WO2020007441A1 - Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique - Google Patents

Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique Download PDF

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Publication number
WO2020007441A1
WO2020007441A1 PCT/EP2018/067855 EP2018067855W WO2020007441A1 WO 2020007441 A1 WO2020007441 A1 WO 2020007441A1 EP 2018067855 W EP2018067855 W EP 2018067855W WO 2020007441 A1 WO2020007441 A1 WO 2020007441A1
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Prior art keywords
time
seconds
time pattern
generator
refractory
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Ceased
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PCT/EP2018/067855
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German (de)
English (en)
Inventor
Martin Keymer
Peter KREISL
Walter Medinger
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Apere & Co KG GmbH
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Apere & Co KG GmbH
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Priority to EP18742714.1A priority Critical patent/EP3817804A1/fr
Priority to PCT/EP2018/067855 priority patent/WO2020007441A1/fr
Publication of WO2020007441A1 publication Critical patent/WO2020007441A1/fr
Anticipated expiration legal-status Critical
Ceased legal-status Critical Current

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    • A—HUMAN NECESSITIES
    • A61—MEDICAL OR VETERINARY SCIENCE; HYGIENE
    • A61N—ELECTROTHERAPY; MAGNETOTHERAPY; RADIATION THERAPY; ULTRASOUND THERAPY
    • A61N1/00—Electrotherapy; Circuits therefor
    • A61N1/02—Details
    • A61N1/08—Arrangements or circuits for monitoring, protecting, controlling or indicating

Definitions

  • BRT devices Such bioresonance therapy devices, hereinafter referred to as BRT devices, are widely known from the prior art.
  • Vibration signals for optional output to the patient as a therapy signal is possible.
  • EP 0 714 027 A2 discloses a BRT device in which
  • Amplitudes and / or frequencies of the electromagnetic signals given back to the patient can be amplified or weakened or doubled or reduced in dual stages.
  • Amplitudes of the therapeutic electromagnetic output signals can be set automatically.
  • the electrodes attached to the patient For picking up electromagnetic vibrations of the organism and the electrodes necessary for the return of therapeutic signals, there are two additional hand or foot electrodes on the patient's body for measuring the body or skin resistance, the scaled measurement values of which
  • Biofeedback signals for automatic amplitude adjustment of the output signals of the BRT device can be used.
  • the body's own vibrations picked up by the patient can additionally be broken down into harmonic and disharmonious frequency components using a filter in the BRT device, modified using the scaled measurement values and returned to the patient as electromagnetic therapy signals.
  • a BRT device with an input circuit for receiving the body's own or material's own electromagnetic frequency pattern in which the signals received for various types of therapy are unfiltered or filtered using a bandpass or physiological filter and normal or inverted or in A combination of these can be supplied to the body as output signals.
  • the BRT device has a delay circuit, which means that the output signals can be set with a time delay compared to the input signals, in order to determine the temporal relationships (phase shifts) between the input signal picked up by the body or substance and the one that affects the body depending on the local area Therapy signal to take into account.
  • the time delays can be changed manually or automatically; they can refer to the entire input signal, the entire inverted input signal or individual or multiple frequencies or frequency components thereof and both
  • From DE 10 2013 007 448 A1 is a method for operating a BRT device and a corresponding device for detecting and generating
  • the control is carried out by a technical control circuit acting as a biofeedback mechanism, in which at least one cardiovascular reaction signal is used as a control variable Patients guided therapy signals as a controlled system and the central processing unit of the BRT device as a controller.
  • Cardiovascular measurement values relating to the heart or vascular system are evaluation parameters derived from the EKG, such as the heart rate variability (HRV)
  • the controllable therapy signals can contain a frequency or a frequency spectrum of at least two, preferably two to 8000 or two to 500 frequencies, each of which differ by a factor of 10. From EP 2 799 1 10 A1, to which DE 10 2013 007 448 A1 contributes on the basis of priority, it is also known that the frequencies impressed on the patient are in the range from 0.1 to 100 GHz.
  • the recovery phase (refractory period) in the patient's body that occurs after an excitation caused by a therapy signal to restore the ionic relationships of the resting potential has so far not been taken into account in the Generation of electromagnetic therapy signals.
  • the present invention provides a remedy here.
  • a refractory generator for therapeutically effective electromagnetic signals according to the preamble of the present claim 1 in that it consists of a time pattern generator for the optional output of binary pulse width-modulated signal sequences with special time patterns, their pulse widths and pulse interval times in their sequence
  • refractory generator which can be built both as a BRT device downstream additional device or easily installed in a BRT device, a particular advantage is to be seen in the fact that not only allows a better adaptation to refractory times is, but also different time patterns with different mathematical properties and therapeutically different meaning can be used to control the refractory periods.
  • claim 2 shows a constructive embodiment of the refractory generator according to the invention according to claim 1, which can be constructed in an advantageous manner with commercially available building blocks.
  • the feature set out in claim 3 enables a fracture time generation controlled by linear patterns, the therapeutic importance of which serves in particular to stabilize physiological patterns due to the uniform gradation of the linear time patterns.
  • the binary time pattern listed in claim 4 allows a fracture time generation controlled by exponential pattern, which generates an alert signal to the dynamics due to the progressive increase or decrease in the context of the exponential time pattern.
  • the time pattern listed in claim 5 enables a fractional time generation controlled by proportional time pattern, whereby the processes on different reaction levels are coordinated by the proportional behavior of pulse and pause times with uniform (linear) gradation.
  • the binary time patterns specified in each of claims 6 and 7 enable fractal time generations controlled by fractal time patterns, the fractal patterns of which are used to advantageously implement different logarithmic-cyclic processes. While the controlling use of the fractal time pattern calculated according to a chain break rule is aimed at the fractal dynamization of the holographic aspect, the use of the time pattern built up according to the principle of a Cantor set turns to the fractal patterns of nature, which is an advantageous extension beyond the organism means.
  • the adjustment period of the central regulation and the half-life of the adenosine triphosphate (AIR), as an important regulator of energy-supplying processes, are 3 seconds.
  • Conventional BRT devices therefore provide frequency sweeps in a duration of 3 seconds. It takes 5 seconds to save the pictures of the life film in the psyche.
  • the time patterns of the refractory generator are therefore advantageously adapted to it.
  • the inserted 10-second interval intervals also offer the patient the advantage of the response.
  • sequence control program mentioned in claim 9 stored in the refractory time generator, allows multiple runs of individual stored time patterns for interrupting refractory times to be therapeutically effective
  • multiple runs of different stored time patterns can advantageously run automatically in sequential order to interrupt the refractory time, therapeutically effective electromagnetic signals, which additionally increases the therapeutic success.
  • FIG. 1 a block diagram of an embodiment of the invention
  • Fig. 2 Tabular representations of linear time patterns of 3 and 5 seconds duration
  • Fig. 3 tabular representations of exponential time patterns of 3 and 5 seconds duration
  • Fig. 4 Tabular representations of proportional time patterns of 3 and 5 seconds duration
  • Fig. 5 Tabular representations of fractal time patterns of 3 and 5 seconds duration calculated according to a chain break formula
  • Fig. 6 Tabular representations of fractal time patterns of 3 and 5 seconds duration, built up according to the principle of the Cantor set
  • FIG. 7 Flow chart of an inventive, in flash and / or
  • EEPROM memory (13) stored sequence control program for a time pattern run for the repeated output of a specific time pattern (15) and associated time diagram,
  • FIG. 8 Flow diagram of a flash and / or
  • EEPROM memory (13) stored sequence control program for the automatic sequential output of time pattern runs of all time patterns (15) stored in the flash and / or EEPROM memory (13),
  • Fig. 9 and 10 time diagrams of a linear time pattern (25) from FIG. 3
  • Fig. 11 Tabular representations of sigmoid time patterns of 3 and 5
  • Figure 1 shows a block diagram of an embodiment of the
  • the refractory time generator (1) contains a time pattern generator (2) and an interruption circuit (3) connected to it as basic circuit components.
  • Time pattern generator (2) consists of a programmable microcontroller (4) which, in addition to its central processing unit (5), a working memory (6), an internal bus system (7) with associated bus controller (8), digital input / output interfaces (9 ), an analog input (10) with a
  • Analog / digital converter (1 1), a flash and / or EEPROM memory (13) and a timer (12) for outputting pulse width modulated binary signals.
  • the time pattern generator (2) is connected to an external input / output terminal (I / O terminal) (18) via a bus interface (17).
  • I / O terminal an external input / output terminal
  • EEPROM memory (13) are permanently or changeably stored binary time patterns (15) of various types with
  • sequence control programs (14) for sequential output (runs) of the same or different of these time patterns (15).
  • Binary time patterns (15) with a linear time pattern (25), with an exponential time pattern (26), with a proportional time pattern (27), with a fractal time pattern (28) calculated according to a chain break formula and with a cantor Amount of fractal time patterns built up (29).
  • Additional user-defined time patterns (I, II) can be provided in the following memory locations.
  • Working memory (6) is copied and the time patterns (15) addressed by the respective sequence control programs (14) in program-controlled time
  • Time pattern generator (2) an additional analog signal input (10) with an analog / digital converter (11). Via an input plug connection (24) known from the prior art, derived from cardiovascular reaction signals (see, for example, DE 10 2013 007 448 A1 or DE 10 2004 026 901 A1) or other reflex signals can be coupled.
  • the interruption circuit (3) consists of an electronic analog switch (20), which is controlled by the pulse width modulated binary signal sequences (16) coming from the time pattern generator (2).
  • the analog switch (20) At the input (30) of the analog switch (20) there is a band-limited bipolar analog signal (34) which, coming from a BRT device (19), is either one derived from the patient
  • electromagnetic therapy signal with a bandwidth of 0.2 Hz to 4 MHz or filtered from it according to physiological criteria using a bandpass filter
  • Usual frequency bands are, for example, between 0.23 Hz to 0.27 Hz, 0.27 Hz to 0.33 Hz, 1.9 Hz to 2.1 Hz or 3.6 MHz to 4 MHz.
  • the switch opening times of the analog switch (20) controlled by the pulse-width-modulated binary signal sequences (16) specifically block the therapy signals at its input (30) or interrupt them by pauses that correspond to refractory times.
  • Therapeutically effective electromagnetic signals are then inserted at the output (31) of the analog switch (20), which is also the output of the refractory generator (1)
  • Refractory periods (35) which can be connected to a wrist or foot electrode (23) of a patient - as shown - or a cup electrode to develop their therapeutic effect.
  • Interrupt circuit (3) still an optocoupler (21), via which the
  • Time pattern generator (2) coming pulse-width-modulated signal sequences (16) to the analog switch (20), and a DC-DC converter (22) to provide the required in the interrupt circuit (3) from
  • Time pattern generator (1) different supply voltages, available.
  • inventive refractory generator (1) can be easily made from commercially available components (microcontroller (4), optocoupler (21), DC converter (22) and an analog switch (22)). It can therefore be easily integrated into a BRT device or constructed as an additional device to a BRT device.
  • the tables listed in FIGS. 2 to 6 explain in detail the different time patterns (25, 26, 27, 28, 29) stored in the flash and / or EEPROM memory (13) according to the invention in detail.
  • the time patterns listed each have a duration of approximately 3 or 5 seconds, and the time units (ZE) given by way of example were calculated according to the criteria specified in claim 1 and selected for therapies on patients.
  • Under a linear time pattern (25) is a sequence of so-called refraction periods (RR) - each consisting of a pulse and one
  • Pulse pause understood, whereby the duration of the pulse and the pulse pause each vary in an arithmetic sequence, i.e. to increase or decrease constant amounts.
  • the total duration of the refraction periods (RR) remains unchanged.
  • the linear time pattern (25) shown has a total duration of 3 seconds, for example 48
  • Time units (ZE) of 62.5 milliseconds each and with a duration of 5 seconds (more precisely 4.982 seconds) 48 time units of 103.8 seconds each. Each 4 time units are combined into one refraction period (RR), so that there are 12 consecutive refraction periods (RR).
  • RR refraction period
  • Time relationships between pulse duration and pulse pause of each refraction period can be found in Table A with the respective time units (ZE) as a yardstick (see left table).
  • the refraction period is a constant 250 milliseconds for a linear time pattern (25) of 3 seconds and a constant 415.2 milliseconds for a linear time pattern (25) of 5 seconds.
  • the resulting exact pulse and pulse pause times can be seen in the two tables on the right. It can be seen that the pulse duration first decreases, then increases and finally decreases again.
  • Refraction periods (RR) - each consisting of one pulse and one
  • Pulse pause understood, whereby the duration of the pulse and the pulse pause vary in a geometrical sequence, i.e. to add or remove constant factors
  • the total duration of the refraction periods (RR) also increases or decreases in geometric progression.
  • the exponential time pattern (26) shown with a duration of 3 seconds consists for example of 144 time units (ZE) each 20.8 milliseconds and with a duration of 5 seconds (more precisely 4.9824 seconds) out of 144 time units at 34.6 milliseconds. It consists of a sequence of 10 refraction periods (RR).
  • ZE 144 time units
  • RR refraction periods
  • Refraction periods (RR) are from the table with the respective time units (ZE) readable as a scale.
  • the total duration of the individual refraction periods (RR) increases or decreases by a factor of 2 in the illustrated example in geometric progression.
  • the resulting precise pulse and pulse pause times can be found in the two tables on the right for clarification.
  • Refraction periods (RR) - each consisting of one pulse and one
  • Pulse pause understood, whereby the duration of the pulse and the pulse pause remain proportional to each other and both vary in an arithmetic sequence, i.e. to increase or decrease constant amounts.
  • the total duration of the pulse and the pulse pause remain proportional to each other and both vary in an arithmetic sequence, i.e. to increase or decrease constant amounts.
  • Refraction periods (RR) increase or decrease equally.
  • proportional time patterns (27) with a duration of 3 seconds (more precisely 3.0016 seconds) for example 28 time units (ZE) of 53.6 milliseconds each and with a duration of 5 seconds (more precisely 4.984 seconds) 28 time units of 89 seconds. It consists of a sequence of 7 refraction periods (RR). The duration of the pulse and the pulse pause of each refraction period (RR) remain proportional to each other in a time ratio of 3: 1, both change
  • Refraction periods (RP) - each consisting of one pulse and one
  • Pulse pause understood, whereby the duration of the pulse and the pulse pause follow self-similar patterns, i.e., repeat themselves on different scales.
  • the total duration of the refraction periods (RR) increases or decreases chaotically.
  • Figure 5 shows an example of fractal time patterns (28) calculated according to a chain break formula with a duration of 3 and 5 seconds with their exact pulse and pulse pause times in tabular form.
  • the fractal time pattern (28) follows a chain break formula, the one
  • Figure 6 shows examples of a principle based on the Cantor set
  • each refraction period (RR) consists of 3 sections of equal length, namely a first pulse sequence, which in turn is composed of a pulse 1 a, a pause 1 and a pulse 1 b (all three of the same length), a pause 2 and a second pulse sequence, which consists of a pulse 2a, a pause 3 and a pulse 2b and is constructed in the same way as the first pulse sequence.
  • the pulse widths and the pulse pause times change from one refraction period (RP) to the next by a factor of 3.
  • Refraction periods (RP) - each consisting of one pulse and one
  • Pulse pause understood, whereby the duration of the pulse and the pulse pause vary in a sequence which is determined by the distribution function of the normal distribution.
  • the duration of the pulses results from the function value of the
  • Distribution function F (z) F [(c-m) / s].
  • the total duration of the refraction periods (RP) remains unchanged.
  • the sigmoid time pattern shown has a total duration of 3 seconds, for example 13 time units (ZE) each of 230.8 milliseconds, and a duration of 5 seconds (more precisely 4.982 seconds) 13 time units of 384.6 seconds each.
  • Each unit of time corresponds to a refraction period (RR).
  • the respective time relationships between pulse duration and pulse pause of each refraction period (RR) can be found in the table in FIG. 11 (see left part of the table).
  • the refraction period is constant 230.8 milliseconds with a sigmoid time pattern of 3 seconds and constant 384.6 milliseconds with a sigmoid time pattern of 5 seconds.
  • the resulting exact pulse and pulse pause times can be seen in the two columns in the left part of the table for clarification. It can be seen that the pulse duration initially increases, then decreases and finally increases again.
  • time units (ZE) for the time pattern sequences (15) can also be selected, provided that they are compatible with one of the physiological times of 3 seconds or 5 seconds.
  • Pulse interval times (33) are suitable for therapies on patients; when multiplied by a shortening factor of 0.04978707, they are particularly suitable for therapies on blood drops.
  • FIG. 7 shows a flow diagram of a sequence control program according to the invention, stored in the flash and / or EEPROM memory (13) for a time pattern run for the repeated output of a specific time pattern (15).
  • a certain time pattern (15) is selected and started at the I / O terminal (18) by a therapist.
  • the selected time pattern (15) is output 5 times with a duration of 3 seconds each (step A), followed by a so-called “delayed”
  • step B a pause of 10 seconds
  • step C a repeated repetition of an output of the selected same time pattern
  • step C a respective duration of 5 seconds
  • step E a STOP signal sounds
  • the therapist can now confirm the passage of the time pattern (15) from the I / O terminal (18) and thus end it. Without confirmation signal from Therapists start the time pattern cycle from the beginning.
  • the associated time diagram is additionally shown on the side edge of FIG. 7.
  • Figure 8 shows a flow chart of an inventive sequence control program stored in the flash and / or EEPROM memory (13) for the automatic sequential output of time pattern runs of all time patterns (15) stored in the flash and / or EEPROM memory (13) Using a patient response signal.
  • Time pattern selection variable x set to 1 (step A). This is followed by the output of the xth time pattern (15) of 3 seconds duration (step B). If there is a response signal at the analog signal input (10) of the
  • the x-th time pattern (15) is output again 4 times in succession with a respective duration of 3 seconds (step C), so that a sequential, 5-fold output of the x-th time pattern (15 ) within a total time of 15 seconds.
  • Step C a sequential, 5-fold output of the x-th time pattern (15 ) within a total time of 15 seconds.
  • Step D a "Delayed Feedback Interval” of 10 seconds
  • Step E a 3-time output of the xth time pattern (15) with a respective duration of 5 seconds
  • step F again a "Delayed Feedback Interval" of 10 Seconds
  • Time pattern run through a specific time pattern (15) (see time diagram on the side edge of FIG. 7).
  • the time pattern selection variable is increased by 1 (step G) and an inquiry is made as to whether the time pattern selection variable x is greater than n, i.e. all time patterns have been output. If this is the case, the program ends automatically. Otherwise, the process returns to step A and the routine consisting of steps B to G is repeated with the next time pattern (15) until all time patterns are output, i.e., x> n is fulfilled.
  • step B does not have a response signal at the analog signal input (10) of the refractory time generator (1), step G is carried out directly and the output of the next time pattern (15) is started.
  • step G is carried out directly and the output of the next time pattern (15) is started.
  • Refractory generator (1) electromagnetic frequencies have therapeutic frequencies within a frequency band from 0.2 Hz to 4 MHz or lie in a narrow frequency range filtered from them according to physiological criteria by means of bandpasses, the center frequency of which corresponds to a median frequency.
  • the time units (ZE), the refraction periods (RP) and the duration (D) of the time pattern (25) are associated phase tables with details of fractions (BP) of the period and Phase angle (F °) at the end of each time unit (ZE) of the therapy signal at the input (30) of the refractory generator (1) is shown and the physiological stressed phases at the beginning and end of the refractory periods are outlined in bold.
  • the circulatory meridian frequency of 0.25 Hz was selected as the frequency example, in Fig. 10 the allergy meridian frequency of 2 Hz.
  • Microcontroller 26 exponential time pattern central processor unit (CPU) 27 proportional time pattern work memory (SRAM) 28 fractal, according to one
  • Time pattern 33 pulse interval time, refractory time pulse width modulated binary 34 bipolar analog signal

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  • Health & Medical Sciences (AREA)
  • Heart & Thoracic Surgery (AREA)
  • Neurology (AREA)
  • Engineering & Computer Science (AREA)
  • Biomedical Technology (AREA)
  • Nuclear Medicine, Radiotherapy & Molecular Imaging (AREA)
  • Radiology & Medical Imaging (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Animal Behavior & Ethology (AREA)
  • General Health & Medical Sciences (AREA)
  • Public Health (AREA)
  • Veterinary Medicine (AREA)
  • Electrotherapy Devices (AREA)

Abstract

L'invention concerne un générateur (1) de périodes réfractaires pour des signaux électromagnétiques à action thérapeutique, qui est composé d'un générateur (2) de motifs temporels pour l'émission sélective de séquences de signaux binaires modulées en largeur d'impulsion présentant des motifs temporels spéciaux (25, 26, 27, 28, 29, 29a), dont les largeurs d'impulsion (32) et les temps entre impulsions (33) sont sélectionnés dans leur séquence entre 1 ms et 1000 ms, jusqu'à 50 ms en marche accélérée, en fonction d'un motif temporel (15) sélectionné pour être compatible avec des périodes physiologiques de 3 secondes ou 5 secondes, et d'un circuit de coupure (3) qui est commandé par ledit générateur et qui interrompt les signaux électromagnétiques analogiques à action thérapeutique, provenant en particulier d'un appareil de thérapie par biorésonance (19), pour une régulation ciblée des périodes réfractaires, de sorte que des périodes de relaxation sont données au système biologique des patients sous thérapie, pour favoriser le succès de la thérapie. On dispose déjà à cette fin de motifs temporels linéaires, exponentiels, proportionnels ainsi que fractals, et des motifs temporels additionnels peuvent être facilement intégrés.
PCT/EP2018/067855 2018-07-02 2018-07-02 Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique Ceased WO2020007441A1 (fr)

Priority Applications (2)

Application Number Priority Date Filing Date Title
EP18742714.1A EP3817804A1 (fr) 2018-07-02 2018-07-02 Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique
PCT/EP2018/067855 WO2020007441A1 (fr) 2018-07-02 2018-07-02 Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique

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PCT/EP2018/067855 WO2020007441A1 (fr) 2018-07-02 2018-07-02 Générateur de périodes réfractaires pour la commande de signaux électromagnétiques à action thérapeutique

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Citations (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
EP0714027A2 (fr) 1994-11-23 1996-05-29 5E Systeme für holistische Medizin Ges.m.b.H. Appareil et méthode pour enregistrer de l'information spécifique à des substances et au corps
DE19547309A1 (de) 1995-10-18 1997-04-24 Regumed Regulative Medizintech Vorrichtung zur Anwendung bei der elektromagnetischen Resonanztherapie
DE29709094U1 (de) 1997-05-23 1998-09-17 Kiontke, Siegfried, Dr., 81245 München Gerät für die Bioresonanz-Therapie
DE102004026901A1 (de) 2004-06-01 2005-12-22 Zmeck, Manfred, Dipl.-Ing. Verfahren und Vorrichtung zur Messung informationsabhängiger physiologischer Daten des menschlichen oder tierischen Körpers
DE202009006244U1 (de) 2009-04-30 2009-07-16 Baklayan, Alan Bioresonanzgerät
DE202013100074U1 (de) 2013-01-08 2013-01-17 Uwe Uellendahl Vorrichtung zur Erzeugung von elektromagnetischen Schwingungen
US20130279206A1 (en) * 2012-04-20 2013-10-24 System General Corp. Control circuit for an inverter with small input capacitor
US20140042942A1 (en) * 2012-08-13 2014-02-13 Lapis Semiconductor Co., Ltd. Semiconductor device, electrical device and control signal, generation method
EP2799110A1 (fr) 2013-05-02 2014-11-05 Rayonex Biomedical GmbH Procédé destiné au fonctionnement d'un appareil de bio-résonance
CN205287245U (zh) * 2015-09-29 2016-06-08 河南卓安科技有限公司 一种智能脉冲离子止汗仪
EP3340741A1 (fr) * 2016-12-22 2018-06-27 Nxp B.V. Organe de commande de diode électroluminescente autonome (del)

Patent Citations (12)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
EP0714027A2 (fr) 1994-11-23 1996-05-29 5E Systeme für holistische Medizin Ges.m.b.H. Appareil et méthode pour enregistrer de l'information spécifique à des substances et au corps
DE19547309A1 (de) 1995-10-18 1997-04-24 Regumed Regulative Medizintech Vorrichtung zur Anwendung bei der elektromagnetischen Resonanztherapie
DE29709094U1 (de) 1997-05-23 1998-09-17 Kiontke, Siegfried, Dr., 81245 München Gerät für die Bioresonanz-Therapie
DE102004026901A1 (de) 2004-06-01 2005-12-22 Zmeck, Manfred, Dipl.-Ing. Verfahren und Vorrichtung zur Messung informationsabhängiger physiologischer Daten des menschlichen oder tierischen Körpers
DE202009006244U1 (de) 2009-04-30 2009-07-16 Baklayan, Alan Bioresonanzgerät
US20130279206A1 (en) * 2012-04-20 2013-10-24 System General Corp. Control circuit for an inverter with small input capacitor
US20140042942A1 (en) * 2012-08-13 2014-02-13 Lapis Semiconductor Co., Ltd. Semiconductor device, electrical device and control signal, generation method
DE202013100074U1 (de) 2013-01-08 2013-01-17 Uwe Uellendahl Vorrichtung zur Erzeugung von elektromagnetischen Schwingungen
EP2799110A1 (fr) 2013-05-02 2014-11-05 Rayonex Biomedical GmbH Procédé destiné au fonctionnement d'un appareil de bio-résonance
DE102013007448A1 (de) 2013-05-02 2014-11-20 Rayonex Biomedical Gmbh Verfahren zum Betrieb eines Bioresonanzgeräts
CN205287245U (zh) * 2015-09-29 2016-06-08 河南卓安科技有限公司 一种智能脉冲离子止汗仪
EP3340741A1 (fr) * 2016-12-22 2018-06-27 Nxp B.V. Organe de commande de diode électroluminescente autonome (del)

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