RU193349U1 - MULTIFUNCTIONAL DEVICE WITH APPLICATOR ELEMENT - Google Patents

Abstract

A multifunctional device (1) for aesthetic or medical treatment of body parts, comprising a control unit (2) and consisting of at least one applicator element (3) connected to a control unit (2) fixed to a part of the human body during processing, in wherein the applicator element (3) comprises at least an ultrasonic transducer (121), two plates (111a, 111b) of an RF wave emitter, a laser light emitter (131), the applicator element (3) is provided with a printed circuit board (7) and a contact surface (8 ) with The waves emitted by these components propagate (111a, 111b, 121, 131).

Description

This utility model relates to a multifunction device with an applicator element. In particular, it relates to a device with an applicator element emitting waves of various types, which will be used for body treatment, both aesthetic and medical. In particular, this is a device, the applicator element of which has the type of an overlay plate and is adapted to be applied to parts of the body that require processing with certain types of waves.

Thus, the utility model relates to the field of devices that perform stimulating and tonic actions using various types of waves, in particular ultrasonic waves, laser radiation and high-frequency radio waves, on the tissues of the human body, primarily, but not only, to improve the appearance and functionality , as well as to give them shape.

In particular, the device according to the present utility model is adapted for aesthetic and medical treatments aimed at reducing or, as the case may be, eliminating the presence of altered and undesirable conditions such as adipose tissue, water retention, edema, cellulite and skin defects such as " Orange peel".

Often two or more of the above altered states can be detected simultaneously in the same person.

Therefore, in practice, in order to cope with these altered conditions, this person is often subjected to a number of aesthetic / medical treatments corresponding to the number of aesthetic / medical problems. Therefore, at present, even during individual sessions, this person is exposed to special devices, each of which is characteristic for processing under various altered states or for the type of emitted wave.

Thus, the main limitation of the devices currently available on the market is that one and the same part of the body, region or zone of a person must undergo two or more treatments for individual altered states at different times. This causes some problems, such as increasing processing time, increasing the number of sessions, increasing costs, etc. In addition, an aesthetic or medical center wishing to offer its customers a full range of these treatments must acquire all the necessary specific devices.

The device in accordance with the utility model, as for predominantly aesthetic treatments, is also effective in treating diseases of the lymphatic system, in particular phlebolymphedema of the lower extremities.

Phlebolymphedema is edema caused by an increase in pressure in the venous part of the capillaries with the inability to reabsorb fluids, which subsequently stagnate and accumulate in the tissues. Venular hypertension can be caused by obstruction or contraction of the venous axis, reflux caused by valvular incontinence, or angio dysplasia.

Subcutaneous edema, associated with muscle edema in acute cases or often isolated as in chronic edema, usually appears on the ankle and can spread upward or also to the foot.

Currently, this disease is treated mainly with the help of manual lymphatic drainage, dressing (elastic compression) or pressure therapy.

However, the aforementioned prior art treatment methods have noticeable results only after several sessions or interventions conducted regularly and continuously. These treatments, in particular manual lymphatic drainage and pressure therapy, should also be performed by specialized personnel.

In this regard, the purpose of this utility model is to create a device that overcomes the problems of devices for aesthetic treatments of the prior art.

In principle, the device provided by this utility model allows several treatments to be performed simultaneously on the same part of the human body, if this part of the body or zone requires processing by the waves of different types mentioned below.

Thus, the device according to the present utility model has the advantage that the person to be treated significantly reduces the time required to process one part of the body of at least one of the aforementioned altered conditions, for which treatment using the types of waves mentioned below is useful, since the altered state is simultaneously processed by at least two, and preferably three different types of waves, in order to improve or eliminate this altered state.

Another advantage of the present utility model is that the treatment of at least one altered state at the same time with two or more different methods can lead to faster achievement of the desired positive aesthetic / medical effect and even to obtain better results than during treatments at different times. This may be due to stricter adherence to the patient’s treatment plan, and in some cases even more timely treatment of the altered state.

In addition, with regard to aesthetic and / or medical centers, the device, according to the present utility model, has the advantage of increasing work efficiency, in particular through the use of center structures, such as workstations (e.g. beds, chairs, etc.) intended for these treatments. The advantage of this is also the ability to serve more people with the same number of hours of the center and the same number of jobs.

Another advantage of this utility model is that in order to comply with hygiene standards, less cleaning and disinfection of the part of the device that comes into contact with the body of the person being processed is required, each time this part of the device is placed on the body of this person. Obviously, the less this part of the device moves from one person to another, or also from one part of the body to another part of the body of the same person, the less cleaning and disinfection operations are required.

Another advantage of this utility model is the offer of an economical and compact multifunctional device.

The set goals and the resulting benefits are achieved using a multifunctional device equipped with a series of applicator elements emitting radio frequency waves, ultrasonic waves and laser waves. These waves affect the involved part of the body, exerting their influence on the various structures of this part.

Thus, the present utility model relates to a multifunctional device consisting of a control unit and at least one applicator element connected to the control unit.

The specified applicator element is fixedly applied to the treated part of the patient's body. Thus, there is no need for constant operator intervention throughout the entire processing process, as is the case with hand-held type devices with a tip.

In addition, equipping the device with several applicator elements, you can process a large area of the body, for example, one or both lower limbs, simultaneously.

According to a utility model, the device also includes at least two wave emitters selected from an emitter of radio frequency waves, an emitter of ultrasonic waves and a laser light emitter. Preferably, the device includes all of the above radiating devices.

In more detail, the applicator element contains at least the following components:

- laser light emitter;

- two patch plates of the radiator of radio frequency waves;

- ultrasonic transducer; and

- printed circuit board.

The emitters of radio frequency waves and ultrasonic waves that feed the respective transducers in the applicator, on the contrary, it is preferable to place in the control unit.

According to a utility model, the above transducers and wave emitters can be activated individually, or at least two or all at the same time.

The device according to the utility model can thus use the synergistic effect of two or more of the above waves, emitted simultaneously and transmitted through the subcutaneous layers of the treated part of the body. Tests conducted by the applicant showed that the device according to the utility model, used with all simultaneously activated actuators and emitters, turned out to be especially effective both for the treatment of predominantly aesthetic diseases, in particular, reduction of cellulite, localization of fat deposits and increase muscle tone, and treating diseases like phlebolymphedema.

In all these cases, people treated with the device according to the utility model showed obvious advantages with a significantly lower number of treatments compared to those required by devices and methods known from the prior art, or in some cases that cannot be obtained even with the above devices and methods characterizing the prior art.

The applicator element has a front side, from which the waves emitted by at least two of these components, selected from emitters and transducers, propagate.

The front side of the applicator element from which the waves emitted by the above components propagate is the side in contact with the surface of the treated part of the patient’s body, and hereinafter this front side is called the contact surface.

In particular, the applicator element is a body that is at least partially hollow, for example in the form of a polyhedron or the like. The faces of the polyhedron can be flat or curved. The above components are located inside the housing.

More precisely, the laser light emitter is functionally connected and, optionally, mounted on a printed circuit board.

In addition, the transducer and ultrasonic emitters, separately from each other, are functionally connected and, optionally, can be mounted on a printed circuit board.

Preferably, the light emitter has a side on which the laser light is emitted, opposite to the side facing the printed circuit board.

On a printed circuit board, two or more emitters are typically located side by side or concentrically with respect to each other.

In a device according to the present utility model, a radiofrequency radio wave device, if any, preferably comprises at least two or more structures, such as plates, heads, and the like, which act as poles, at least one of which is positive . These structures are inserted into the housing of the applicator element, but each of them has a part that is located outside the applicator element and is flush with the contact surface.

In the device according to the present utility model, the ultrasonic wave transducer, if any, is inserted into the housing of the applicator element, but has a part that is located outside the applicator element and is flush with the contact surface.

If present, a laser light emitter, preferably in an amount greater than one, is inserted into the applicator element but recessed with respect to the contact surface.

This contact surface of the applicator element preferably consists, at least in part, of the patch plate. This patch plate is generally flat or, optionally, has a slightly concave outer portion. In addition, the patch plate has at least one through hole or hole above the ultrasonic emitter or two through holes or holes above each of these plates.

As described above, said structures and said converter, if any, are flush with the contact surface, i.e. with the specified slip plate. In fact, when using the applicator element, these structures and the transducer are in direct contact with the surface of the treated part of the patient's body.

According to a first preferred embodiment, if a laser light emitter is present, said patch plate is made of a transparent material or a material that allows the emitted laser light to be transmitted. Thus, in this embodiment, a laser light emitter is disposed between the above printed circuit board and the above patch plate.

In an alternative embodiment, the cap is opaque and has a through hole or hole above the laser light emitter so that light waves propagate beyond the contact surface.

According to an embodiment, the number of through holes provided on the patch plate coincides with the number of the above laser light emitters inside the applicator element. Each hole has a suitable span and is therefore located above each emitter from which laser light is emitted.

However, in accordance with another embodiment, the through holes of the patch plate may also be smaller in number relative to the total number of laser light emitters. In fact, the emission side of two or more emitters can face one hole, for example, if the emitters are located side by side or concentrically with respect to each other.

In the applicator element, the printed circuit board is parallel or substantially parallel to the patch plate. According to a preferred embodiment, the device according to the present utility model includes all three of the above radiating devices, i.e. emitters of radio frequency waves, ultrasonic waves and laser light.

More specifically, in the applicator element according to the present utility model, there are two or more at least one emitters for each type of emitted wave.

In accordance with a specific example of a utility model, the device comprises an ultrasonic wave transducer. As a rule, this is a piezoelectric type converter.

According to this embodiment, the device comprises a radiofrequency energy emitter with two poles, usually spaced apart, in accordance with the prior art. Energy is generated by a special printed circuit board.

If there is a laser light emitter in the device in accordance with the present utility model, then at least one laser light emitter is present in the applicator element, preferably at least ten, preferably more than thirty laser light emitters.

Hereinafter, the device of the laser light emitter is also called a laser LED.

Naturally, the number of emitters or converters of each type can vary as desired depending on the needs.

The location of the emitters and the transducer with respect to the printed circuit board, in particular, on its side facing the contact surface, is optional. This arrangement depends mainly on the number and size of both the emitters and the transducer.

In another embodiment, the applicator element may comprise an additional pair of electrodes. These electrodes are powered by an appropriate emitter / feed device located in the control unit.

According to a utility model, these electrodes can be configured to emit different types of current for various purposes / treatments. For example, these electrodes may emit:

- direct current for iontophoresis treatments or for the delivery of cosmetics or drugs through the epidermal / dermal layers;

- direct current for exfoliating treatments to cleanse the skin;

- alternating current for stimulating muscle treatment;

- alternating current for electroporation processing and / or for deep delivery of cosmetics or medicines;

- alternating microcurrent to stimulate the surface of the epidermis;

- heat for local heat treatment.

These electrodes can be activated individually or in combination with one or more of the above transducers or emitters.

In accordance with an embodiment of the utility model, the housing consists of a frame with side walls, said patch plate and a wall of the opposite patch plate.

According to a preferred embodiment of the utility model, the applicator element is of a static type, i.e. held motionless on the treated part of the body.

The applicator element of the static type also contains holding means. These tools are adapted to hold the applicator on the treated part of the body.

For this purpose, these tools are designed in such a way as to surround the involved part of the body. In this case, such means are, for example, a belt, tape, strip or the like. and made of a suitable material, which may be natural, synthetic or artificial, for example cotton or synthetic fiber fabric.

The upper part of the applicator element is preferably in the form of, or is equipped with, devices for gripping or with at least one through groove or slot. These details allow, in addition to capturing the object, if necessary, to press holding means to the housing of the applicator element.

According to another embodiment, the body is elongated in the main direction of elongation and has a size and shape suitable for gripping and holding with one hand to perform processing on the human body.

A device according to the present utility model may also comprise more than one applicator element. The number of these applicator elements is optional; usually there are at least two or more, for example, from two to ten.

The applicator element and the control unit are connected to each other, preferably by cable.

The control unit consists of an optional housing. This enclosure has a suitable shape and volume to accommodate various components. Typically, the body is in the form of a polyhedron with flat or curved walls, or both.

In particular, in the control unit, taking into account the above devices, electronic components are placed that can convert, modulate or supply mains current to power the components of the applicator element.

In addition, on the outside of the control unit, there is at least one place for accommodating the applicator member when not in use. Depending on the design of the control unit, these sections can have a different shape, for example, a support that extends beyond the control unit body or a niche on the control unit body. The number of such areas, as a rule, depends on the number of applicator elements supplied with the device according to the present utility model.

In addition, the device according to the present utility model is preferably provided with a display screen, which may be a touch type. It is desirable that this screen is located in the control unit, usually in the upper part of the housing. However, according to another embodiment, each applicator element may be equipped with a display screen.

The device in accordance with the present utility model, in particular the control unit, is also equipped with software, in particular application software. The main objective of the application software is to configure the operation of the elements of the device. In fact, the application software contains pre-installed programs or programs in which all or only some of the conditions can be freely selected by the user or the device operator, or, preferably, both types of programs.

In particular, a user or operator can set in said free program, for example, at least one of the following conditions: how many and which devices should work (i.e. exclude the work of at least one device), the sequence of their work (simultaneously or sequentially ), the duration of their work, which waves to emit, the power of the emitted waves, etc.

Although the device in accordance with this utility model is equipped with at least two of the above radiating devices, it is clear that this device can also work with only one or two of the presented devices, which allows you to freely exclude the operation of any other device that is available. For this reason, the device in accordance with this utility model is adapted for use also when performing various treatments in one or in groups of two, depending on needs, and not for inevitably performing all together.

Depending on the options, the applicator element may include at least (a) devices capable of converting, modulating or supplying mains current, or also (b) a central processing unit (CPU) and (c) a display device (optional).

From the foregoing it can be seen that the device in accordance with this utility model is powered by electricity, which allows the above emitters, software and optional display screen, as well as any other electrical or electronic components present in it, to work. In particular, electricity, which is usually supplied from mains current, feeds both the control unit and, directly or indirectly, the applicator element.

The radiating devices that can be used in the device according to the present utility model are essentially the same as in the technical devices of the prior art for the same application, i.e. aesthetic / medical. Therefore, since these devices are well known to those skilled in the art, they will not be described in detail.

The above devices are capable of converting or modulating electricity, the power supply device in accordance with this utility model, into sound waves, radio frequency waves and light waves with wavelengths and power typically used in the above treatments.

The present utility model also relates to an applicator member as described above.

As indicated above, the device in accordance with this utility model may be equipped with devices selected from:

- laser LEDs capable of emitting laser light, as a rule, with a wavelength of from 760 nm to 1200 nm for aesthetic use and from 600 nm to 1200 nm for medical use and a maximum power of 10 mW / cm ² for aesthetic use or up to 500 mW / cm ² for medical use;

- ultrasonic emitters capable of emitting ultrasonic waves for both medical and aesthetic purposes. For medical purposes, the resonant frequency can be low (up to 40 kHz), medium (more than 100 kHz and up to 800 kHz) and high (more than 800 kHz and up to 5 MHz) and the maximum power for each channel is usually up to 10 W / cm ² . For aesthetic applications, the resonant frequency is usually from 800 kHz to 3.5 MHz, and the maximum power for each channel is usually up to 1.5 W / cm ² for frequencies up to 1.2 MHz and up to 3 W / cm ² for frequencies from 1 , 2 MHz to 3.5 MHz.

- radio frequency emitters capable of emitting radio frequency waves with a base frequency of 400 kHz to 1500 kHz and a maximum power of 25 W / cm ² with resistive emitters and up to 50 W / cm ² with capacitive emitters for aesthetic applications; for medical purposes, the power is usually up to 500 W / cm ² .

The maximum exposure time of waves emitted by the device in accordance with this utility model depends on the type of processing and the synergistic combination of power used, usually from a minimum of 20 to a maximum of 60 minutes. In any case, this time corresponds to the time currently recommended for the treatment of these types of waves, taking into account the restrictions established by law for aesthetic treatments.

Preferably, additional pairs of electrodes emit current with variable values of frequency, density or intensity depending on the application, as indicated in the table below:

Ionophoresis

Exfoliating and Cleansing the Skin

Muscle stimulation

Electroporation

Microcurrent to stimulate the epidermis

In the case where the electrodes are used to heat the treated area, the operating temperatures and typical processing times are as follows:

Further characteristics and details of the utility model will be better understood from the description below, presented in the form of a non-limiting example, as well as from the accompanying drawings, in which:

- In FIG. 1 is a perspective view of a device from above in accordance with an embodiment of the present utility model;

- In FIG. 2 is a perspective top view of only the applicator element of the device of FIG. one;

- In FIG. 3 is a detailed and exploded perspective view of the applicator member shown in FIG. 2;

- In FIG. 4 is a bottom perspective view of the applicator member shown in FIG. 2;

- In FIG. 5 is a bottom view of the applicator member shown in FIG. 2;

- In FIG. 6 is a top perspective view of the applicator member shown in FIG. 2 provided with a locking element;

- In FIG. 7a and 7b show top views in perspective of an applicator member from above in accordance with two other embodiments of the present utility model;

FIG. 8a and 8b are respectively a top perspective view and a bottom projection of an applicator element in accordance with another embodiment of the present utility model.

With reference to FIG. 1, the number 1 indicates a multifunctional device in accordance with a preferred embodiment of the present utility model, the number 2 represents a control unit, and the number 3 represents an applicator element.

The device 1 contains a control unit 2 and applicator elements 3, eight in the example in the figure.

As shown in FIG. 3, each applicator element 3 comprises a hollow body consisting of a frame 4, an overlay plate 5, which forms a wall of the body, and a wall 6 located on the opposite side of the overlay plate 5. Thus, the frame 4 supports on one side the wall 6, and on the other hand, the patch plate 5.

The housing of the applicator element comprises at least a printed circuit board 7 and laser LEDs 131, a transducer 121 and plates 111a, 111b, which act as the poles of the emitter / feed device of the radio frequency waves.

In more detail, the printed circuit board 7 is located parallel to the patch plate 5. The emitters and converters are connected, as well as fixed to the printed circuit board 7, more precisely on its side facing the side of the patch plate 5.

In particular, additional components of the applicator element are: one ultrasonic transducer 121, two plates 111a, 111b of a radiating frequency wave emitting device, and forty-eight laser LEDs 131.

Ultrasonic transducer 121 is located in the center of the circuit board 7.

Two plates 111a, 111b are located at a distance from each other and are located on two sides of the transducer 121.

The outer parts of the plates 111a, 111b and the transducer are flush with the patch plate 5.

Forty-four laser LEDs 131 are located around the perimeter of the circuit board 7. Four more laser LEDs 131 are located next to the ultrasound transducer, each at the height of each end of the plates 111a, 111b.

The patch plate 5 is made of opaque material and therefore has a number of holes in the number of ultrasound transducer 121, plates 111a, 111b and laser LEDs.

According to an embodiment that is not shown, the patch plate 5 is made of a transparent or at least partially transparent material above the laser LEDs 131.

Preferably, the shape of the patch plate 5 coincides with the shape of the printed circuit board 7. In the examples in FIG. 3 and 8, the patch plate has a rectangular and round shape, respectively.

Various parts of the device are fixed and connected to each other by known methods and means, such as interlocking installation, screws, etc.

According to the embodiment shown in FIG. 6 and 7a, 7b, the applicator element 3 also has a groove 9 on each long side of the wall 6, on the outside of it. Two grooves allow you to skip a strip of fabric 11 to fix the applicator element to the treated part of the body.

As shown in FIG. 1, the control unit 2 consists of a housing in the form of a polyhedron with a volume suitable for accommodating electronic components intended for supplying emitters and / or a converter and, in particular, for converting and / or modulating the mains current with the aim of generating waves using the above devices possessing the characteristics necessary for processing the human body. Typically, the control unit 2 includes a central processor, which controls all the operations required by special application software. In addition, the control unit 2 includes a display screen 21 and a connection to the mains current, as well as frequency and power generators that power the devices in the applicator element.

Eight supports (not shown in the drawings) come out of the housing to accommodate the applicator element.

In FIG. 7a and 7b show two more variants of the shape of the housing of the applicator element.

In these embodiments, the applicator element may be secured to parts of the human body, for example, using a belt 11 or the like, but may, if necessary, also be caught and held or moved over parts of the human body.

In FIG. 8a and 8b show the applicator element 3 in another possible embodiment.

According to this embodiment, the applicator element is a mobile type, i.e. adapted to be gripped by an operator or user and held or moved on the body of the person to be processed. The applicator element comprises an elongated body of such a shape and size that it can be gripped with one hand. The nozzle 12, in which the emitters and / or the transducer are placed, is fixed at one end of the housing. Optionally, the nozzle 12 also houses a printed circuit board 7.

By way of example in the drawings, the applicator element comprises at least two plates 111a, 111b, an ultrasonic transducer 121, and 10 to 30 laser LEDs 131.

The nozzle 12 is preferably circular in shape. The plates 111a, 111b and the ultrasound transducer 121 are preferably concentrically relative to each other. As shown in FIG. 8a, 8b, one (outer plate) of the two plates 111a, 111b is located around the perimeter of the nozzle 12, while the other (inner plate) is close to the ultrasonic transducer 121.

The laser LEDs are arranged in a circular line between the outer and inner plates in the nozzle 12. The contact surface 8 of the nozzle is preferably provided with a patch plate (not shown in the figure) that covers the LEDs 131. It is preferred that the patch plate also has at least one central opening for distribution waves from radio frequency and ultrasonic devices.

The utility model has been described solely for illustrative and non-limiting purposes, in accordance with some preferred embodiments. Thus, a person skilled in the art can make changes or modifications that are considered to be within the protection of this utility model.

Claims (26)

1. A multifunctional device (1) for aesthetic / medical treatment of body parts, containing  control unit (2) and  at least one applicator element (3) connected to the control unit (2) by cable, for fixing on parts of the human body during processing, in which the applicator element (3) contains at least  ultrasound transducer (121),  two plates (111a, 111b) of an emitter of radio frequency waves,  laser light emitter (131), the applicator element (3) is equipped with a printed circuit board (7) and has a contact surface (8) with which the waves emitted by these two plates (111a, 111b), an ultrasonic transducer (121) and a laser light emitter (131) propagate wherein the control unit (2) contains electronic components capable of converting, modulating or supplying a mains current for supplying an emitter of radio frequency waves, a laser light emitter (131) and an ultrasonic transducer (121) of the applicator element (3). 2. A multifunctional device (1) according to claim 1, wherein the contact surface (8) comprises a patch plate (5) having  a through hole or hole above the ultrasonic transducer (121),  two through holes or holes, each above said plates (111a, 111b),  a through hole, or hole, or patch plate, made of a material transparent to laser light, above the laser light emitter (131). 3. The multifunctional device (1) according to claim 2, in which the printed circuit board (7) is parallel to the patch plate (5), the laser light emitter (131), the ultrasonic transducer (121) and two plates (111a, 111b, 121) are connected to the printed circuit board (7) and attached to it on the side facing the patch plate (5). 4. The multifunctional device (1) according to claim 3, in which the ultrasonic transducer (121) is located in the center of the printed circuit board (7), two plates (111a, 111b) are located at a distance from each other and on both sides of the ultrasonic transducer (121 ) 5. A multifunctional device (1) according to claim 3, in which the applicator element (3) contains several laser light emitters (131), while laser light emitters (131) are located around the perimeter of the printed circuit board (7). 6. Multifunctional device (1) according to one of paragraphs. 1-5, containing from ten to sixty laser light emitters (131), while the laser light emitters (131) are laser LEDs. 7. Multifunctional device (1) according to one of paragraphs. 1-6, in which the housing of the applicator element contains holding means, or at least one through groove, or a slot (9) located on the top of this applicator element (3). 8. Multifunctional device (1) according to one of paragraphs. 1-7, in which the applicator element (3) contains holding means adapted to hold the applicator (3) on the treated body part, these means have a shape that allows you to surround the involved specified body part. 9. The multifunctional device (1) according to one of paragraphs. 1-8, in which the applicator element (3) contains an additional pair of electrodes connected to the control unit (2). 10. The multifunctional device (1) according to one of paragraphs. 1-9, in which the control unit (2) contains application software containing predefined work programs and, optionally, a display screen (21). 11. The multifunctional device (1) according to one of paragraphs. 1-10, containing eight applicator elements (3). 12. The multifunction device (1) according to one of paragraphs. 1-11, in which the laser light emitter (131) is configured to emit laser light with a wavelength of from 760 nm to 1200 nm for aesthetic use, or from 600 nm to 1200 nm for medical use and a maximum energy of 10 mW / cm ² for aesthetic use, or up to 500 mW / cm ² for medical use. 13. A multifunctional device (1) according to one of paragraphs. 1-12, in which the ultrasonic transducer (121) is configured to emit waves with a frequency of from 800 kHz to 1.2 MHz and a maximum energy of 1.5 W / cm ² or from 1.2 MHz to 3.5 MHz and a maximum energy up to 3 W / cm ² for aesthetic use. 14. The multifunctional device (1) according to one of paragraphs. 1-13, in which the ultrasonic transducer (121) is configured to emit waves with a frequency of from 40 kHz to 5 MHz and a maximum energy of 10 W / cm ² for medical use. 15. The multifunction device (1) according to one of paragraphs. 1-14, in which the radiofrequency wave emitter is configured to emit waves with a base frequency of 400 kHz to 1500 kHz and a maximum power of up to 50 W / cm ² for aesthetic use or up to 500 mW / cm ² for medical use.

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