WO2018190683A1

WO2018190683A1 - Composite treatment cartridge and composite treatment device including same

Info

Publication number: WO2018190683A1
Application number: PCT/KR2018/004355
Authority: WO
Inventors: 하태호
Original assignee: 주식회사 씨엠랩
Priority date: 2017-04-13
Filing date: 2018-04-13
Publication date: 2018-10-18

Abstract

The present invention relates to a composite treatment cartridge and a composite treatment device including same. The composite treatment cartridge according to the present invention includes: a housing; a medium accommodation part provided in the housing and providing an accommodation space in which a medium is accommodated; an ultrasonic piezoelectric element provided inside the medium accommodation part to emit ultrasonic waves through the medium in a preset direction; and a laser irradiation part provided inside the housing to emit laser light in the same direction as the ultrasonic waves.

Description

Complex therapy cartridge and complex therapy device

The present invention relates to a composite treatment cartridge and a composite treatment apparatus having the same, which can perform a complex treatment on the skin of a subject using a laser and ultrasonic waves, and can move the ultrasonic piezoelectric element emitting the ultrasonic waves. It relates to a combination treatment cartridge and a combination treatment device having such a combination treatment cartridge.

Recently, with increasing interest in people's health, skin, etc., various medical devices are being developed.

Among them, medical devices using ultrasonic waves are widely used for cancer treatment and skin beauty by concentrating ultrasonic energy from piezoelectric elements at one point and outputting high intensity energy to a desired portion.

In addition, medical devices using lasers are used in various fields such as skin, surgery, and the like, when irradiating a laser, laser light energy may cause damage to the skin and mucous membranes, cell damage, incision, and photolysis. Can be.

However, conventionally developed medical devices using ultrasound or medical devices using lasers are composed of expensive equipment, and development of medical devices that can use ultrasound and laser at the same time is sluggish.

In order to solve the above problems, an object of the present invention is to provide a treatment apparatus that can use a laser and ultrasound at the same time.

Furthermore, an object of the present invention is to provide a treatment apparatus capable of moving an ultrasonic piezoelectric element that emits the ultrasonic waves when the ultrasonic waves and the laser are moved.

In particular, an object of the present invention is to provide a therapeutic apparatus capable of moving the ultrasonic piezoelectric element along the skin of the subject to the X-axis or the Y-axis, as well as the Z-axis movement to change the distance to the skin of the subject.

An object of the present invention as described above is a housing, a medium receiving portion provided in the housing to provide a receiving space for receiving the medium, the ultrasonic piezoelectric is provided in the inside of the medium receiving portion to emit ultrasonic waves in a predetermined direction through the medium It is achieved by a composite therapy cartridge, characterized in that provided with an inner portion of the housing and the laser irradiation unit for irradiating a laser in the same direction as the ultrasonic wave.

Here, the laser irradiated from the laser irradiation unit is irradiated toward the object through the ultrasonic piezoelectric element. In addition, the laser irradiated from the laser irradiation unit is irradiated toward the object through the medium receiving unit without encountering the medium.

On the other hand, the inside of the medium receiving portion is further provided with a laser irradiation tube for forming an optical path through which the laser penetrates. In this case, the laser irradiation tube is formed across the receiving space from one end to the other end of the medium receiving portion.

On the other hand, the ultrasonic piezoelectric element is mounted to the laser irradiation tube inside the medium receiving portion.

Specifically, the ultrasonic piezoelectric element is mounted on the outer surface of the laser irradiation tube. In this case, an opening is provided in the ultrasonic piezoelectric element, and the laser irradiation tube is inserted into the opening to fix the ultrasonic piezoelectric element.

On the other hand, it further comprises an alignment unit for aligning the center of the laser irradiation section and the laser irradiation tube. The alignment portion is formed to extend in a predetermined length on one side of the medium receiving portion, the laser irradiation portion is connected to the end of the alignment portion. At this time, the alignment unit is in communication with the laser irradiation tube.

On the other hand, the object of the present invention as described above is achieved by a composite therapy device having a handpiece to which the above-described composite therapy cartridge is detachably connected, and a body connected to the handpiece.

In this case, the main body has a power supply unit for supplying power, an ultrasonic controller for transmitting a signal for controlling the ultrasonic waves generated by the ultrasonic piezoelectric element, a laser generator for generating a laser transmitted to the laser irradiation unit, the power supply unit, the ultrasonic controller And a control unit for controlling the driving of the laser generator.

In addition, the object of the present invention as described above is provided in the housing, a laser irradiation unit for irradiating a laser in a predetermined direction provided inside the housing and emitting ultrasonic waves in the same direction as the laser, and provided to be movable inside the housing. It is achieved by a composite treatment cartridge characterized in that it comprises an ultrasonic module.

Here, the ultrasonic module is provided to be movable in a parallel direction along the skin of the subject and in a vertical direction in which the distance from the skin of the subject is controlled inside the housing.

At this time, the ultrasonic module is provided to be movable in a straight direction along the skin of the subject from the inside of the housing.

On the other hand, the ultrasonic module is provided in the medium receiving portion and the inside of the medium receiving portion that is provided to be movable in a parallel direction along the skin of the subject from the inside of the housing in the same direction as the laser through the medium It is provided with an ultrasonic piezoelectric device that emits and is movable in a vertical direction in which the distance to the subject's skin is controlled.

In this case, an inner side of the housing further includes a drive shaft for moving the medium receiving portion and a first drive portion for driving the drive shaft.

In addition, the inside of the housing further includes a guide bar for guiding the movement of the medium receiving portion.

At this time, while the ultrasonic piezoelectric element moves in a vertical direction in which the distance from the subject's skin is controlled, the lower end of the medium receiving portion maintains a state in contact with the subject's skin.

On the other hand, the medium receiving portion is provided to be movable in a direction perpendicular to the skin of the subject and includes a moving portion to which the ultrasonic piezoelectric element is connected, and a fixing portion which does not move in a direction perpendicular to the skin of the subject. .

Here, a structure that can be moved up and down between the moving portion and the fixed portion.

For example, a first stretchable connecting portion is provided between the movable portion and the fixed portion, or the movable portion and the fixed portion are arranged such that the ends thereof overlap each other by a predetermined length, and an O-ring between the movable portion and the fixed portion. It is provided.

On the other hand, it further comprises a second drive for moving the moving part up and down.

At this time, the inner side of the housing further includes a moving plate moving in the same direction in conjunction with the medium receiving portion.

In this case, the laser irradiation part is fixed to the moving plate.

Further, the laser irradiated from the laser irradiation unit is irradiated toward the object through the ultrasonic piezoelectric element.

In this case, the laser irradiated from the laser irradiator is irradiated toward the object through the medium accommodating part without encountering the medium.

On the other hand, the inside of the medium receiving portion is further provided with a laser irradiation tube for forming an optical path through which the laser penetrates.

Here, the laser irradiation tube is formed across the receiving space from one end to the other end of the medium receiving portion.

In this case, the laser irradiation tube is provided with a second stretchable connecting portion that can be stretched up and down.

Alternatively, the laser irradiation tube includes an upper irradiation tube and a lower irradiation tube, and the upper irradiation tube and the lower irradiation tube are disposed such that ends thereof overlap each other by a predetermined length, and have an O-ring between the upper irradiation tube and the lower irradiation tube.

In this case, the ultrasonic piezoelectric element is mounted on an outer surface of the laser irradiation tube.

Meanwhile, an opening is provided in the ultrasonic piezoelectric element, and the laser irradiation tube is inserted into the opening to fix the ultrasonic piezoelectric element.

The apparatus may further include an alignment unit for centering the laser irradiation unit and the laser irradiation tube.

In this case, the alignment portion communicates with the laser irradiation tube.

In addition, the main body includes a power supply unit for supplying power, an ultrasonic controller for generating ultrasonic waves delivered to the ultrasonic piezoelectric element, a laser generator for generating a laser beam delivered to the laser irradiation unit, and the power supply unit, an ultrasonic controller and a laser generator. And a control unit for controlling the driving.

According to the present invention having the above-described configuration, it is possible to increase the treatment effect by irradiating the laser and ultrasound in the same direction.

Furthermore, according to the present invention, when the laser and the ultrasonic wave is irradiated in the same direction, the laser does not meet the medium of the ultrasonic wave, thereby improving the therapeutic effect by the laser.

Furthermore, the present invention is configured to move the ultrasonic piezoelectric element for emitting the ultrasonic wave when moving the ultrasonic wave and the laser can increase the therapeutic effect.

In particular, the present invention is configured not only to move the ultrasonic piezoelectric element along the subject's skin to the X-axis or Y-axis, but also to move the Z-axis to change the distance to the subject's skin, thereby providing a treatment range to the ultrasound. It can be expanded.

1 is a perspective view showing the overall configuration of a combination therapy device according to the present invention,

2 is a block diagram showing the configuration of a main body;

Figure 3 is a cross-sectional perspective view of the composite treatment cartridge 100 according to an embodiment of the present invention,

4 is a cross-sectional view of the complex treatment cartridge 100 from the side,

5 is a perspective view showing a composite treatment cartridge 100 according to another embodiment of the present invention,

6 is an exploded perspective view illustrating an internal configuration of the complex treatment cartridge 100;

7 is a cross-sectional view taken along the line 'A-A' in FIG.

8 is a cross-sectional view taken along the line 'A-A' of FIG. 5 according to another embodiment.

1 and 2, the complex treatment apparatus 1000 according to the present invention may be composed of a main body 500, a handpiece 300 connected to the main body to provide treatment for the subject. have.

The main body 500 has a housing 505 that forms an appearance. Ultrasonic controller 520 for transmitting a signal for controlling the ultrasonic wave generated by the power supply unit 550 for supplying power to the inside of the housing 505 and the ultrasonic piezoelectric element 140 (see FIGS. 3 and 5) to be described later. And a laser generator 530 for generating a laser that is transmitted to the laser irradiation unit 150 (see FIGS. 3 and 5) to be described later, and driving of the power supply unit 550, the ultrasonic controller 520, and the laser generator 530. The control unit 540 to control the.

In addition, the main body 500 may include an input / output unit 510 for inputting a command or displaying various information through a user's manipulation.

Therefore, a user may input the treatment command through the handpiece 300 by manipulating the input / output unit 510. In this case, the input / output unit 510 may be implemented in various forms. For example, the input / output unit 510 may be implemented in the form of a touch screen to facilitate user convenience. In addition, the input / output unit 510 may include a display unit (not shown) for displaying various information to the user, for example, a treatment time, a type of treatment, an expected end time, and the like.

As such, the command input through the input / output unit 510 is transmitted to each component through the control unit 540. Therefore, the driving of the power supply unit 550, the ultrasonic controller 520, and the laser generator 530 is controlled through the control unit 540.

The user uses the handpiece 300 to provide the desired treatment to the subject. The handpiece 300 may be connected to the main body 500 in a wired manner as shown in FIG. 1. Although not shown in the drawings, the handpiece 300 and the main body 500 may be connected wirelessly.

As described above, the ultrasonic control signal generated by the ultrasonic controller 520 of the main body 500 and the laser generated by the laser generator 530 may be transmitted to the handpiece 300.

In this case, the handpiece 300 may include a composite treatment cartridge 100 that is detachably connected to the grip portion 200 and the grip portion 200 that the user grips by hand.

The gripping portion 200 may have a suitable shape so that the user can easily hold by hand.

The composite treatment cartridge 100 is detachably connected to the gripping portion 200. The composite therapy cartridge 100 is detachably connected to the gripping part 200 because it is preferable to replace the composite treatment cartridge 100 when used for a predetermined time or more.

In this case, the ultrasonic control signal and the laser transmitted from the main body 500 are transmitted to the composite treatment cartridge 100.

3 is a cross-sectional perspective view of the composite treatment cartridge 100 according to an embodiment of the present invention, Figure 4 is a cross-sectional view of the composite treatment cartridge 100 from the side.

3 and 4, the complex treatment cartridge 100 includes a housing 130a forming an appearance and a medium accommodating part provided in the housing 130a to provide an accommodation space 122a for accommodating a medium ( 120a) is provided inside the medium receiving portion 120a and provided inside the housing 130a and the ultrasonic piezoelectric element 140a for emitting ultrasonic waves in a predetermined direction through the medium, and in the same direction as the ultrasonic waves. The laser irradiation part 150a which irradiates a laser is provided.

The composite treatment cartridge 100 according to the present embodiment may provide a laser and an ultrasound together to provide an appropriate treatment and / or treatment for a subject. It will be described below in detail.

The housing 130a forms an appearance of the composite treatment cartridge 100 and is connected to the grip part 200 described above. Although not shown in the drawing, the housing 130a may be provided with a connection structure for detachably connecting to the gripping portion 200.

One side of the housing 130a may be provided with a medium accommodating part 120a which provides an accommodating space 122a in which the medium is accommodated. In addition, the medium receiving portion 120a is provided with the ultrasonic piezoelectric element 140a.

The receiving space 122a of the medium receiving part 120a may store a medium that facilitates the transfer of ultrasonic waves, for example, may store water. For example, when a medium is accommodated in the accommodation space 122a shown in the drawing, the medium may be accommodated under the ultrasonic piezoelectric element 140a.

Accordingly, the ultrasonic wave emitted from the ultrasonic piezoelectric element 140a may be irradiated toward a predetermined direction, for example, a lower portion of the housing 130a through the medium stored in the medium receiving portion 120a. In this case, the base 121a of the housing 130a may be made of a suitable medium through which the ultrasonic waves can pass.

On the other hand, the composite treatment cartridge 100 is provided with a laser irradiation unit 150a for irradiating a laser. The laser irradiation part 150a may be provided inside the housing 130a and may be provided in the upper accommodating part 110a provided separately from the medium accommodating part 120a. At this time, the laser irradiated from the laser irradiation unit 150a is supplied toward the same direction as the ultrasonic waves.

However, since the medium is stored in the receiving space 122a of the medium accommodating part 120a, when the laser meets the medium, the laser beam may lose direction and may be dispersed or lose energy. Therefore, the laser irradiated from the laser irradiation unit 150a is preferably irradiated toward the object through the medium receiving unit 120a without encountering the medium.

To this end, the present invention may be provided with a laser irradiation tube (160a) for forming an optical path through which the laser penetrates inside the medium receiving portion (120a). That is, the laser irradiated from the laser irradiation unit 150a may be supplied to the subject through the laser irradiation tube 160a so as not to meet the medium.

In addition, as shown in the drawing, the ultrasonic piezoelectric element 140a is disposed inside the medium receiving unit 120a, and the laser irradiated from the laser irradiation unit 150a penetrates through the ultrasonic piezoelectric element 140a. Can be irradiated towards the object.

In this case, the laser may be irradiated through a central portion of the ultrasonic piezoelectric element 140a.

Specifically, the laser irradiation tube (160a) may be formed across the receiving space (122a) from one end to the other end of the medium receiving portion (120a). The upper end of the laser irradiation tube 160a forms a light inlet 172a through which the laser enters, and the lower end of the laser irradiation tube 160a forms a light exit 170a through which the laser is emitted. In this case, the laser irradiation tube 160a may be formed to penetrate the center portion of the medium receiving portion 120a.

In this case, the laser irradiation tube 160a may be integrally formed with the medium receiving portion 120a by injection molding or the like. In addition, the laser irradiation tube (160a) may be formed separately from the medium receiving portion (120a), in this case, the laser irradiation tube (160a) may be detachably connected to the medium receiving portion (120a).

On the other hand, the laser irradiation tube 160a forms a passage 162a through which the laser moves. The cross-sectional area of the passage 162a may be constant or its area may be reduced toward the bottom as shown in the figure. In this case, the area of the light outlet 170a may be relatively smaller than the area of the light inlet 172a.

In this case, the ultrasonic piezoelectric element 140a may be mounted to the laser irradiation tube 160a inside the medium receiving part 120a.

Specifically, the ultrasonic piezoelectric element 140a may be mounted on an outer surface of the laser irradiation tube 160a. To this end, an opening 142a may be provided in the ultrasonic piezoelectric element 140a, and the laser irradiation tube 160a may be inserted into the opening 142a to mount the ultrasonic piezoelectric element 140a. At this time, since the internal cross-sectional area of the laser irradiation tube (160a) is different as shown in the figure, it can be fixed to the ultrasonic piezoelectric element (140a) by fitting to the outside of the laser irradiation tube (160a).

In the case where the ultrasonic piezoelectric element 140a is fixed to the laser irradiation tube 160a, a separate member for fixing the ultrasonic piezoelectric element 140a may not be required, and thus the configuration may be simplified.

On the other hand, the laser irradiated from the laser irradiation unit (150a) is supplied to the subject through the laser irradiation tube (160a), in this case, so that the laser does not meet the inner wall and the like of the laser irradiation tube (160a) and the laser It is necessary to align or align the center of the irradiation tube 160a.

In this embodiment, the laser irradiation unit 150a and the laser irradiation tube 160a may further include an alignment unit 180a for aligning the center.

The alignment unit 180a may be formed to extend to a predetermined length on the outer surface 123a or the upper surface of the medium receiving unit 120a as shown in the drawing.

The alignment unit 180a may have, for example, a pipe shape or a pipe shape having a predetermined length. Therefore, the alignment unit 180a is configured to communicate with the laser irradiation tube 160a. That is, the lower end of the alignment unit 180a is connected to the light inlet 172a of the laser irradiation tube 160a so that the laser irradiated from the laser irradiation tube 160a is lowered through the alignment unit 180a. Irradiated at 160a.

In this case, the laser irradiation unit 150a may be connected to an end of the alignment unit 180a. The alignment unit 180a may be integrally formed by injection molding or the like, or may be detachably connected to a separate member.

After aligning the centers of the laser irradiation unit 150a and the laser irradiation tube 160a, the laser irradiation unit 150a is connected to an end of the alignment unit 180a.

Although not shown, a fixing member may be further provided to fix the laser irradiation part 150a to the alignment part 180a.

The composite treatment cartridge 100 having the above-described configuration needs to be replaced when used for more than a predetermined time. Therefore, the main body 500 may include a sensor unit for confirming the use time of the complex treatment cartridge 100, and display the use time through the input / output unit 510 described above. The user may determine whether to replace the composite treatment cartridge 100 by checking the usage time.

5 is a perspective view showing a composite treatment cartridge 100 according to another embodiment of the present invention, Figure 6 is an exploded perspective view showing the internal configuration of the composite treatment cartridge 100, Figure 7 'A in Figure 5 A cross-sectional view along the line 'A'.

5 to 7, the complex treatment cartridge 100 is provided with a housing 130b for forming an appearance, a laser irradiation unit 150b provided inside the housing 130b to irradiate a laser in a predetermined direction, and Ultrasonic waves are emitted in the same direction as the laser, and the ultrasonic module 110b is provided to be movable inside the housing 130b.

The composite treatment cartridge 100 according to the present embodiment may provide a laser and an ultrasound together to provide an appropriate treatment and / or treatment for a subject. In addition, the ultrasonic module 110b for providing the ultrasonic wave is provided to be movable in the composite treatment cartridge 100 to significantly increase the treatment effect by the ultrasonic wave, and to treat more various skin regions than in the related art. . It will be described below in detail.

The housing 130b forms an appearance of the composite treatment cartridge 100 and is connected to the grip part 200 described above. Although not shown in the drawing, the housing 130b may be provided with a connection structure to be detachably connected to the gripping portion 200.

The ultrasonic module 110b may be provided to be movable in a longitudinal direction (or a vertical direction) in which a parallel direction and a distance from the skin of the subject are adjusted along the skin of the subject inside the housing 130b.

In this case, the ultrasonic module 110b may be provided to be movable in a linear direction along the skin of the subject inside the housing 130b.

That is, when the ultrasound module 110b is used to provide ultrasound to the subject's skin for treatment or treatment, the ultrasound module 110b forms the complex treatment cartridge 100 inside the housing 130b. Is provided to be movable in, even if the user does not manually move the complex treatment cartridge 100 manually can be treated a desired skin area by the movement of the ultrasonic module (110b).

In particular, in the present invention, the distance between the ultrasonic piezoelectric element 140b for providing ultrasonic waves in the ultrasonic module 110b and the subject's skin is controlled, that is, the ultrasonic piezoelectric element 140b in a vertical direction (Z-axis direction). Is provided to be movable so that skin areas of various depths can be treated at one time by one device. Hereinafter, look at in detail.

As shown in FIGS. 5 to 7, the ultrasonic module 110b is provided with a medium accommodating part 120b provided to be movable in a parallel direction (X-axis direction) along the skin of the subject from the inside of the housing 130b. And the inside of the medium receiving portion 120b to emit ultrasonic waves in the same direction as the laser through the medium, and to move in a vertical direction (Z-axis direction) in which the distance to the subject's skin is controlled. Ultrasonic piezoelectric element 140b may be provided.

The inside of the housing 130b may be provided with a medium receiving portion 120b for providing a receiving space 122b for receiving a medium. In addition, the ultrasonic piezoelectric element 140b is provided inside the medium accommodating part 120b.

In the receiving space 122b of the medium accommodating part 120b, a medium for facilitating the transfer of ultrasonic waves may be stored, for example, water may be stored. For example, when a medium is accommodated in the accommodation space 122b shown in the drawing, the medium may be accommodated under the ultrasonic piezoelectric element 140b.

Accordingly, the ultrasonic wave emitted from the ultrasonic piezoelectric element 140b may be irradiated toward a predetermined direction, for example, the lower portion of the housing 130b through the medium stored in the medium accommodating part 120b. At this time, the base 121 of the medium receiving portion 120b may be made of a suitable medium through which the ultrasonic waves can pass.

Meanwhile, since the medium accommodating part 120b is provided to be movable inside the housing 130b, the medium accommodating part 120b may include a moving structure for moving the medium accommodating part 120b.

For example, a driving shaft 610 for moving the medium receiving part 120b and a first driving part 600 for driving the driving shaft 610 may be provided inside the housing 130b.

The drive shaft 610 is provided across the inner space of the housing 130b, the first protrusion having a through hole (129b-A) through which the drive shaft 610 penetrates outside the medium receiving portion (120b) 129b may be provided. A screw thread is formed along the surface of the drive shaft 610, and a screw thread that is engaged with the screw thread of the drive shaft 610 may be formed inside the through hole 129b -A.

In this case, the first driving unit 600 is connected to one end of the driving shaft 610. The first driving unit 600 may be configured of, for example, a motor.

Therefore, when the drive shaft 610 is rotated by the driving of the first drive unit 600, the medium receiving portion 120b moves in a linear direction along the skin of the subject according to the rotation direction of the drive shaft 610. Done.

In this case, the lower end of the medium receiving portion 120b may be provided with a roller 128b for smoothly moving when the medium receiving portion 120b moves.

On the other hand, the inner side of the housing 130b may further include a first guide bar 620 for guiding the movement of the medium receiving portion (120b).

The first guide bar 620 may be provided inside the housing 130b in a direction parallel to the driving shaft 610. In this case, the medium accommodating part 120b may be stably moved by moving along the driving shaft 610 and the first guide bar 620.

The first guide bar 620 may be installed to penetrate through the second protrusion 127b of the medium accommodating part 120b. In this case, the second protrusion 127b slides and moves along the first guide bar 620.

In the case of using the above-described configuration, the medium receiving portion 120b may be configured to be movable in the Y-axis direction as well as the X-axis direction.

On the other hand, when the distance between the above-mentioned ultrasonic piezoelectric element 140b and the subject's skin is changed or while the ultrasonic piezoelectric element 140b is moved in a vertical direction in which the distance from the subject's skin is controlled. The lower end of the receiving portion 120b is preferably maintained in contact with the skin of the subject.

This is because a gel or the like is applied to the surface of the skin and the ultrasound device is contacted with the gel to treat the ultrasound. Therefore, even when the distance between the ultrasonic piezoelectric element 140b corresponding to the ultrasonic generator and the skin of the subject is changed, it is preferable that the lower end of the above-described medium accommodating portion 120b is in contact with the skin of the subject.

Therefore, in the present invention, at least a part of the medium receiving portion 120b to which the ultrasonic piezoelectric element 140b is connected is fixed to the subject while the ultrasonic piezoelectric element 140b is fixed inside the medium receiving portion 120b. It can be configured to move in a direction perpendicular to the skin of the.

That is, as shown in the drawing, the medium receiving part 120b is provided to be movable in a direction perpendicular to the skin of the subject and the moving part 124b to which the ultrasonic piezoelectric element 140b is connected, and It may be provided with a fixing portion (125b) does not move in a direction perpendicular to the subject's skin.

Here, the meanings of the names of the moving part 124b and the fixing part 125b mean the moving and fixing in the direction perpendicular to the skin. As described above, the entire medium receiving part 120b including the fixing part 125b may move in parallel or in the transverse direction along the skin of the subject.

As the medium receiving part 120b is divided into the moving part 124b and the fixing part 125b as described above, at least a part of the medium receiving part 120b is vertically disposed on the sidewall of the medium receiving part 120b. It may have a movable structure.

For example, as illustrated in FIG. 7, a first stretchable connector 190b may be provided along a sidewall of the medium accommodating part 120b. Specifically, the moving part 124b and the fixing part 125b may be provided. The first stretchable connector 190b may be provided along a boundary. The first stretchable connection part 190b may be configured to be flexible to move the moving part 124b up and down a predetermined distance with respect to the fixing part 125b. For example, the first stretchable connector 190b may have a bellows structure.

In this case, the second driving unit 800 may be further provided to move the medium accommodating part 120b located above the first elastic connection part 190b up and down.

That is, the second driving part 800 may be provided to move the moving part 124b up and down. When the second driving unit 800 is driven, the rotating unit 820 attached to the end of the driving shaft 810 moves the moving unit 124b up and down. To this end, the rotating part 820 may have a screw thread, and one side of the moving part 124b may have a thread shape that engages with the screw thread.

On the other hand, the inner side of the housing 130b may be further provided with a moving plate 700 moving in the same direction in conjunction with the medium receiving portion (120b). A second guide bar 710 and a third guide bar 720 may be provided to guide movement when the moving plate 700 moves. The second guide bar 710 and the third guide bar 720 are provided through the moving plate 700, and the second guide bar 710 and the first when the moving plate 700 is moved. 3 is moved along the sliding guide bar (720).

The movable plate 700 may be connected to the medium receiving part 120b and the connecting part 900 to move in conjunction with the medium receiving part 120b. In this case, the connecting portion 900 may be connected to the fixing portion 125b of the medium receiving portion 120b or to the first protrusion 129b protruding from the fixing portion 125b as shown in the drawing. have.

Since the above-described moving part 124b moves up and down, the connection part 900 is preferably connected to the fixing part 125b that does not move in the vertical direction.

The laser irradiation unit 150b described above is fixed to the movable plate 700 to irradiate a laser. In addition, the above-described second driver 800 is fixed to the moving plate 700.

As a result, the moving plate 700 and the laser irradiation part when the medium receiving part 120b moves in a direction parallel to the skin of the subject, that is, in the X-axis direction in the drawing by the driving of the first driving part 600 described above. 150b is also moved together.

On the other hand, as shown in Figure 7, the laser irradiated from the laser irradiation unit 150b is supplied through the opening 705 of the moving plate 700 in the same direction as the ultrasonic wave. However, since the medium is stored in the receiving space 122b of the medium accommodating part 120b, when the laser encounters the medium, the laser beam may lose direction and may be dispersed or lose energy. Therefore, the laser irradiated from the laser irradiation unit 150b is preferably irradiated toward the object through the medium receiving unit 120b without encountering the medium.

To this end, the present invention may be provided with a laser irradiation tube (160b-B) for forming an optical path through which the laser penetrates inside the medium receiving portion (120b). That is, the laser irradiated from the laser irradiation unit 150b may have a structure that is supplied toward the skin through the laser irradiation tube 160b-B and does not meet the medium.

In addition, as shown in the drawing, the ultrasonic piezoelectric element 140b is disposed inside the medium receiving unit 120b, and the laser irradiated from the laser irradiation unit 150b penetrates the ultrasonic piezoelectric element 140b. Can be irradiated towards the object.

In this case, the laser may be irradiated through a central portion of the ultrasonic piezoelectric element 140b.

Specifically, the laser irradiation tube (160b-B) may be formed across the receiving space (122b) up and down from one end to the other end of the medium receiving portion (120b). The upper end of the laser irradiation tube 160b-B forms a light inlet 172b through which the laser enters, and the lower end of the laser irradiation tube 160b-B forms a light outlet 170b through which the laser is emitted. In this case, the laser irradiation tube (160b-B) may be formed to pass through the central portion of the medium receiving portion (120b).

In this case, the laser irradiation tube 160b-B may be integrally formed with the medium accommodating part 120b by injection molding or the like. In addition, the laser irradiation tube (160b-B) may be formed separately from the medium receiving portion (120b), in which case the laser irradiation tube (160b-B) can be detachably connected to the medium receiving portion (120b). have.

Meanwhile, the laser irradiation tube 160b-B forms a passage 162b through which the laser moves. The cross-sectional area of the passage 162b may be constant or its area may be reduced toward the bottom as shown in the figure. In this case, the area of the light outlet 170b may be relatively smaller than the area of the light inlet 172b.

In this case, the ultrasonic piezoelectric element 140b may be mounted on the laser irradiation tube 160b-B from the inside of the medium accommodating part 120b.

Specifically, the ultrasonic piezoelectric element 140b may be mounted on an outer surface of the laser irradiation tube 160b. To this end, an opening 142b may be provided in the ultrasonic piezoelectric element 140b, and the laser irradiation tube 160b-B may be inserted into the opening 142b to mount the ultrasonic piezoelectric element 140b. In this case, since the internal cross-sectional area of the laser irradiation tube (160b-B) is different as shown in the figure, it can be fixed to the ultrasonic piezoelectric element (140b) by fitting in the outside of the laser irradiation tube (160b-B). .

When fixing the ultrasonic piezoelectric element 140b to the laser irradiation tube 160b-B, the configuration may be simplified by not requiring a separate member for fixing the ultrasonic piezoelectric element 140b.

In addition, the upper end of the laser irradiation tube (160b-B) is connected and fixed to the moving portion 124b of the medium receiving portion (120b), the lower end of the laser irradiation tube (160b-B) is the medium receiving portion (120b) It is connected to the fixing portion (125b) of. In this case, a second stretchable connector 164b may be provided on at least a portion of the laser irradiation tube 160b-B to enable vertical movement of the moving unit 124b. Since the configuration and operation of the second stretchable connector 164b are similar to those of the first stretchable connector 190b described above, repeated description thereof will be omitted.

On the other hand, the laser irradiated from the laser irradiation unit 150b is supplied to the subject through the laser irradiation tube (160b-B), in this case, so that the laser does not meet the inner wall and the like of the laser irradiation tube (160b-B) 150b) and the center of laser irradiation tube 160b-B need to be aligned or aligned.

In this embodiment, the laser irradiation unit 150b may further include an alignment unit 180b for aligning the center of the laser irradiation tube 160b-B.

The alignment unit 180b may be formed to extend in a predetermined length on the top surface 123b of the medium receiving unit 120b as shown in the drawing.

The alignment unit 180b may have, for example, a pipe shape or a pipe shape having a predetermined length. Therefore, the alignment unit 180b is configured to communicate with the laser irradiation tube 160b-B. That is, the lower end of the alignment unit 180b is connected to the light inlet 172b of the laser irradiation tube 160b-B so that the laser irradiated from the laser irradiation tube 160b-B is through the alignment unit 180b. It irradiates to the lower laser irradiation tube 160b-B.

In this case, the alignment unit 180b may be integrally formed by injection molding or the like, or may be detachably connected to a separate member.

After aligning the centers of the laser irradiation unit 150b and the laser irradiation tube 160b-B, the laser irradiation unit 150b is connected to the moving plate 700. Although not shown in the drawings, a fixing member may be further provided to fix the laser irradiation part 150b to the movable plate 700.

In addition, the rotating part 820 of the second driving part 800 may be positioned corresponding to the alignment part 180b. In this case, a thread corresponding to the thread of the rotating part 820 may be formed on one side of the outer wall of the alignment part 180b.

The composite treatment cartridge 100 having the above-described configuration needs to be replaced when used for more than a predetermined time. Therefore, the above-described main body 500 may include a sensor unit for checking the usage time of the complex treatment cartridge 100, and display the usage time through the aforementioned input / output unit 510. The user may determine whether to replace the composite treatment cartridge 100 by checking the usage time.

8 is a cross-sectional view taken along the line 'A-A' of FIG. 5 according to another embodiment. FIG. 8 illustrates another embodiment in which at least a portion of the medium receiving portion 120b has a structure capable of moving up and down. Hereinafter, the differences from FIG. 7 will be described.

Referring to FIG. 8, the medium accommodating part 120b includes a moving part 124b and a fixing part 125b, and the moving part 124b and the fixing part 125b have end portions of a predetermined length. It is arranged to overlap. In this case, the fixing part 125b is inserted into the moving part 124b, but the present invention is not limited thereto. On the contrary, the moving part 124b is inserted into the fixing part 125b. Form is also possible.

Therefore, when the second driver 800 is driven, the moving part 124b slides with respect to the fixing part 125b and moves up and down.

In this case, a sealing means such as an O-ring 126 is provided between the moving part 124b and the fixing part 125b to prevent leakage of the medium accommodated inside the medium receiving part 120b. It can be provided.

In addition, as described above, the upper end of the laser irradiation tube (160b-B) is connected and fixed to the moving part 124b of the medium receiving portion (120b), the lower end of the laser irradiation tube (160b-B) is accommodated in the medium It is connected to the fixing part 125b of the part 120b.

In this case, the laser irradiation tube (160b-B) may be composed of the upper irradiation tube (160b-A) and the lower irradiation tube (160b-B) to enable the vertical movement of the moving unit (124b). At this time, the upper irradiation tube (160b-A) and the lower irradiation tube (160b-B) is arranged so that the ends thereof overlap each other by a predetermined length. In this case, the lower irradiation tube (160b-B) is shown in the form inserted into the upper irradiation tube (160b-A), but is not limited to this, the upper irradiation tube (160b-A) is the lower irradiation tube (160b) A shape inserted into the inside of -B) is also possible.

Therefore, when the second driving unit 800 is driven, the upper irradiation tube 160b-A slides with respect to the lower irradiation tube 160b-B and moves up and down.

In this case, the upper irradiation tube (160b-A) and the medium received inside the medium receiving portion (120b) to prevent the leakage of the inside of the laser irradiation tube (160b-B), that is, the passage (162b) for the laser movement and The lower irradiation tube (160b-B) may be provided with a sealing means such as 'O-ring' (161).

Although the above has been described with reference to a preferred embodiment of the present invention, those skilled in the art to various modifications and changes to the present invention without departing from the spirit and scope of the invention described in the claims described below You can do it. Therefore, it should be seen that all modifications included in the technical scope of the present invention are basically included in the scope of the claims of the present invention.

Claims

housing;

A medium accommodating part provided in the housing to provide an accommodation space in which the medium is accommodated;

An ultrasonic piezoelectric element provided inside the medium accommodating part to emit ultrasonic waves in a predetermined direction through the medium; And

And a laser irradiator provided inside the housing to irradiate a laser in the same direction as the ultrasonic waves.
The method of claim 1,

The laser beam irradiated from the laser irradiation unit is a composite treatment cartridge, characterized in that irradiated toward the object through the ultrasonic piezoelectric element.
The method of claim 1,

The laser irradiated from the laser irradiation unit is a combination cartridge, characterized in that irradiated toward the object through the medium receiving portion without encountering the medium.
The method of claim 3,

Compound treatment cartridge, characterized in that the inner side of the medium receiving portion further comprises a laser irradiation tube for forming an optical path through which the laser penetrates.
The method of claim 4, wherein

The laser irradiation tube is a composite treatment cartridge, characterized in that formed across the receiving space from one end to the other end of the medium receiving portion.
The method of claim 4, wherein

The ultrasonic piezoelectric element is a composite treatment cartridge, characterized in that mounted on the laser irradiation tube inside the medium receiving portion.
The method of claim 6,

The ultrasonic piezoelectric element is a composite treatment cartridge, characterized in that mounted on the outer surface of the laser irradiation tube.
The method of claim 7, wherein

Comprising an opening in the ultrasonic piezoelectric element, the laser irradiation tube is inserted into the opening, the composite therapeutic cartridge, characterized in that the ultrasonic piezoelectric element is fixed.
The method of claim 4, wherein

The combined treatment cartridge further comprises an alignment unit for aligning the center of the laser irradiation tube and the laser irradiation tube.
The method of claim 9,

The alignment unit is formed in a predetermined length extending from one side of the medium receiving portion, the composite therapeutic cartridge, characterized in that the laser irradiation unit is connected to the end of the alignment unit.
The method of claim 10,

The alignment unit is a composite treatment cartridge, characterized in that in communication with the laser irradiation tube.
A complex treatment device comprising a handpiece detachably connected to the complex treatment cartridge according to any one of claims 1 to 11, and a body connected to the handpiece.
The method of claim 12,

The main body includes a power supply unit for supplying power, an ultrasonic controller for generating an ultrasonic wave delivered to the ultrasonic piezoelectric element, a laser generator for generating a laser beam delivered to the laser irradiation unit, and driving of the power supply unit, the ultrasonic controller, and the laser generator. Complex therapy apparatus comprising a control unit for controlling.
housing;

A laser irradiation part provided inside the housing to irradiate a laser in a predetermined direction; And

And an ultrasonic module that radiates ultrasonic waves in the same direction as the laser and is movable to the inner side of the housing.
The method of claim 14,

The ultrasonic module is a composite treatment cartridge, characterized in that the inside of the housing is movable in a parallel direction along the skin of the subject and in a vertical direction in which the distance to the skin of the subject is controlled.
The method of claim 15,

The ultrasound module is a composite treatment cartridge, characterized in that provided in the housing to move in a straight direction along the skin of the subject.
The method of claim 15,

The ultrasonic module may include a medium accommodating part provided to be movable in a parallel direction along the skin of the subject from the inside of the housing; And

And an ultrasonic piezoelectric element provided inside the medium accommodating part to emit ultrasonic waves in the same direction as the laser through the medium and to be movable in a vertical direction in which the distance to the skin of the subject is controlled. Combined treatment cartridge characterized in that.
The method of claim 17,

The inner side of the housing complex treatment cartridge further comprises a drive shaft for moving the medium receiving portion and a first drive for driving the drive shaft.
The method of claim 18,

The inner side of the housing complex therapy cartridge further comprises a guide bar for guiding the movement of the medium receiving portion.
The method of claim 17,

And the lower end of the medium receiving portion maintains contact with the skin of the subject while the ultrasonic piezoelectric element moves in a vertical direction in which the distance from the skin of the subject is controlled.
The method of claim 20,

The medium receiving portion

Combination treatment is characterized in that it comprises a moving part which is provided to be movable in a direction perpendicular to the subject's skin and the ultrasonic piezoelectric element is connected, and a fixed part which does not move in a direction perpendicular to the subject's skin cartridge.
The method of claim 21,

The composite treatment cartridge, characterized in that it has a structure that can be moved up and down between the moving portion and the fixed portion.
The method of claim 22,

The composite therapeutic cartridge, characterized in that provided with a first elastic connection between the moving part and the fixed part.
The method of claim 22,

The moving part and the fixing part are disposed so that the ends thereof overlap each other by a predetermined length, and the combined treatment cartridge, characterized in that it has an O-ring between the moving part and the fixing part.
The method of claim 21,

The composite therapeutic cartridge further comprises a second drive unit for moving the moving part up and down.
The method of claim 17,

The inner side of the housing complex treatment cartridge further comprises a moving plate moving in the same direction in conjunction with the medium receiving portion.
The method of claim 26,

The composite therapeutic cartridge, characterized in that the laser irradiation unit is fixed to the moving plate.
The method of claim 21,

The laser beam irradiated from the laser irradiation unit is a composite treatment cartridge, characterized in that irradiated toward the object through the ultrasonic piezoelectric element.
The method of claim 28,

The laser irradiated from the laser irradiation unit is a combination cartridge, characterized in that irradiated toward the object through the medium receiving portion without encountering the medium.
The method of claim 29,

Compound treatment cartridge, characterized in that the inner side of the medium receiving portion further comprises a laser irradiation tube for forming an optical path through which the laser penetrates.
The method of claim 30,

The laser irradiation tube is a composite treatment cartridge, characterized in that formed across the receiving space from one end to the other end of the medium receiving portion.
The method of claim 30,

The laser irradiation tube is a composite treatment cartridge, characterized in that it is provided with a second stretchable connecting portion up and down.
The method of claim 30,

The laser irradiation tube is provided with an upper irradiation tube and a lower irradiation tube, the upper irradiation tube and the lower irradiation tube is arranged so that the ends thereof overlap each other by a predetermined length, a composite comprising a O-ring between the upper irradiation tube and the lower irradiation tube Treatment cartridge.
The method of claim 30,

The ultrasonic piezoelectric element is a composite treatment cartridge, characterized in that mounted on the laser irradiation tube inside the medium receiving portion.
The method of claim 34, wherein

The ultrasonic piezoelectric element is a composite treatment cartridge, characterized in that mounted on the outer surface of the laser irradiation tube.
36. The method of claim 35 wherein

Comprising an opening in the ultrasonic piezoelectric element, the laser irradiation tube is inserted into the opening, the composite therapeutic cartridge, characterized in that the ultrasonic piezoelectric element is fixed.
The method of claim 30,

The combined treatment cartridge further comprises an alignment unit for aligning the center of the laser irradiation tube and the laser irradiation tube.
The method of claim 37,

The alignment unit is a composite treatment cartridge, characterized in that in communication with the laser irradiation tube.
39. A combination therapy apparatus comprising a handpiece detachably connected to the complex therapy cartridge according to any one of claims 14 to 38, and a body connected to the handpiece.
The method of claim 39,

The main body includes a power supply unit for supplying power, an ultrasonic controller for generating an ultrasonic wave delivered to the ultrasonic piezoelectric element, a laser generator for generating a laser beam delivered to the laser irradiation unit, and driving of the power supply unit, the ultrasonic controller, and the laser generator. Complex therapy apparatus comprising a control unit for controlling.