KR101117276B1 - Apparatus for relaxing wrinkles using ultra sonic - Google Patents

Abstract

The present invention relates to an apparatus for alleviating wrinkles using ultrasonic waves, comprising: a probe including a planar probe formed of a plurality of piezoelectric element arrays; A pulse generator for generating a clustered pulse in the planar transducer; An RF receiver configured to receive and amplify the signal fed back from the piezoelectric element; And receiving a feedback RF signal through the RF receiver by applying a cluster-type pulse for thickness measurement to the piezoelectric element through the pulse generator, calculating a thickness of the subcutaneous tissue from the received RF signal, A controller configured to determine a frequency, power, and a delay time to be applied, so that the wrinkle-releasing cluster type pulses are applied to each of the piezoelectric elements through the pulse generator; Characterized in that it comprises a.

Ultrasound, transducer, wrinkle relief, piezoelectric element, cluster pulse

Description

Wrinkle relief device using ultrasonic wave {APPARATUS FOR RELAXING WRINKLES USING ULTRA SONIC}

The present invention relates to an apparatus for alleviating wrinkles using ultrasonic waves, and more particularly, to closely measure the thickness of a subcutaneous tissue in a region to be treated, and to alleviate wrinkles using ultrasonic waves that can dynamically change the focus of a procedure in a corresponding treatment region. An apparatus and a method thereof are provided.

As is well known, the subcutaneous tissue is composed of epidermis, dermis, subcutaneous fat, superficial myofascial tendon (SMAS), muscle. Wrinkles are mainly related to the dermis (elastin, collagen) and the superficial myofibion.

The dermis must be heated properly to contract collagen and stimulate fibroblasts to synthesize new collagen, hyaluronic acid, elastin, etc., thereby increasing the elasticity of the skin and treating various wrinkles. In addition, it is known that the thermal damage to the superficial myofascial tendon constricts the tissue connecting the skin and the muscles, thereby improving the fine wrinkles of the skin.

However, in the past, heating the dermis, using a treatment device such as a laser or radiofrequency therapy device, but did not deliver energy directly to the dermis.Because both devices deliver energy to the dermis through the epidermis, more energy is delivered to the epidermis than the dermis. They had to endure side effects such as red spots and burns on the epidermis. Therefore, when burns or spots appear, it is inevitable to lengthen the recovery period of the tissue.

In order to overcome this problem, in the present invention, the delay time for the sound waves such as the focus of the magnifying glass is dynamically controlled to minimize this.

On the other hand, in recent years, a procedure for thermally damaging the subcutaneous tissue through a device for applying strong ultrasonic waves in a direction perpendicular to the skin surface (hereinafter referred to as an "ultrasound device") has been performed. Such a configuration of generating an ultrasonic wave in the ultrasonic device is referred to as a 'probe', and the transducer is selectively varied only in the depth side of the center position as illustrated in FIG. 1A.

That is, whenever a procedure is performed to select a shallow treatment region or a deep treatment region at the same time, it is inconvenient to select a shallow treatment region or a deep treatment region and treat them with different transducers. In addition, the existing technology does not deliver energy to the dermis and superficial fascia with a single probe, there is an inconvenience that must be used separately for the dermis and superficial fascia.

In order to overcome such problems, the present invention maximizes time and effects by dynamically controlling the sound delay time so as to form two or more surgical focuses at the same time.

In addition, the transducer of the ultrasonic apparatus varies only the depth side of a predetermined position as shown in FIG. 1A, and since only the procedure focuses, it is inconvenient to move the transducer when it is necessary to operate another area under the transducer. .

In order to overcome this problem, the present invention maximizes time and effects by dynamically controlling the sonic delay time so that all the areas under the transducer can be formed without the movement of the transducer.

In addition, power must be added or subtracted according to depth and position to deliver the same energy in all the focusing procedures.

In order to overcome such a problem, the present invention maximizes the effect by adding a variable high voltage supply means so that the energy delivered to the focus of the procedure is the same depending on the depth and position.

In addition, due to the nature of the frequency, the frequency is high, but the energy is large, but the permeability is small. However, the conventional method selects only one type of frequency during the procedure, so one of the transmission and energy has to be selected.

In order to overcome the above problems, the present invention maximizes the anti-wrinkle effect by introducing the concept of mopulse and japulse to optimize the penetration and energy. Morpulse used a smaller frequency and Zapulse used a higher frequency.

Further, in order to prevent the same area from being re-treated, an additional safety device such as a camera for imaging the treatment area and predetermined display means (eg, a target) provided in the probe is required. Moreover, strong ultrasound applied to the skin surface may cause burns or degeneration of skin tissue.

The present invention has been made in view of the above problems, and a first object of the present invention is based on a careful measurement of the thickness of the subcutaneous tissue in the treatment area, and is based on m × n of planar probes made of piezoelectric elements. Each delay time is generated for all the corresponding piezoelectric elements to form a precise procedure focusing to focus on the three-dimensional depth and position, minimizing the side effects of the procedure and moving the transducer as many times as before. To get rid of the pain.

In addition, a second object of the present invention is to apply a clustered pulse to the piezoelectric element, so that an appropriate compromise can be made between the energy transmission range and the transmittance.

In addition, the third object of the present invention is a planar type consisting of a piezoelectric element array by adding a variable high voltage supply means for supplying a variable high voltage according to the depth and position of the focal point based on a close measurement of the thickness of the subcutaneous tissue in the treatment area. It is to equalize the energy at all three-dimensional desired depth and the focus made at the desired position using the transducer so that the same energy can be delivered to all the focusing sites.

In addition, a fourth object of the present invention is to dynamically generate the delay time for each piezoelectric element corresponding to m x n of the planar transducers in the piezoelectric element array so as to achieve two or more procedures focusing on the dermis and the surface layer. The tendon tendon (i.e., shallow and deep surgical areas) is capable of delivering energy simultaneously.

The present invention for achieving the above technical problem, the probe including a planar probe made of a plurality of piezoelectric element array; A pulse generator for generating a clustered pulse in the planar transducer; An RF receiver configured to receive and amplify the signal fed back from the piezoelectric element; And receiving a feedback RF signal through the RF receiver by applying a cluster-type pulse for thickness measurement to the piezoelectric element through the pulse generator, calculating a thickness of the subcutaneous tissue from the received RF signal, A controller configured to determine a frequency, power, and a delay time to be applied, so that the wrinkle-releasing cluster type pulses are applied to each of the piezoelectric elements through the pulse generator; Characterized in that it comprises a.

According to the present invention as described above, it is possible to closely measure the thickness of the subcutaneous tissue in the treatment area, and based on this delay time for each piezoelectric element corresponding to m × n of the planar probe consisting of a piezoelectric element array By creating a dynamic and precise procedure focusing to achieve the focus on the three-dimensional depth and position can minimize the side effects of the procedure, it has the effect of eliminating the need to move the transducer several times.

In addition, according to the present invention, by applying a clustered pulse to the piezoelectric element it is possible to adjust the characteristics between the energy transfer range and the transmittance. That is, such a clustered pulse is amplified based on a continuous pattern (sign pattern, triangular pattern), thereby minimizing the impact or stimulation of the subcutaneous tissue to the subject.

And according to the present invention, based on a close measurement of the thickness of the subcutaneous tissue in the treatment area, using a planar probe consisting of a piezoelectric element array by adding a variable high voltage supply means for supplying a variable high voltage according to the depth and position of the focus Three-dimensional desired depth and the energy at the focal point made at the desired position is the same to deliver the same energy to all the treatment site to maximize the wrinkle reduction efficiency.

Specific features and advantages of the present invention will become more apparent from the following detailed description based on the accompanying drawings. In the meantime, when it is determined that the detailed description of the known functions and configurations related to the present invention may unnecessarily obscure the subject matter of the present invention, it should be noted that the detailed description is omitted.

Hereinafter, with reference to the accompanying drawings will be described in detail the present invention.

The wrinkle relief apparatus and method using ultrasonic waves according to the present invention will be described with reference to FIGS. 2 to 17.

2 is an overall configuration diagram conceptually showing the wrinkles alleviating apparatus 100 using ultrasonic waves according to the present invention, the probe 110, the pulse generator 120, the RF receiver 130, the controller as shown 140 and the processing region display unit 150.

The probe unit 110 includes a planar probe 112 formed of a plurality of piezoelectric element arrays, a temperature sensor 114 for measuring a temperature of the planar probe 112, and a position sensor for detecting the position of the planar probe 112. 116.

Specifically, the planar transducer 112 converts and outputs a group pulse (for thickness measurement and wrinkle reduction) applied from the pulse generator 110 described below into mechanical vibration, that is, ultrasonic waves.

As shown in FIG. 3, the rectangular or square piezoelectric elements 20 form a planar array of m × n. In this case, when the plurality of piezoelectric elements 20 vibrate, a number of waves are generated, and these waves have reinforcement interference in the same wave height (mountain peak) or the same waver (valley valley), on the contrary, wave wave and wave wave. When low prices meet, destructive interference occurs, and finally a waveform having a focus (procedure focus) is formed (see FIG. 4).

When a pulse having an appropriate delay time is applied to each piezoelectric element 20, various treatment focuses (which may also be set differently in depth) may be formed as shown in FIGS. 5A to 5F.

In order to form a procedure focus having various positions and depths, the control unit 140 calculates the thickness of the subcutaneous tissue, and then determines the frequency, power, and delay time according to the calculated results to pulse each piezoelectric element 20. (Below 'pulse relaxation cluster type pulse') is controlled to apply. A detailed control aspect will be described below, and the basic principle of controlling the focus of the procedure will be described with reference to FIG. 6.

Figure 6 is an exemplary view showing the principle of focusing procedure according to the present invention, Figure 7a to Figure 7c is an exemplary view showing a treatment area according to the present invention.

만큼, 압전소자 2는

만큼, 압전소자 3은

만큼, 그리고 압전소자 4는

만큼 이격되어 있다. 이때의 단위는 mm 이다. In FIG. 6, four piezoelectric elements 1, 2, 3, and 4 will be simplified for convenience of description. Referring to the drawing, 1 of the piezoelectric element is about arbitrary point X.

As long as the piezoelectric element 2

As long as the piezoelectric element 3

As long as the piezoelectric element 4

Spaced apart. The unit at this time is mm.

(1,540,000 mm/s)이므로, 위 압전소자들의 이격거리는 다음의 [수식 1] 과 같이 시간으로 환산될 수 있다. Here, the average speed of ultrasound in the body

(1,540,000 mm / s), the separation distance of the above piezoelectric elements may be converted into time as shown in Equation 1 below.

[Equation 1]

압전소자 2 :

Piezoelectric element 1:

Piezoelectric element 2:

압전소자 4 :

Piezoelectric element 3:

Piezoelectric element 4:

If the separation distance of the piezoelectric elements to a random point (X) as described above in a large order, it will be a piezoelectric element 4, piezoelectric element 3, piezoelectric element 2, piezoelectric element 1. Therefore, the piezoelectric element 4 vibrates first, and the piezoelectric elements 3, 2, and 1 vibrate sequentially with a delay time as shown in Equation 2 below. Finally, the random point X is controlled by the procedure focusing. do.

[Equation 2]

Delay time of piezoelectric element 3:

Delay time of piezoelectric element 2:

Delay time of piezoelectric element 1:

The temperature sensor 114 measures the temperature of the planar transducer 112 by ultrasonic generation. The controller 140 cuts off the power supplied to the pulse generator 120 through the variable high voltage supply means 124c when the temperature measured by the temperature sensor 114 is equal to or greater than a preset temperature, thereby allowing the planar probe 112 to be turned off. Stop the operation. This is to prevent the occurrence of the image of the subject by checking the heat generated by the vibration of the piezoelectric element 20.

The position sensor 116 is a sensor based on a gyroscope principle, and performs the function of measuring the position of the planar transducer 112 as described above. This is mainly used to prevent re-treatment for the same area. That is, the control unit 140 identifies the current treatment region, the treatment region, and the region to be treated by the position sensor 116, thereby preventing re-treatment of the previously treated region. The position of the planar probe 112 identified as described above is output to the processing region display unit 150 together with an image of the processing region.

On the other hand, for each piezoelectric element corresponding to m × n of the planar transducer 112 made of a piezoelectric element array, each delay time is dynamically generated to achieve two simultaneous treatment focuses as shown in FIG. Energy can be transferred simultaneously with the superficial fascia (ie, shallow and deep surgical areas) (see FIG. 7C).

In addition, the pulse generator 120 is composed of a pulse generator 122, a pulse amplifier 124 and a transmission matcher 126, as shown in FIG. 2, clustered pulses (for thickness measurement, wrinkle relief) Create

Specifically, the pulse generator 122 generates two clustered pulses according to the information on the frequency, power, and delay time (hereinafter, referred to as 'pulse information') received from the controller 140. 122 is an interface means 122a for receiving pulse information from the controller 140, a signal delay means 122b for generating a delay time, and pulse generation means 122c for generating a pulse in accordance with the delayed time. ).

At this time, the signal delay unit 122b dynamically generates the respective delay times for the piezoelectric elements corresponding to m × n of the planar transducer 112 to be focused at a three-dimensional depth and position as shown in FIG. 5D. . That is, the signal delay unit 122b may generate delay times for each of the piezoelectric elements of the planar transducer 112 to achieve at least one procedure focus at the same time. That is, a delay time is generated to achieve one or a plurality of treatment focuses.

Such a clustered pulse may be understood as a child pulse of a predetermined frequency included in a mother pulse, as illustrated in FIG. 9.

As is well known, the frequency and the transmittance (the transmittance of the ultrasonic wave having the frequency) have an inverse relationship. The lower the frequency, the higher the transmittance to the object and the wider the range of energy transfer. On the other hand, the higher the frequency, the lower the transmittance of the object (medium) and the narrower the transmission range. This relationship between frequency and transmittance has been a technical contradiction in conventional wrinkle relief-related ultrasound devices.

However, the clustered pulse of the present invention uses two frequencies (the frequency of the parent pulse and the frequency of the child pulse), so that an appropriate compromise can be made between the energy transmission range and the transmittance. In this embodiment, the frequency of each of the magnetic pulse and the mother pulse will be set to 4MHz ~ 8MHz as illustrated in the figure, but the present invention is not limited thereto.

In order to amplify the two clustered pulses, the pulse amplifier 124 has a level converting means 124a for raising the level of the pulse as shown in FIG. 10 and a single cluster using the two clustered pulses. A pulse amplifying means 124b for amplifying a pulse type and a variable high voltage supply for supplying a variable high voltage to the pulse amplifying means 124b such that the energy at the focus made at the desired position and the three-dimensional depth is the same as shown in FIG. 5D. Means 124c. That is, the variable high voltage supply means 124c can supply the energy supplied to the treatment region constantly regardless of the treatment position.

The pulse amplifying means 124b amplifies the grouped pulses by the voltage supplied from the variable high voltage supply means 124c, and the amplified grouped pulses pass through the transmission matching unit 126 to the corresponding piezoelectric elements of the transducer 112. Is applied.

According to a characteristic aspect of the present invention, the pulse amplifying means 124b amplifies (voltage amplifies) the clustered pulses in a sinusoid pattern or in a triangular pattern. Before explaining such a feature, an amplification aspect of a conventional ultrasonic apparatus will be described with reference to FIG. 11A. As shown in the figure, the voltage levels of the sections [A] and [B] are discontinuous. In other words, it means that the voltage level change at the time when the section [A] is switched to the section [B] is relatively large. Such discontinuous change in voltage level may cause shock or irritation to the subcutaneous tissue of the subject.

On the other hand, the pulse amplifying means 124b of the present invention amplifies the voltage level change between the clustered pulses to form a continuous pattern, that is, a sine pattern or a triangular pattern, as illustrated in FIGS. 11B and 11C. As a result, since the voltage level transition between neighboring clustered pulses is continuous, the impact (stimulation) of the subcutaneous tissue is minimized unlike in the case of FIG. 11A. For reference, in order to further minimize the impact on the subcutaneous tissue, the control unit 140 is configured to increase the voltage level in accordance with the above-described pattern and to reduce it later in the initial stage when the group 112 pulse for relaxation of wrinkles is applied to the transducer 112. And the variable high voltage supply means 124c.

The transmit matcher 126 blocks the signal entering (or backflowing) from the transducer 112. To this end, the transmission matcher 126 constitutes a diode 126a forward connected between the pulse amplifier 124 and the transducer 112 and a diode 126b reversely connected as shown in FIG. 12.

Since the pulse output from the pulse amplifying means 124b has a voltage sufficiently exceeding 0.7V (Vd of a general diode), the pulse conducts smoothly in the forward direction. On the other hand, since the signal flowing from the transducer 112 is less than 0.7V as the RF signal, it is blocked by the reverse connection diode 126b. For reference, the pulse generator 120 may be provided by the number of piezoelectric elements constituting the transducer 112 or may be selected to provide a smaller number. This means that a clustered pulse can be applied selectively or simultaneously to each of the piezoelectric elements.

In addition, when the RF receiver 130 for measuring the thickness of the subcutaneous tissue is examined, the RF receiver 130 performs a function of amplifying an RF signal fed back from the piezoelectric element 20 of the planar probe 112. Here, the RF signal is a signal that is fed back from inside the skin with respect to the clustered pulse (for thickness measurement) applied through the pulse generator 120 (for thickness measurement has a normalized frequency and delay time).

Specifically, the RF receiver 130 includes a reception matcher 132, an RF amplifier 134, and an ADC 136 as shown in FIG. 2.

Like the pulse generator 120, the RF receiver 130 may be provided as many or less than the number of piezoelectric elements 20 constituting the transducer 112.

As shown in FIG. 13, the reception matcher 132 prevents the inflow of the clustered pulses and passes only the RF signal, and the low pass which passes only the low frequency components by filtering the high frequency components mixed in the RF signals. Means 132b.

The RF amplifier 134, as shown in Figure 14 for the function of amplifying the RF signal, a low noise amplification means (134a) for amplifying the weak RF signal, when the reception time of the RF signal is short, the amplification rate is reduced, the reception time is If long, the voltage control amplification means (134b) for amplifying in a manner to increase the amplification rate. The reason for the difference in the amplification rate is that the signal received at a close distance with respect to the piezoelectric element of the transducer 112 is relatively large, while the signal at a long distance is weak. At this time, it is obvious that the user can set the amplification ratio setting method according to the RF signal reception time, that is, the long and short reference of the RF signal reception time in advance by setting the RF amplifier, and the amplification ratio setting method can be different. .

In addition, the ADC 136 is configured as a conventional A / D converter, converts the RF signal (analog signal) amplified by the RF amplifier 134 into a digital signal and transmits the digital signal to the controller 140.

On the other hand, the control unit 140 is to perform the overall control for the wrinkle relief device 100, the specific function through the overall flow chart for the wrinkle relief method as shown in Figure 15 as follows.

First, the controller 140 applies a cluster-type pulse for thickness measurement to the corresponding piezoelectric element of the planar transducer 112 through the pulse generator 120 (S110). Clustered pulses for thickness measurement are pulses having a frequency and delay time that have been shaped as described above, and have a minimum power suitable for measurement.

Subsequently, the controller 140 receives the RF signal through the RF receiver 130 (S120), and calculates a time at a time point when the threshold is exceeded from the received RF signal (S130).

Referring to FIG. 16, a sound wave according to a cluster-type pulse for thickness measurement is applied in the depth direction of the skin from a corresponding piezoelectric element of the planar transducer 112, and an echo signal according to the applied sound wave, that is, an RF signal, is applied to the piezoelectric element. Flows into. The echoed RF signal contains information about the material structure inside the skin. In particular, the boundary of different materials (eg, subcutaneous tissue boundary) forms a waveform exceeding a certain threshold as illustrated in FIG. 15. Thus, it is possible to calculate the time of the point exceeding the threshold.

Next, the control unit 140 calculates the thickness of the subcutaneous tissue by multiplying the ultrasonic speed by the calculated time (S140). The calculated thickness serves as a basis for the aforementioned procedure focus.

Afterwards, the control unit 140 determines the frequency, power, and delay time of the group pulse for relaxation of wrinkles to be applied to each of the piezoelectric elements according to the calculated subcutaneous tissue thickness (procedure focal point) (S150). The pulse generator 120 applies the wrinkles grouping pulses to each of the piezoelectric elements (S160).

The processes S110 to S160 are repeated for each of the piezoelectric elements constituting the planar transducer 112. The characteristics according to the repetition can be largely classified as follows.

1. If the planar transducer 112 constitutes m × n piezoelectric elements, it means that the thickness of the subcutaneous tissue (procedure focus) at the m × n location is calculated within the treatment area. This is to more accurately and accurately grasp the thickness of the subcutaneous tissue included in the treatment area.

2. Since m × n procedure focuses are performed, dynamic procedure focusing is possible without shifting the position of the planar transducer 112.

For reference, the above-described process may be variously modified. For example, processes S110 to S140 may be performed first as many as the number of piezoelectric elements, and processes S150 and S160 may be repeatedly performed based on the calculated thicknesses (focus on the procedure).

However, the technical features of the present invention, in other words, it is unchanged to apply a group-like pulse for wrinkle relief to each of the piezoelectric elements so as to measure the thickness of the subcutaneous tissue and form a procedure focus.

Meanwhile, as shown in FIG. 17, the controller 140 measures the temperature of the planar transducer 112 through the temperature sensor 114 during the process of steps S110 to S160 (S170), and exceeds a preset temperature. If it is determined whether or not (S180), and as a result of the determination in step S180, when the measured temperature is more than the predetermined temperature, by cutting off the power supplied to the pulse generator 120 through the variable high voltage supply means (124c), The operation of the planar transducer 112 may be stopped (S190), and as a result of the determination of step S180, when the temperature is lower than the preset temperature, the method may further include performing a procedure to process S170.

While the present invention has been particularly shown and described with reference to preferred embodiments thereof, it will be understood by those skilled in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims. It will be appreciated by those skilled in the art that numerous changes and modifications may be made without departing from the invention. Accordingly, all such suitable changes and modifications and equivalents should be considered to be within the scope of the present invention.

Figure 1a is an example of the focus of the probe and the procedure of the conventional ultrasonic device.

Figure 2 is an overall configuration diagram conceptually showing a wrinkle relief device using ultrasonic waves in accordance with the present invention.

3 is an exemplary view showing a planar transducer in which a plurality of piezoelectric elements are arranged according to the present invention.

Figure 4 is an example of the waveform and the procedure focus formed through the planar transducer according to the present invention.

5a to 5f is an exemplary view of the focus of the procedure formed through the planar transducer according to the present invention.

Figure 6 is an exemplary view showing the principle of formation of the procedure focus according to the present invention.

7a to 7c is an exemplary view showing a treatment area according to the present invention.

8 is a detailed block diagram of a pulse generator according to the present invention;

9 is an exemplary view showing a clustered pulse according to the present invention.

10 is a detailed block diagram of a pulse amplifier according to the present invention.

11A is an exemplary view showing an amplification pattern of a conventional ultrasound apparatus.

11B and 11C are exemplary views showing an amplification pattern for a pulse amplifier according to the present invention.

12 is a detailed block diagram of a transmission matcher according to the present invention.

13 is a detailed configuration diagram of a reception matcher according to the present invention.

14 is a detailed block diagram of an RF amplifier according to the present invention.

15 is an overall flowchart of a wrinkle relief method using ultrasonic waves through a control unit according to the present invention.

Figure 16 is an example showing the subcutaneous tissue thickness measurement according to the present invention.

Figure 17 is a flow chart for controlling the operation by measuring the temperature of the planar transducer according to the present invention.

** Description of symbols for the main parts of the drawing **

100: ultrasonic wave wrinkle relief device

110: probe part 120: pulse generator

130: RF receiver 140: control unit

150: processing area display unit 112: planar probe

114: temperature sensor 116: position sensor

122: pulse generator 124: pulse amplifier

126: transmission matcher 132: reception matcher

134: RF amplifier 136: ADC

124a: level converting means 124b: pulse amplifying means

124c: variable high voltage supply means 134a: low noise amplification means

134b: voltage controlled amplification means

Claims (16)

Wrinkle relief device using ultrasonic waves, A probe unit 110 including a planar probe 112 formed of a plurality of piezoelectric element arrays; A pulse generator 120 generating a clustered pulse in the planar transducer 112; An RF receiver 130 for receiving and amplifying the feedback signal from the piezoelectric element; And After receiving the RF signal fed back by applying the cluster-type pulse for thickness measurement to the piezoelectric element through the pulse generator 120, and calculates the thickness of the subcutaneous tissue from the received RF signal A control unit 140 for determining a frequency, power, and a delay time to be applied to each of the piezoelectric elements, and controlling the wrinkle relaxation grouping pulses to be applied to each of the piezoelectric elements through the pulse generator 120; , ≪ / RTI & The pulse generator 120, A pulse generator 122 generating two clustered pulses according to information on frequency, power, and delay time (hereinafter, referred to as 'pulse information') received from the controller 140; A pulse amplifier 124 that amplifies a single clustered pulse using the two clustered pulses; And A transmission matcher 126 for outputting the amplified clustered pulses to the piezoelectric element and blocking a signal flowing back from the piezoelectric element; Including; The pulse amplifier 124, Level converting means (124a) for raising a level of pulses to amplify the two clustered pulses; Pulse amplifying means (124b) for amplifying a single clustered pulse using the two clustered pulses; And Variable high voltage supply means (124c) for varying a high voltage with the pulse amplifying means (124b) to constantly supply energy supplied to the procedure region regardless of the position of the procedure focus; Wrinkle relief device using ultrasonic waves comprising a. delete The method of claim 1, The pulse generator 122, Interface means (122a) receiving the pulse information from the control unit (140); Signal delay means (122b) for generating a delay time to achieve one or a plurality of treatment focuses for each piezoelectric element of the planar transducer (112); And Pulse generation means 122c for generating a pulse to meet the delayed time; Wrinkle relief device using ultrasonic waves comprising a. The method of claim 1, The clustered pulse is characterized in that the child pulse contained in the mother pulse, the mother pulse and the child pulse is wrinkle reduction apparatus using ultrasonic waves, characterized in that each having a frequency of 4MHz to 8MHZ. delete The method of claim 1, The pulse amplification means 124b, And amplifying the clustered pulses to form a sinusoid pattern or a triangle pattern. The method of claim 1, The transmission matcher 126, A diode 126a forward connected between the pulse amplifier 124 and the planar transducer 112; And diode 126b reversely connected; Wrinkle relief device using ultrasonic waves comprising a. The method of claim 1, The RF receiver 130, A reception matcher 132 for blocking the clustered pulses flowing from the piezoelectric element and receiving an RF signal; An RF amplifier 134 for amplifying the received RF signal by setting an amplification factor differently according to a reception time; And An ADC (136) for converting the amplified RF signal into a digital signal; Wrinkle relief device using ultrasonic waves comprising a. The method of claim 8, The RF amplifier 134, Low noise amplifying means 134a for amplifying the RF signal; And Voltage controlled amplifying means 134b for reducing the amplification factor when the reception time of the RF signal is short and increasing the amplification factor when the reception time is long; Wrinkle relief device using ultrasonic waves comprising a. The method of claim 1, The control unit 140, And calculating the thickness of the subcutaneous tissue by multiplying the calculated time by an ultrasonic speed after calculating a time at a point exceeding a specific threshold from the RF signal. The method of claim 1, The probe unit 110, A temperature sensor 114 for measuring a temperature due to ultrasonic generation; Include more, The control unit 140 measures the temperature of the planar transducer 112 through the temperature sensor 114, the wrinkle relief device using ultrasonic waves, characterized in that to stop the operation when the predetermined temperature or more. The method of claim 1, The probe unit 110, Position sensor 116 based on gyroscope principle; Include more, Wrinkle relief device using ultrasonic waves, characterized in that the control unit 140 detects the position of the planar transducer 112 through the position sensor (116). The method of claim 1, Wrinkle relief device using the ultrasonic wave, A processing region display unit 150 for outputting an image of the position and the processing region of the planar probe 112; Wrinkle relief using ultrasonic waves, characterized in that it further comprises. delete delete delete

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