint parameters that can be set via the human machine interface 4 are described below.

[0063] In this way, the processing plate 1 controlled by the control unit 3 first collects the digital signature 101 of the reference product 100 and then allows the digital signature 101 (or more precisely, the active effect corresponding to this digital signature) to be injected into the imprint medium 201 in order to obtain the treated product 200.

[0064] The processing plate 1, also referred to as "plate 1" in the remainder of this specification, comprises a single wire or a set of electrical wires 11. Depending on the embodiment, the number of wires in the set 11 may vary.

[0065] In one embodiment, the set of traces 11 passes through a layer 12 made of PCB material. The traces of set 11 are electrically conductive, for example copper traces.

[0066] The processing plate 1 is intended to accept containers of various sizes, for example, cylindrical bottles of 20 milliliters, 5 liters, 10 liters, or 25 liters. The number of wires in the set 11 and their distribution must be determined to match the dimensions of the container. Preferably, the distance between two consecutive wires varies within the same set of wires 11. In other words, the space between two consecutive wires on the same processing plate 1 is variable to allow for the generation of equivalent electromagnetic fields for containers of various sizes.

[0067] As shown in FIG. 4, the plate may have at least one or at least two zones 111, 112, 113, 114, such that each of the wires in a zone is completely contained within one of the at least one or at least two zones; further, in each of the at least one or at least two zones, the measured distance between each pair of adjacent wires is fixed, and the distance is measured perpendicular to the direction of the pair of wires.

[0068] Further, the plate may comprise a first zone and a second zone, such that a first distance measured between each pair of adjacent wires in the first zone is different from a second distance measured between each pair of adjacent wires in the second zone.

[0069] Thus, the wires in at least one or at least two zones of the plate can generate equivalent electric fields to imprint the same active effect in various volumes of the neutral solution.

[0070] Such different distribution of the wires in the distinct zones of the plate 1 makes it possible to generate comparable electromagnetic fields for containers of various sizes. A 20ml bottle has 10-50 wires, A 5 liter bottle has 50 to 105 wires. A 10-liter bottle uses 100 to 120 wires. A 25 liter bottle uses 120-130 wires.

[0071] By adjusting the number of wires used and the distance between two adjacent wires, it is possible to generate a virtual coil that is tailored to the size of the bottle.

[0072] FIG. 5 shows an example of a virtual coil 400 created by two wires with currents 401 and 402 flowing in the same direction.

[0073] When zones 111, 112, 113, 114 of plate 1 are used for the acquisition phase, the reference product 100 is positioned so that it is contained within a virtual coil created by the wires in said zones. The virtual coil is then used to record the electromagnetic signal emitted by the reference product 100.

[0074] The apparatus 10 may also be used in a structuring mode, which may be used alone or in combination with the capture mode or the imprint mode.

[0075] In the remainder of this specification, the terms "structured zone" or "capture zone" or "imprint zone" will be used to denote at least one plate zone used for the structuring, capture or imprint phase, respectively.

[0076] When the device 10 is used in a structuring mode to structure a medium containing water molecules, the device performs a step of emitting electromagnetic waves into the medium. In one embodiment, the electromagnetic waves used to structure the medium are emitted by electrical wires within a structured zone of the plate. The structured zone may be defined according to the dimensions of a container containing the medium to be structured.

[0077] An electrical structured signal generating an electromagnetic field can be passed through the wires in the structured zone. In particular, the electrical structured signal can have a maximum current intensity of 8 to 96 μA, or even 10 to 20 μA.

[0078] Furthermore, the structured electromagnetic waves may be emitted over a frequency range of 120 to 30,000 Hz, or even 1,000 to 5,000 Hz.

[0079] The structured medium comprises at least one salt selected from magnesium chloride and sodium chloride, and water molecules of the medium structure itself around the at least one salt crystal.

[0080] Structuring the medium allows the structured medium to be cooled.

[0081] In one embodiment, the human-machine interface 4 provides means allowing the user to parameterize the structuring phase. In particular, the human-machine interface advantageously allows the user to specify the parameters for performing the structuring, in particular the range of current intensity values ​​(in microamperes) and frequency values ​​(in Hertz) of the current to be injected into the set of wires 11 of the plate 1.

[0082] When the device 10 is used in capture mode, the temporal voltage variation between the two ends of at least one electrical wire within the capture zone is measured, and this measurement may be performed across the terminals of multiple electrical wires within the capture zone.

[0083] Acquisition may be performed in a first mode, called "unstructured," in which the control unit 3 does not inject any current into the wires of the plate 1. The current flowing in the wires is induced only by the electromagnetic field generated by the reference product placed in the virtual coil. In this acquisition mode, the voltage induced between the terminals of the wires of the plate 1 is very low, so the signal measured by the voltage sensor 36 of the control unit 3 may be amplified by the amplifier 37. It should be noted that the electrical circuit including the wires is closed.

[0084] The capture may also be carried out in a second mode, called mode “structured”, in which the control unit 3 injects different currents into the wires of the plate 1 using the power supply 34 .

[0085] In one embodiment, the injected current can have the following characteristics: For structured currents with frequencies between 125 and 1999 Hz, the current intensity is 8 microamperes. For structured currents with frequencies between 2000 and 3999 Hz, the current intensity is 16 microamperes. For structured currents with frequencies between 4000 and 7999 Hz, the current intensity is 32 microamperes. For structured currents with frequencies between 8000 and 17999 Hz, the current strength is selected to be 48, 64 or 80 microamperes; For structured currents with frequencies between 18,000 and 30,000 Hz, the current strength is selected to be 80 or 96 microamperes.

[0086] Preferably, a structuring frequency of 120 to 30000 Hz, or even 1000 to 5000 Hz, is selected.

[0087] When the plate 1 is used to imprint a digital signature onto a treatment product, the imprint medium 201 intended to become the treatment product is positioned so that it is contained within the virtual coil generated by the electric wires in the imprint zone. The virtual coil is then used to transmit an electromagnetic signal to the imprint medium 201, so that the imprint medium 201 becomes the treatment product 200.

[0088] The human machine interface 4 provides the means to allow the user to parameterize the acquisition phase.

[0089] In one embodiment, the first parameter of the capture phase relates to the definition of the capture zone, ie the selection of at least one zone of the plate 111, 112, 113, 114 that will be used for capture.

[0090] Additionally or alternatively, a second parameter of the acquisition phase relates to the acquisition mode, which can be a first mode called "mode without structuring" or a second mode called "mode with structuring". When the second acquisition mode is selected, the human-machine interface makes it possible to specify the parameters for performing the structuring, in particular the range of current intensity values ​​(in microamperes) and frequency values ​​(in hertz) of the current to be injected into the set of wires 11 of the plate 1.

[0091] Additionally or alternatively, a third parameter of the capture phase relates to a mode for reducing or canceling noise contained in the voltage signal measured by the control unit 3 via the tensiometer and measurement electrodes 13. In one embodiment, the human machine interface 4 enables: deactivating noise cancellation processing, or Selecting an averaging-based noise cancellation process, or Select phase inversion-based noise cancellation.

[0092] Filtering an electrical signal by averaging involves calculating the signal's mean value. A moving average can also be calculated. In this case, the signal is averaged over a fixed number of values. For example, the average is calculated over groups of 10 consecutive values, then over the next group of 10 values, and so on, repeating this process for the entire signal.

[0093] Furthermore, the human-machine interface provides means for managing the recording of digital signatures, including in particular the following means: Define the duration of the recording, Start and stop recording, End the recording manually or automatically; Organize the storage of recorded digital signatures in database 2.

[0094] Furthermore, the human machine interface 4 provides means allowing the user to parameterize the imprint phase.

[0095] In one embodiment, the first parameter of the imprint phase relates to the definition of the imprint zone, i.e. the selection of at least one zone of the plate 111, 112, 113, 114 that will be used for imprinting.

[0096] The second parameter of the imprint phase relates to the selection of at least one digital signature from the database 2 to be imprinted into the imprint medium to obtain the treated product 200 .

[0097] Additionally or alternatively, a third parameter of the imprint phase relates to the selection of the imprint mode, which can be a first mode called "mode without structuring" or a second mode called "mode with structuring". When the second imprint mode is selected, the human-machine interface makes it possible to specify the parameters for performing the structuring, in particular the range of current intensity and frequency values ​​of the current to be injected into the set of wires 11 of the plate 1.

[0098] Additionally or alternatively, a fourth parameter of the imprint phase relates to the selection of a mode for reducing or canceling noise contained in the imprinted digital signature. In one embodiment, the human machine interface 4 enables: Deactivate noise cancellation, or Select averaging-based noise cancellation, or Select phase inversion-based noise cancellation.

[0099] Additionally or alternatively, a fifth parameter of the imprint phase relates to the selection of the volume of the imprint medium 201, ie the volume of processing liquid desired to obtain, for example, 25 milliliters, 5 liters, 10 liters, 25 liters, etc.

[0100] Additionally or alternatively, the sixth parameter of the imprint phase relates to a mode for constructing the electrical signal 103 to be injected into the plate 1, in particular into the imprint zone. In particular, the sixth parameter of the imprint phase allows for calibrating the processing operation applied to at least one selected digital signature 101 to generate the electrical signal 103. For example, the sixth parameter may relate to the imprinting of a dilution of the digital signature. For example, depending on this parameter, the dilution may be a harmonic and / or an inverted harmonic of the digital signature. Furthermore, the sixth parameter may allow the user to determine whether the harmonics can be superimposed, i.e., whether they can be simultaneously integrated into the electrical signal, or whether the harmonics should be chained, i.e., whether they should be successively integrated into the electrical signal.

[0101] The human machine interface 4 also allows the user to parameterize the imprint duration.

[0102] The human machine interface 4 also makes it possible to start and stop the imprint phase.

[0103] In an embodiment of the invention, the computer 31 of the control unit 3 makes it possible to execute software comprising the following modules communicating with each other: a structured module 310 cooperating with the plate 1; a recording module 311 for recording the electrical signals 102 communicating with the plate 1 and the human-machine interface 4; a frequency processing module 312 for performing frequency processing on the recorded electrical signal 102; a storage module 313 for communicating with the database 2 and storing the digital signature 101; a reading module 314 for cooperating with the database 2 and reading the digital signature 101 of the reference product from the database 2; a determination module 315 for determining imprinting parameters in cooperation with the human-machine interface 4; a construction module 316 for constructing the electrical imprinting signal 103; an imprinting module 317 for imprinting an active effect in the neutral solution 201 cooperating with the plate 1;

[0104] Figure 11 shows one mode of execution of the structuring method. The structuring method includes a step E10, the progression of which is described in the remainder of the document, in particular as a substep of the capture method.

[0105] With reference to FIG. 6, one mode of execution of the method for capturing a digital signature will now be described.

[0106] In step E10, which may occur before and / or during and / or after steps E11 and / or E24, the water molecules contained in the product are structured, the product being able to be a reference product or a treated product.

[0107] Step E10 includes in particular a substep E101 of parameterizing the structuring stage, specifically: Parameterize the structured zones, · Parameterization of the current intensity and frequency of the electrical signal circulating within the structured zone.

[0108] The sub-steps for implementing the structuring are described in the remainder of this document. In particular, sub-step E112 comprises implementing the structuring that is carried out during capture.

[0109] In a first step E11, the electrical signal 102 measured between at least two measuring electrodes 13 of the device 10 is recorded.

[0110] The first step E11 includes a sub-step E111 of parameterizing the recording of the signal, ie parameterizing the acquisition phase.

[0111] Acquisition phase parameters include: a capture zone, i.e. at least one zone of the plate 111, 112, 113, 114 used for capture, Supplementary mode, structured or not, If applicable, the range of current intensity and frequency values ​​of the current injected into the capture zone; Modes for reducing or eliminating noise, Recording duration.

[0112] In one embodiment, default values ​​for each parameter of the acquisition phase are stored in local memory 31 and can be assigned to the parameters when substep E111 begins to be executed. For example, the default values ​​can correspond to the following parameterization: all zones of plate 1 used for capture, The default capture mode is unstructured mode. No current is injected by the control unit 3 onto the plate 1; Noise cancellation is not applied. Recording duration is indefinite; recording is interrupted at the user's request via the human-machine interface 4.

[0113] During substep E111, the parameterization requests defined by the user are processed. The parameterization requests coming from the human machine interface 4 may relate to each of the parameters mentioned above for the acquisition phase.

[0114] Upon receiving a parameterization request, the parameters of the capture phase are updated in the local memory 31 according to the parameterization defined in the request.

[0115] In this way, parameterization requests are again processed until a start recording request is received from the human machine interface 4 .

[0116] The request to start recording advantageously begins when the reference product 100 is placed on the plate 1 .

[0117] Once the request to start recording has been received, the process then proceeds to a substep E112 of recording an electrical signal between at least two measuring electrodes 13. The electrical signal consists of a voltage fluctuation between the at least two measuring electrodes 13.

[0118] The parameters previously defined for the acquisition in substep E111 are then applied.

[0119] If the recording duration is defined by the user, a time count T_RECORD is started having a time equal to the recording duration defined by the user.

[0120] The at least two measuring electrodes 13 used for recording are selected according to the zone of the plate 1 selected by the user for this recording, this information being accessible in the local memory 31 .

[0121] If the capture mode is parameterized by structuring, the recording step E11, and more particularly the substep E112, comprises a step of structuring the reference product 200 by sending an electrical structuring signal to the electrical wires of the plate 1 on which the reference product 200 is placed.

[0122] In this case, the injection electrode 14 is also selected to inject a current into a zone of the plate 1 selected by the user. Furthermore, in substep E112, the current intensity and frequency of the structured current are calibrated as a function of parameters recorded in the local memory 31, which parameters may have been updated during substep E111.

[0123] The power supply 34 is controlled to generate a user-defined structured current and to transmit the structured current to selected plate zones via selection of the injection electrodes 14 .

[0124] In one embodiment, the electrical signal or structured current has a frequency of 120-30,000 Hz, or even 1,000-5,000 Hz. In one embodiment, the electrical signal or structured current has a maximum current intensity of 8-96 μA, or even 10-20 μA.

[0125] At the same time that a structured current is injected into the plate, the voltage fluctuations are measured by a voltage sensor 36 across the time terminals of the measurement electrode 13. The measured voltage fluctuations are recorded in a local memory 31.

[0126] In one embodiment, when recording is performed unstructured, the voltage fluctuations measured by the sensor 36 are amplified by an amplifier 37 before being recorded in the local memory 31 .

[0127] Depending on the parameterization of the acquisition phase, a noise reduction or elimination process may have been selected by the user. The user-selected noise reduction method, for example, an average-based or phase-reversal-based noise reduction method, may then be applied to the voltage fluctuations measured between the at least two measurement electrodes 13. The voltage measurements are then recorded in local memory 31 after the noise reduction or elimination process.

[0128] The recording step E11 ends when one of the following conditions is met: The user instructs the recording to stop via the human-machine interface 4, and the human-machine interface 4 sends the instruction to stop the recording to the control unit 3, or -Time count T_RECORD will be lost.

[0129] This is followed by a step E12 in which frequency processing is carried out on the recorded electrical signal to form a digital signature.

[0130] In one embodiment, the digital signature 101 of the reference product 100 is obtained by performing a Fourier transform on the electrical signal 102 recorded in step E11.

[0131] Digital signatures can be generated from the same initial electromagnetic record using several different processing algorithms, in particular by: Fast Fourier Transform or FFT, and / or · Temporal signals (e.g., temporal variations of voltage or current).

[0132] This is followed by a step E13 of storing the digital signature 101 in the database 2. For this purpose, in step E13, a write request is sent to the database 2. The request contains the digital signature 101 of the reference product 100.

[0133] One embodiment of a method for imprinting an active effect is described below with reference to FIG.

[0134] In a first step E21, the digital signature of at least one reference product 100 is extracted from the database 2.

[0135] For this purpose, a request from a user via the human machine interface 4 is processed. The request comprises the selection of at least one identifier of the digital signature 101 to be imprinted.

[0136] At least one identifier is transmitted to the database 2 in the form of a read request.

[0137] A response is received from the database 2. The response includes a digital signature respectively associated with each of the at least one identifier of the digital signature.

[0138] In a second step E22, the imprint parameters are determined.

[0139] The parameters of the imprinting phase include: an imprint zone, i.e. at least one zone of the plate 111, 112, 113, 114 used for imprinting, Imprint mode, structured or not, If applicable, the range of current intensity and frequency values ​​of the current injected into the imprint area; Mode for reducing or eliminating noise (no noise reduction, averaging-based noise reduction, or phase-reversal-based noise reduction), The type of dilution applied to the digital signature (no dilution, high frequency dilution, or inverse high frequency dilution) and the mode for applying these dilutions (sequential or simultaneous) The volume of the imprint medium, i.e. the volume of the treatment solution desired to obtain the imprint duration, e.g., 25 ml, 5 liters, 10 liters, 25 liters.

[0140] In one embodiment, default values ​​for each parameter of the imprint phase are stored in the local memory 31 and can be assigned to the parameters when step E22 begins to be executed. For example, in one execution mode, the default values ​​correspond to the following parameterization: All zones of plate 1 are used for imprinting, The default imprint mode is unstructured mode. No current is injected into plate 1 by control unit 3, Noise cancellation is not applied. The volume of the imprint medium is 25 liters; No dilution is applied, Imprint duration is indefinite; imprint is interrupted at the user's request via the human-machine interface 4.

[0141] During step E22, parameterization requests defined by the user via the human machine interface 4 are processed. The parameterization requests coming from the human machine interface 4 may relate to each of the parameters mentioned above for the imprint phase.

[0142] Upon receiving a parameterization request, the parameters of the imprint phase are updated in the local memory 31 according to the parameterization defined in the request.

[0143] Thus, the parameterization requests are processed again until a request to start imprinting is received from the human machine interface 4.

[0144] Advantageously, the request to start recording is received after the imprint medium has been placed on the plate 1 .

[0145] When a request to start imprinting is received, the process moves to step E23, in which an electrical imprint signal is constructed from at least one digital signature 101.

[0146] In one embodiment, the at least one digital signature 101 recorded in memory is the time signal from which the electrical signal 103 is generated.

[0147] The resulting electrical signal 103 is then processed in step E22 according to parameters specified by the user.

[0148] Depending on the parameterization of the imprint phase, the noise reduction or cancellation process may be configured by the user, and then the noise reduction method selected by the user, for example, an average-based or phase-reversal-based noise reduction method, may be applied to the electrical signal 103.

[0149] Furthermore, if the user selects the type of dilution to be applied to the digital signature, the electrical signal 103 can be modified according to various options. The addition of harmonics has the effect of improving the efficiency of the process.

[0150] When harmonic dilution is included, harmonics of the electrical signal 103 are added to the original electrical signal 103 according to parameterization selected by the user.

[0151] FIG. 8 shows the harmonics of the electrical signal 103 over a half period T / 2: Curve 103-2 represents the second harmonic, whose frequency is twice the frequency of signal 103; Curve 103-3 represents the third harmonic, whose frequency is three times the frequency of signal 103; Curve 103-4 represents the fourth harmonic, whose frequency is four times the frequency of signal 103; Curve 103-5 represents the fifth harmonic, whose frequency is five times the frequency of signal 103.

[0152] The harmonics may be added simultaneously, in which case they are superimposed on the original electrical signal 103. Alternatively, the harmonics may be added sequentially, in which case they are integrated subsequently to the original electrical signal 103.

[0153] In FIG. 9, the principle of simultaneously adding harmonics to the electrical signal 103 is shown by graphs G1 to G4: Graph G2 shows electrical signal 103, which is a sinusoidal signal having a period of 20 milliseconds, signal 103 having a fundamental frequency of 50 Hertz. Graph G3 represents signal 103-3, which is the third harmonic of signal 103, and its frequency is three times the fundamental frequency. Graph G4 represents signal 103-5, which is the fifth harmonic of signal 103, and its frequency is five times the fundamental frequency. Graph G1 represents signal 103-d corresponding to signal 103 simultaneously integrating the third and fifth harmonics, i.e., signal 103 plus its third and fifth harmonics.

[0154] Additionally or alternatively, the user can select inverse harmonic dilution. Inverted harmonics are equivalent to a frequency divider that divides the frequency of the electrical signal 3. Inverted harmonics may also be added sequentially or simultaneously.

[0155] At the end of step E23, the electrical imprinting signal 103 is determined. Depending on the options selected by the user, the electrical imprinting signal may be a filtered signal (to remove noise) and additionally or alternatively, the electrical imprinting signal may or may not integrate the dilutions, either sequentially or simultaneously.

[0156] In a fourth step E24, the active effect of at least one reference product is imprinted into a neutral solution containing at least one salt, which is carried out by passing an electrical imprint signal 103 to a set of electrical wires of a plate of an imprinting device on which the neutral solution is placed, for a predetermined imprint duration, to imprint the active effect of the at least one reference product into the neutral solution, thereby converting the neutral solution into a treatment product.

[0157] In one embodiment, the at least one salt is selected from sodium chloride and / or magnesium chloride.

[0158] Additionally, the neutral solution may be or include sand, sugar beads, glass, or various other polymers.

[0159] The neutral solution containing at least one salt is the imprinting medium in which the active effect of the reference product is imprinted.

[0160] At the start of step E24, the imprint medium must be placed on the plate 1. If the user has selected an imprint zone via the human-machine interface 4, the imprint medium must be placed on the imprint zone selected by the user.

[0161] In one embodiment, the imprint zone may be determined as a function of the volume of the imprint medium 201 to be imprinted and / or the size of the container 301.

[0162] If an imprint duration has been defined by the user, then at step E24 a time period T_IMP is started having a duration equal to the imprint duration defined by the user.

[0163] The power supply 34 is then controlled to generate an electrical imprint signal 103 and transmit the electrical imprint signal 103 to the imprint zone via a selection of the injection electrodes 14 .

[0164] If the imprint mode is parameterized by structuring, the imprint step E24 comprises a step of structuring the imprint medium by sending an electrical structuring signal to the wiring of the plate 1 on which the imprint medium is placed or to the wiring in the imprint zone on which the imprint medium is placed.

[0165] In this case, the injection electrode 14 is also selected to inject a structured current into all or part of the plate 1. Furthermore, the current intensity and frequency of the structured current are calibrated as a function of parameters recorded in the local memory 31.

[0166] The power supply 34 is controlled to generate a user-defined structured current and to transmit the structured current to selected plate zones via selection of the injection electrodes 14 .

[0167] In one embodiment, the electrical signal or structured current has a frequency of 120-30,000 Hz, or even 1,000-5,000 Hz. In one embodiment, the electrical signal or structured current has a maximum current intensity of 8-96 μA, or even 10-20 μA.

[0168] The imprint step E24 ends when one of the following conditions is met: The user issues a command to stop imprinting via the human-machine interface 4, and the human-machine interface 4 sends a stop instruction to the control unit 3, or -The number of hours T_IMP will be lost.

[0169] One embodiment of a method for producing a treatment product is described below with reference to FIG.

[0170] In a first step E1, at least one digital signature of a reference product is captured. Step E1 includes the above-mentioned sub-steps E11, E12 and E13, which are carried out successively.

[0171] Then, in a second step E2, at least one active effect is imprinted in the neutral solution. Step E2 comprises the above-mentioned sub-steps E21, E22, E23 and E24, which are carried out successively.

[0172] The method for producing a treatment product may include an additional phase E0 in which a medium containing atoms or molecules capable of organizing itself, such as a medium containing water molecules, is structured. The additional phase E0 includes the substep E10 described above. In addition, the additional phase E0 may be performed before and / or during the first capture phase E1 to structure the reference solution, and / or the additional phase E0 may be performed before and / or during the second imprint phase E2 to structure the treatment product.

[0173] Experiments were performed to empirically illustrate some aspects of the inventive concepts.

[0174] The first experiment highlights the difference between structured and unstructured solutions. In this first experiment, 20 vials were prepared, each containing 100 ml of sterile deionized water mixed with magnesium chloride (MgCl2). Five measurements were performed on each vial, before and after the structuring step described above. A photoplethysmograph, applied directly through the vial, was used for these measurements. The device consisted of a PPG optical sensor with three LEDs (one green 536 nm, one red 660 nm, and one infrared 940 nm) and two photodiodes (sampling rate 100 Hz, pulse width 115.2 ms).

[0175] Absorbance was recorded at three different wavelengths: 536 nm (green), 660 nm (red), and 940 nm (infrared).

[0176] To ensure the reproducibility of the measurements, we calculated the coefficient of variation for each raw signal, as defined by the following equation 1: Coefficient of variation (CV) % = (standard deviation / mean) × 100 (Equation 1).

[0177] To further analyze the magnitude of the change in absorbance before and after structuring, we first checked whether the data followed a normal distribution. Then, we applied Fisher's parametric test and derived p-values ​​to determine the significance level: no significant difference (p>0.05), first significant level (*, p<0.05), second significant level (**, p<0.01), and third significant level (***, p<0.001).

[0178] An algorithm was developed to estimate the water condition based on the binomial distribution shown in Equation 2 below: Water state (structuring level) = 1 / (1 + e^(-(a + bx1 + cx2 + ... + ixn))) (Equation 2) a, b, .., i are constants and x1, x2, .., xn represent experimental variables.

[0179] In this study, we used a simplified logistic binomial distribution with fewer variables, whose density function is given by Equation 3: f(x; μ, s) = [1 / s(1 + e^(-(x-μ) / s))^2] (Equation 3) μ and s are experimental parameters and x is the variable (measured absorbance).

[0180] The corresponding distribution function is given by equation (4): F(x; μ, s) = 1 / (1 + e^(-((x-μ) / s))) (Equation 4).

[0181] In this study, the expected value E(X) = μ = 0, the variance Var(X) = (s 2 π 2 ) / 3, s = 1. The final distribution function of scores for the water state is given by Equation 5: F(x) = 1 / (1 + e^(-x)) (Equation 5) x corresponds to the measured absorbance.

[0182] The algorithm was initially developed based on 25 observations and then validated on an independent subgroup of 15 observations.

[0183] Measurement repeatability: In unstructured water, the variations were 0.076% at 536 nm, 0.055% at 660 nm, and 0.068% at 940 nm. For structured water, the variations were 0.070% at 536 nm, 0.041% at 660 nm, and 0.528% at 940 nm.

[0184] Difference in water absorption before and after structuring: When Fisher's test was applied to these data before and after structuring, the results shown in Table 1 below (NS means "not significant") were obtained:

[0185] [Table 1]

[0186] A significant difference in absorbance (p = 0.001, ***) was observed only at 536 nm, indicating a change due to dynamization. The calculated Fisher's p-value was lower than the significance threshold of p = 0.05, thereby allowing the assumption that the ratio of variances was other than 1.

[0187] Wavelength fluctuation rate: Similar to what is observed in human blood, some changes are not directly visible in the raw wavelength data. Significant changes were quantified by calculating the ratio of the red / infrared and red / green absorbance changes. The resulting values ​​are summarized in the table below:

[0188] [Table 2]

[0189] The red / infrared and red / green ratios in the structured water were significantly higher than in the unstructured sample. Even the infrared / green ratio showed a significant increase in the structured water.

[0190] Water condition prediction: These observations make it possible to predict the level of structuring of the tested waters, as shown in the table below:

[0191] [Table 3]

[0192] As shown, the prediction was 100% accurate for structured water. However, there were five false positives in the unstructured water sample, resulting in an overall prediction accuracy of 66.7%. This performance was based on absorbance measurements at 536 nm, 660 nm, and 940 nm. The five out of nine false positives in predicting structured water in unstructured samples suggests that larger samples are needed to improve the robustness of the algorithm. Furthermore, the presence of structured water on the surface of the glass vial may affect some wavelength readings, leading to inaccurate predictions.

[0193] We observed acceptable variations (less than 0.1%) at all wavelengths before and after structuring, except at 940 nm after structuring. This anomaly is due to photon emission resulting from water reorganization, which may affect this wavelength.

[0194] Considering the absorption properties of oxyhemoglobin and deoxyhemoglobin, free and structured water absorb different wavelengths differently, and this variation may be related to changes in hydrogen bonding, as shown by the WAMACS method at higher wavelengths.

[0195] The algorithm developed to predict the presence of structured water achieved an average accuracy of 66.7%, but at the same time, produced five false positives in unstructured water samples. Regardless, this initial study is sufficient to demonstrate the existence of differences between structured and unstructured water and the possibility of distinguishing between water states. The above points indicate that accuracy tends toward 100% prediction. The experiment highlights the difference between structured and unstructured vials, which do not respond identically to a given wavelength. The teaching of this experiment is to highlight this phenomenon. It is not necessary to detect the presence of structured or unstructured water for a given solution to practice the present invention.

[0196] A second experiment was carried out to highlight the possibility of performing capture using a capture device according to one embodiment of the present invention. For this purpose, a low voltage generator was placed on the plate of the capture device according to one embodiment of the present invention, generating a 4 kHz (sine wave) signal.

[0197] FIG. 12 shows measurements of an electrical signal resulting from an electromagnetic field by the first and second electrodes of a capture device according to an embodiment of the present invention, each as a function of time, in the presence of a low-frequency generator. The first electrode, referred to as the plate electrode and corresponding to the aforementioned measurement electrode 13, measures an electrical value referred to as "plate val." These values ​​form the first curve in FIG. 12, and indeed, a signal with a frequency of 4 kHz is obtained, corresponding to the signal transmitted to the capture device by the low-voltage generator. This result demonstrates that the capture device is capable of capturing such an electromagnetic electrical signal. Note that this electrical signal is slightly distorted by the unavoidable presence of noise. To better identify the noise, additional electrodes of the capture device, located further away from the plate, also measure the received electrical signal (electrode val), which is reproduced by the second curve in FIG. 12. These electrodes appear to receive no (or very little) signal from the low-voltage generator, and the resulting signal ultimately corresponds to ambient noise. Based on this, it is possible to reprocess the signal measured by the first electrode of the plate by removing the noise captured by the additional electrodes from the plate.

[0198] Figure 13 shows the same measurement of the electrical signal as a function of time as in Figure 12, but in the absence of a signal emitted by the low-voltage generator. The plate electrodes measure a very different signal from that in Figure 12, thereby confirming that they are able to specifically capture the signal emitted by the plate on which they are located.

[0199] Finally, a third experiment was conducted to verify the method for manufacturing treated products, including the capture and imprinting methods. To this end, eight specific products were manufactured by imprinting signals according to the described manufacturing method. For each product, 20 captures were performed by a capture device according to an embodiment of the present invention and recorded in a database in the form of a reference signal. Alternatively, any other number of captures can be performed for each product: one capture, two captures, or any number greater than two. Performing multiple captures allows for a larger initial source of information and facilitates future processing operations. In the performed experiment, the database contained 160 records. Next, a number of measurements were performed on various products by a capture device according to an embodiment of the present invention, including eight specific products initially selected in 19 situations randomly distributed among the multiple measurements. For each measurement from this number of measurements, the capture was compared with the reference signal. This comparison allowed for accurate identification of the 19 measurements of the specific product from the eight products. In other words, this experiment made it possible to demonstrate that a product does indeed contain a reliably identifiable digital signature, thereby validating both the principles of signal capture and signal imprinting.

Claims

1. A method for imprinting an active effect of at least one reference product onto a treatment product, said method comprising a second imprint phase (E2), said second imprint phase comprising: a step (E21) of reading the associated digital signature of at least one reference product from the database; - constructing an electrical imprint signal based on said digital signature of said reference product (E23); a step (E24) of imprinting said active effect into a neutral solution comprising at least one salt, said imprinting being carried out by running, for a predetermined imprint duration, said electrical imprint signal through one or more wires of a plate of an imprinting device in which said neutral solution is located, thereby imprinting said active effect of said at least one reference product into said neutral solution and converting it into a treatment product; having Imprinting method.

2. The method of claim 1 , wherein the plate has at least two substantially straight and parallel wires, or at least one wire in the shape of a spiral.

3. 3. The imprint method according to claim 1 or 2, further comprising a step (E22) of determining imprint parameters including a selected imprint duration, wherein the execution time of the step (E24) of imprinting the active effect is equal to the selected imprint duration.

4. The step (E23) of constructing an electrical imprint signal based on the digital signature of the reference product comprises: - obtaining a first electrical signal by applying an inverse Fourier transform to the at least one digital signature of the reference product; Furthermore, as an option, generating a set of harmonics of the first electrical signal and then adding the set of harmonics to the first electrical signal, the set of harmonics including the second and / or third and / or fourth and / or fifth harmonics; The imprint method according to claim 1 , comprising:

5. 5. The imprint method according to claim 1, further comprising an additional phase (E0) of structuring the neutral solution, which is carried out before and / or during the second imprint phase (E2), and wherein the additional phase (E0) is carried out by carrying out a structuring method including a step of emitting electromagnetic waves into the neutral solution.

6. The imprint method according to claim 1 , wherein the neutral solution contains at least one salt selected from magnesium chloride or sodium chloride, and the water molecules are structured around crystals of the at least one salt.

7. The method according to any one of the preceding claims, wherein the electromagnetic waves of the structuring method are emitted over a frequency range of 120 to 30000 Hz, or 1000 to 5000 Hz.

8. The method of imprinting according to any one of claims 1 to 7, wherein the electromagnetic waves of the structuring method are generated by an electrical structuring signal having a maximum current intensity of 8 to 96 μA, or 10 to 20 μA.

9. A method for producing a treatment product, comprising a first phase (E1) of capturing at least one digital signature of a reference product by implementing a capture method, said capture method comprising: a step (E11) of recording the electrical signals measured between at least two measurement electrodes of a capture device comprising a plate on which said reference product is placed, said plate comprising one or more wires capable of generating a virtual coil over the volume containing said reference product; - processing the recorded electrical signal to form a digital signature comprising the frequency spectrum of the recorded electrical signal (E12); a step (E13) of storing said digital signature in a database; and The method for manufacturing further comprises a second phase (E2) of imprinting at least one active effect into a neutral solution based on the digital signature by implementing the imprinting method according to any one of claims 1 to 8. method.

10. A device (10) for imprinting an active effect, comprising: a processing plate (1) comprising one or more wirings; Access to a database (2) storing the digital signature of at least one reference product; a control unit (3) comprising hardware and software means adapted to implement the imprinting method according to any one of claims 1 to 8 and / or the manufacturing method according to claim 9, said control unit comprising firstly a link to a database (2) for storing and / or reading at least one digital signature therein and secondly a link to one or more wires of said plate for generating and / or measuring electrical signals; a human-machine interface (4) for starting and / or interrupting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling and for inputting structuring and / or capturing and / or imprinting and / or manufacturing and / or cooling parameters; An apparatus comprising:

11. 11. The apparatus (10) for imprinting an active effect according to claim 10, comprising at least first and second measurement and / or injection electrodes, and one or more wires of the set of wires of the plate being connected to the first and second measurement and / or injection electrodes in an electrical circuit, whereby a first end of each of the one or more wires is connected to the first measurement and / or injection electrode and a second end of each of the one or more wires is connected to the second measurement and / or injection electrode.

12. 12. Device (10) for imprinting an active effect according to claim 10 or 11, wherein the wires of the plate are parallel to each other or are not equidistant from each other, or the one or more wires are in the shape of a spiral.

13. 13. The apparatus (10) for imprinting an active effect according to claim 10, wherein the plate comprises a plurality of lines and first and second zones, and wherein a first distance measured between each pair of adjacent lines in the first zone is different from a second distance measured between each pair of adjacent lines in the second zone.

14. 14. The device (10) for imprinting an active effect according to claim 12 or 13, wherein the wiring in the at least one or at least two zones of the plate is capable of generating an equivalent electric field that imprints the same active effect in different volumes of neutral solution.

15. The imprint parameters are: the result of the selection of at least one zone (111, 112, 113, 114) of the plate (1) used for imprinting, called the imprint zone, and / or a first imprint mode called "without structure" imprint mode or a second imprint mode called "with structure" imprint mode, and / or a range of current intensity and frequency values ​​of the current injected into the imprint zone, and / or a mode for reducing or canceling noise contained in said signal, the first reduction mode being called "reduction mode without reduction", or the second reduction mode being called "averaging-based" reduction mode, or the third reduction mode being called "phase reversal-based" reduction mode; and / or the type of dilution applied to the digital signature, referred to as "no dilution" mode, or referred to as "harmonic dilution" mode, and / or referred to as "inverse harmonic dilution" mode; and / or - sequential or simultaneous dilution application modes, and / or the volume of the neutral solution to be imprinted, e.g., 25 milliliters, 5 liters, 10 liters, 25 liters, and / or Imprint time, Including, A device (10) for imprinting an active effect according to any one of claims 10 to 14.

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