KR20120090567A - A laser probe for cupping glass and laser probe controlling apparatus and method - Google Patents

Abstract

PURPOSE: A laser probe for a cupping device and an apparatus for controlling the same, and a method for controlling the same are provided to improve the effect of treatment by adjusting sound pressures applied to skin tissues in a cupping device. CONSTITUTION: A laser probe for a cupping device includes a cupping absorber(110), an air outlet(120), an optical fiber part(140), and a thermal stimulating member(130). The cupping absorber forms the body of a cupping device. A vacuum pump is formed in the cupping absorber in order to generate sound pressures. The air outlet discharges air from the inner part of the cupping device by being formed at one side of the cupping absorber. The optical fiber part irradiates the skin of a user with laser. The thermal simulating member is positioned at the center of the cupping absorber. The thermal simulating member covers and supports the optical fiber part and applies heat to the skin of the user.

Description

A laser probe for cupping glass and laser probe controlling apparatus and method

The present invention relates to a laser probe for a cupping machine, and more particularly, a negative pressure that can increase the therapeutic effect by allowing the internal sound pressure control of the cupping suction port and the thermal stimulation by the metal support member to be applied simultaneously with the laser irradiation using the optical fiber. The present invention relates to a laser probe for a cupping device capable of simultaneous stimulation with a laser and heat, and a control device and method thereof.

In particular, the present invention, while applying a constant pressure through the control of the internal negative pressure of the cupping adsorption port is irradiated to the skin by controlling the intensity and wavelength of the laser and at the same time heat the skin tissue by adjusting the fluid temperature inside the metal support member for supporting the optical fiber The present invention relates to a laser probe for a cupping device capable of simultaneously stimulating a negative pressure, a laser, and a heat, and a control device and a method thereof, by increasing the subpermeability of the laser by applying a stimulus, thereby increasing the therapeutic effect by the laser.

Conventional laser cupping probes are designed to irradiate the laser at the level of direct contact with the skin or even just touching the skin, so that the laser cannot penetrate deep into the skin. Therefore, the therapeutic effect is insignificant, and also because the depth of penetration of the laser irradiated to the subcutaneous tissue under the skin is not controlled, there is a limitation that it is impossible to change to various uses according to the type of lesion or disease. In the case of using a laser probe for the treatment, the effect of the laser-only treatment eventually had a limit.

The technical problem to be solved by the present invention, the simultaneous stimulation by the sound pressure and laser and heat, which can increase the therapeutic effect by simultaneously applying heat stimulation using a fluid with the laser irradiation to the skin tissue inside the cupping unit to which the negative pressure stimulation is applied It is an object of the present invention to provide a laser probe for a cupping machine.

Another technical problem to be solved by the present invention is to improve the therapeutic effect by the laser through the control of the negative pressure stimulation applied to the skin tissue inside the cupping machine, the intensity and wavelength of the irradiated laser, the temperature control of the circulating fluid The present invention is to provide a laser probe control device and a method for a cupping device capable of simultaneous stimulation by sound pressure, laser, and heat.

One embodiment of the present invention for achieving the above object, the cupping cupping portion forming the body of the cupping cup, the air outlet port is formed on one side of the cupping cup suction port, discharge the air inside the cupping cup, the inside of the cupping cup adsorption port Is located in the center of the body of the optical fiber, cupping adsorption port irradiated to the skin to cover and support the optical fiber inside the cupping cup, but the length of the body extends to contact the skin in the cupping adsorption port heat stimulation to the skin in the cupping adsorption port A negative pressure laser having a thermal stimulating member for applying a laser and a laser probe for simultaneous stimulation by heat is a cupping device laser probe.

Another embodiment of the present invention for achieving the above object, the air outlet for adjusting the internal pressure of the cupping cup is formed on one side of the cupping adsorption port and the stimulation by heat in direct contact with the optical fiber and skin for the delivery and irradiation of the laser A laser probe having a thermal stimulating member for applying a pressure in the inner center of the cupping adsorption port, a negative pressure control unit connected to an air outlet of the laser probe to control the pressure inside the cupping adsorption port, and an output of the laser transmitted and irradiated through the optical fiber. Laser control unit for controlling, Constant temperature control unit for controlling the temperature of the thermal stimulus applied by the thermal stimulation member, Control the laser irradiated into the inside of the cupping adsorber through the laser control unit, the internal negative pressure setting conditions and thermal stimulation temperature of the cupping adsorption port The main control unit for controlling the sound pressure control unit and the constant temperature control unit according to the set conditions of the Is a laser probe control device for cupping machine which can simultaneously stimulate sound pressure, laser and heat.

Another embodiment of the present invention for achieving the above object is provided with a vacuum pump for adjusting the internal pressure of the cupping cup, and equipped with an optical fiber for transmitting and irradiating a laser, a temperature sensor and a heating / cooling element A method of controlling a laser probe for a cupping device having a thermal stimulating member for applying thermal stimulation to a circulating fluid in a constant temperature tank, the method comprising: (a) operating a temperature controller according to whether a temperature is set and controlling a fluid temperature in the constant temperature tank through a temperature sensor; A fluid temperature adjusting step of selectively controlling the temperature of the fluid by driving the heating / cooling element in the thermostatic bath while determining whether the fluid temperature is within the set temperature range by measuring the temperature of the fluid in the thermostatic bath through the fluid temperature adjusting step Reaches the set temperature range, the fluid in the constant temperature bath is circulated to the thermal stimulus member in the laser probe. A fluid circulation step of heating the magnetic pole member and maintaining a thermal stimulus temperature, and (c) driving the vacuum pump according to whether the pressure is set to form a negative pressure inside the cupping cup and stop the vacuum pump when the internal negative pressure reaches the set pressure. This is a method of controlling a laser probe for a cupping device, which is capable of simultaneously stimulating the sound pressure, the laser pressure and the sound pressure, which are composed of a sound pressure control and a laser irradiation step of outputting a laser having a set wavelength and intensity through a laser control unit while maintaining an internal sound pressure at a set pressure.

According to the laser probe for the cupping machine and the control device and method thereof according to the present invention, it is possible to simultaneously apply thermal stimulation using a fluid to the skin tissue inside the cupping unit to which the negative pressure stimulation is applied, so that the therapeutic effect using the laser There is an effect that can be further increased.

In addition, the present invention is not only a complex treatment by the sound pressure and heat and laser, but also by simply adjusting the intensity and wavelength of the laser and the sound pressure and temperature can be conveniently treated together, more precise and multifunctional There is an advantage to be able to meet.

1 is a block diagram schematically showing the overall configuration of a laser probe control apparatus for a cupping device capable of simultaneous stimulation by sound pressure and laser and heat according to the present invention.
FIG. 2 is a perspective view illustrating the laser probe of FIG. 1.
3A to 3D are detailed views illustrating a part of the thermal stimulation member provided in the center portion of the laser probe of FIG.
4A and 4B are flowcharts illustrating a method of controlling a laser probe for a cupping device capable of simultaneously stimulating the sound pressure, the laser, and the heat according to the present invention.
5A and 5B are reference views illustrating comparative examples to explain a state before and before the laser probe of FIG. 1 is operated.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT Hereinafter, a configuration and a control method of a cupping laser probe capable of simultaneously stimulating a sound pressure, a laser, and a heat according to an embodiment of the present invention and a control apparatus thereof will be described in detail with reference to the accompanying drawings.

It is to be understood that the words or words used in the present specification and claims are not to be construed in a conventional or dictionary sense and that the inventor can properly define the concept of a term in order to describe its invention in the best possible way And should be construed in light of the meanings and concepts consistent with the technical idea of the present invention. Therefore, since the embodiments shown in the specification and the configuration shown in the drawings is only one of the most preferred embodiment of the present invention, it is understood that there may be various equivalents and modifications that can replace them at the time of the present application shall.

1 is a block diagram schematically showing the overall configuration of a laser probe control apparatus for a cupping device capable of simultaneous stimulation by sound pressure, laser and heat according to an embodiment of the present invention.

As shown in the drawings, a laser probe control apparatus for a cupping device capable of simultaneously stimulating sound pressure, laser and heat according to an embodiment of the present invention includes a laser probe 100, a sound pressure adjusting unit 200, and a laser adjusting unit 300. ), The constant temperature control unit 400 and the main control unit 500 may be configured, and may further include a key input unit 600.

The laser probe 100 has an air outlet 120 for controlling the internal pressure of the cupping cup, which is formed at one side of the cupping suction port 110, and is in direct contact with the optical fiber 140 and the skin for laser transmission and irradiation. A thermal stimulation member 130 for applying a magnetic pole by heat is provided at the inner center of the cupping suction port 110.

The negative pressure control unit 200 includes a vacuum pump 210, a vacuum pump controller 220, and a pressure sensor 230, and is connected to the air outlet 120 of the laser probe 100 to control the pressure inside the cupping suction port. Adjust.

The vacuum pump 210 is connected to the air outlet 120 of the cupping suction port 110 to suck the internal air to form a negative pressure inside the cup cup.

The vacuum pump controller 220 controls the operation of the vacuum pump 210 to compare the measured pressure measured by the pressure sensor 230 with the set pressure, so that the internal sound pressure of the cupping suction port is adjusted to the set pressure.

The pressure sensor 230 is installed inside the cupping adsorption port to measure the pressure of the space inside the cupping adsorption port, and transmits the measurement result to the vacuum pump controller 220.

The laser controller 300 includes a laser oscillator 310 and a laser controller 320 to adjust the output of the laser transmitted and irradiated through the optical fiber 140.

The laser oscillator 310 is optically coupled to the end of the optical fiber 140, and outputs a laser of a constant intensity and wavelength.

The laser controller 320 controls the operation of the laser oscillator 310 to control the output of the laser oscillator 310 so that laser irradiation is performed at a constant intensity and wavelength.

The constant temperature controller 400 includes a fluid temperature controller 410, a fluid circulation controller 420, and a constant temperature water tank 430, and controls the temperature of the fluid to the skin by the thermal stimulation member 130. Adjust the temperature of the applied thermal stimulus.

The fluid temperature control unit 410 includes a temperature sensor 411, a heating / cooling element 412, a driving unit 414, and a temperature control unit 413. The temperature sensor 411 and the heating / cooling element ( The 412 is installed in the constant temperature bath 430, and measures the fluid temperature in the constant temperature bath using the temperature sensor 411, and directly heats or cools the fluid in the constant temperature water using the heating / cooling element 412.

The temperature controller 413 compares the fluid temperature measured by the temperature sensor 411 with the set temperature, and controls the operation of the heating / cooling element driver 414 according to the comparison result.

The heating / cooling element driver 414 outputs a heating / cooling element driving signal according to a control signal of the temperature controller 413 to selectively drive the heating element or the cooling element.

The fluid circulation control unit 420 includes a circulation pump 421 and a circulation pump controller 420, and controls the fluid in the constant temperature water tank to be circulated to the thermal stimulation member 130 by driving the circulation pump 421. . The circulation pump control unit 420 controls the operation of the circulation pump 421 under the control of the main controller 500, and the circulation pump 421 is driven by the circulation pump control unit 420 to pipe the fluid in the constant temperature water tank. Through the pump to the heat stimulating member 130 side to the circulation of the fluid is made.

The constant temperature water tank 430 stores a fluid for maintaining the thermal stimulation temperature of the thermal stimulation member 130 and is connected to the thermal stimulation member 130 through a pipe to supply a circulating fluid to the thermal stimulation member.

The main control unit 500 controls the laser irradiated into the inside of the cupping adsorption port through the laser control unit 300, and according to the internal sound pressure setting condition and the thermal stimulation temperature setting condition of the cupping adsorption port, the sound pressure control unit 200 and Control the constant temperature control unit 400, respectively.

The key input unit 600 is connected to the main control unit 500 and includes at least one key that can be input to the main control unit by setting the sound pressure and temperature or setting the intensity and the wavelength of the laser.

FIG. 2 is a perspective view illustrating the laser probe 100 of the cupping apparatus of FIG. 1, and FIGS. 3A to 3D are excerpts for explaining the configuration of the thermal stimulation member 130 provided at the center of the laser probe. 3A is a cross-sectional view of the thermal stimulation member, FIG. 3B is a plan view of the thermal stimulation member, FIG. 3C is a perspective view showing the internal configuration of the thermal stimulation member, and FIG. 3D is A-A of FIG. 3A. It is a line cross section.

As shown in FIG. 2, the laser probe 100 for the cupping machine according to the present invention includes a cupping suction port 110, an air outlet 120, a thermal stimulating member 130, and an optical fiber 140.

The cupping suction port 110 forms a body of the cupping cup in a cup shape and is made of a material such as acrylic.

Air outlet 120 is formed on one side of the cupping suction port 110, the vacuum pump 210 is connected to be configured to discharge the air inside the cupping cup outside.

The thermal stimulation member 130 is positioned at the center of the body of the cupping adsorption port 110 to cover and support the optical fiber in the cupping cup, and is made of a metal material having high heat transfer efficiency and thermal stimulation to the skin in the cupping adsorption port. The length of the body is formed to extend to contact the skin in the cupping suction port so that it can be applied.

The optical fiber 140 is optically coupled to the laser oscillator 310 to transmit the laser to the inside of the cupping adsorption port 110 to irradiate the skin.

As shown in the detail of FIGS. 3A to 3D, the thermal stimulating member 130 is formed of a hollow hollow cylindrical body, and the optical fiber support part 131 covering and supporting the optical fiber 140 includes a cylindrical body. The central portion is formed in the longitudinal direction. At this time, a through hole 134 larger than the diameter of the optical fiber is formed inside the optical fiber support 131 so that the optical fiber is tightly inserted into and supported by the hole.

In addition, the inner space 133 is formed inside the thermal stimulation member 130 for the circulation of fluid around the optical fiber support 131 is configured to circulate the fluid for thermal stimulation along the inner space, wherein the thermal stimulation member The inner space 133 of the 130 is divided into two spaces left and right by the partition wall 132, and the partition wall 132 is formed only to a predetermined height of the lower end portion from the upper end of the inner space 133. In addition, the two spaces separated by the partition wall are connected to each other along the longitudinal direction to form a fluid flow passage. In addition, a fluid inlet 133a and a fluid outlet 133b for entering and exiting a fluid are formed in two separation spaces formed by the partition wall 132, and each of the fluid inlet 133a and the fluid outlet 133b is formed of a fluid. A constant temperature bath 430 is connected through the piping to maintain a constant temperature of storage and fluid. In addition, as shown in FIGS. 3C and 3D, the adsorption pad 135 is attached to the lower portion of the thermal stimulation member 130, so that only the thermal stimulation member 130 is provided without a cupping adsorption port on a region difficult to be treated by a probe during laser treatment. It can also be configured to apply laser irradiation and thermal stimulation by attaching. Of course, in this case, the through hole 135a having the same size as the through hole 134 of the thermal stimulation member is formed in the longitudinal direction in the center portion of the suction pad 135, so that the optical fiber support 131 of the thermal stimulation member 130 is formed. It is preferred that the optical fiber 140 guided through is supported to reach the skin.

4A and 4B are flowcharts illustrating the method for controlling the laser probe for the cupping device capable of simultaneous stimulation by sound pressure, laser, and heat according to the present invention, and the laser probe control method according to the present invention controls the fluid temperature. Step (S101-S107), circulating the fluid (S108), and performing the sound pressure adjustment and laser irradiation (S111-S123) while checking whether the set temperature, pressure, laser intensity and wavelength are changed. . This operation flow can be made especially under the control of the main control unit 500 in the laser probe control device of the configuration as shown in Figure 1, is provided with a vacuum pump for adjusting the internal pressure of the cupping cup, for the delivery and irradiation of the laser It may be suitably applied to a laser probe control process for a cupping device having an optical fiber, a thermal stimulus member for applying a thermal stimulus to a circulating fluid in a constant temperature bath having a temperature sensor and a heating / cooling element.

The fluid temperature adjusting step (S101-S107) checks whether the temperature is set to operate the temperature control unit and measures the fluid temperature through a temperature sensor in the constant temperature bath (S101-S103), and the fluid temperature measured by the temperature sensor is set. Determining whether the temperature is within the temperature range (set temperature ± error value), and selectively adjusting the fluid temperature such that the fluid temperature is within the set temperature range by selectively driving the heating element or the cooling element according to the determination result (S104-S107). It is configured to include.

In the fluid circulation step S108, when the fluid temperature in the constant temperature bath reaches a set temperature range through the fluid temperature adjusting step, the circulation pump is driven to circulate the fluid in the constant temperature bath to the thermal stimulation member in the laser probe through a pipe to heat the heat stimulating member. It is a step of heating the thermal stimulation member so that the thermal stimulus can be applied to the skin by.

Sound pressure control and laser irradiation step (S111-S123) is a step of forming a negative pressure inside the cupping cup by driving the vacuum pump according to the pressure setting (S111-S113), by measuring the internal sound pressure of the cupping cup whether it reaches the set pressure Checking and stopping the vacuum pump when the internal sound pressure reaches the set pressure (S114-S116), and driving the laser controller to output the laser of the set wavelength and intensity while maintaining the internal sound pressure at the set pressure (S121-S123). It is configured to include).

Figures 5a and 5b is a reference diagram illustrating a comparison before and before the operation of the cupping laser probe according to the present invention, the above-described a cupping laser probe of the present invention and the control apparatus and method thereof The overall motion and its effect Explain.

First, the fluid inlet 133a and the fluid outlet 133b of the thermal stimulation member 130 are connected to a pipe in which the fluid in and out of the constant temperature bath is connected to the fluid in the fluid inlet 133a, the internal space 133 To be able to form a fluid flow passage circulating along the fluid outlet 133b, it is assembled in a state where thermal stimulation can be applied.

 In addition, the optical fiber 140 is inserted into the through hole 134 formed by the optical fiber support part 131 of the thermal stimulation member 130 so as to reach the end of the thermal stimulation member, and then the thermal stimulation member 130 is undesired. Assembly in the center of the body (110). The end of the optical fiber 140 is optically coupled to the laser output terminal of the laser oscillation unit 310 so that the laser signal output from the laser oscillation unit can be transmitted and irradiated into the cupping adsorption port 110 through the optical fiber to apply the laser stimulus. Complete the assembly as much as possible.

In addition, by connecting a vacuum pump 210 to the air outlet 120 formed on one side of the cupping adsorption port 110 to discharge the air inside the cupping cup to the outside, the negative pressure can be formed in the laser probe of the cupping machine Complete the assembly.

When the controller is driven by supplying power in such a state, the main controller 500 first checks temperature, pressure, and a wavelength and intensity setting value of the laser (S101, S111, and S121). These setting values are values set through the key input unit 600.

When the temperature value is set as a result of the set value check (Y branch of S101), the temperature control unit 413 is operated (S102), and the fluid temperature is measured through the temperature sensor 411 installed in the constant temperature water tank 430 (S103). Then, it is judged whether or not the measured fluid temperature value is within the set temperature range (set temperature ± error value) (S104, S106). As a result of the determination, if the measured fluid temperature value is higher than the upper limit of the set temperature range (set temperature + error value), the cooling element is driven through the heating / cooling element drive unit 414 (S105) so that the fluid temperature is within the set temperature range (set temperature ± error). Value), and if the fluid temperature measurement value is lower than the lower limit of the set temperature range (set temperature-error value), the heating / cooling element driving unit 414 drives the heating element (S107) to determine the fluid. A fluid temperature adjustment step is executed in which the temperature is raised to a value within a set temperature range (set temperature ± error value) so that the fluid temperature is always maintained within the set temperature range.

When the fluid temperature in the constant temperature water tank 430 reaches the set temperature range through the fluid temperature adjusting step, the fluid in the constant temperature water tank 430 is circulated to the heat stimulating member 130 in the laser probe, thereby controlling the temperature of the heat stimulating member 130. The fluid circulation step (S108) to maintain the. The fluid circulation operation is continuously performed while checking whether the temperature, pressure, laser intensity and wavelength are changed (S109, S110, S120).

On the other hand, if the pressure value is set as a result of the check of the set value (Y branch of S111) or if the pressure value is changed in the state of fluid circulation (Y branch of S110), the vacuum pump control unit 220 operates (S112) to operate the vacuum. The pump 210 is driven (S113). When the vacuum pump is driven, the inside of the cupping adsorption port 110 is gradually formed with a negative pressure. At the same time, the interior sound pressure is measured through the pressure sensor 230 installed inside the cupping adsorption port 110 (S114). While checking whether the internal sound pressure of the suction port 110 is lower than the set pressure (S115), the operation of the vacuum pump is controlled. As a result of the determination, when the internal sound pressure of the cupping cup reaches the set pressure (Y branch of S115), the sound pressure control step of stopping the driving of the vacuum pump (S116) and maintaining the internal sound pressure at the set pressure is executed.

On the other hand, if the intensity and wavelength values of the laser are set (Y branch of S121) or if there is a change in the intensity and wavelength value of the laser in the fluid circulation operation state (Y branch of S120), the laser controller 320 In operation S122, the laser adjusting step of oscillating the laser output of the set intensity and wavelength through the laser oscillator 310 is performed. Since the laser signal can be directly irradiated to the skin at the end of the thermal stimulation member 130 through the optical fiber 140, in fact, the skin in the cupping suction port 110, the thermal stimulus to the set temperature value, and the set The negative pressure stimulus to the pressure value and the laser stimulus to the set wavelength and intensity can be applied simultaneously.

According to the present invention, a certain pressure is applied to the skin through the control of the internal sound pressure of the cupping suction port together with the irradiation of the laser of the specific wavelength and output set by the user, and at the same time, the fluid in the constant temperature bath of the specific temperature set by the user is heated. Since it is possible to maintain or vary the thermal stimulation temperature while circulating inside the stimulus member, the penetration depth of the laser is increased effectively by applying the thermal stimulus and the negative pressure stimulus to the skin tissue through this simultaneous stimulation, effectively increasing the penetration depth under the skin. It is possible to increase the treatment effect by the laser.

As described above, the present invention has been described by way of limited embodiments and drawings, but the present invention is not limited to the above-described embodiments, which can be variously modified and modified by those skilled in the art to which the present invention pertains. Modifications are possible. Accordingly, the spirit of the present invention should be understood only in accordance with the following claims, and all equivalents or equivalent variations thereof are included in the scope of the present invention.

100: laser probe 110: cupping suction port
120: air outlet 130: thermal stimulation member
131: optical fiber support portion 132: partition wall
133: internal space 133a: fluid inlet
133b: fluid outlet 134,135a: through hole
135: adsorption pad 140: optical fiber
200: sound pressure control unit 210: vacuum pump
220: vacuum pump control unit 230: pressure sensor
300: laser control unit 310: laser oscillation unit
320: laser control unit 400: constant temperature control unit
410: fluid temperature control unit 411: temperature sensor
412: heating / cooling element 413: temperature control unit
414: heating / cooling element drive unit 420: fluid circulation control unit
421: circulation pump 422: circulation pump control unit
430: constant temperature water tank 500: main fisherman
600: key input unit

Claims (22)

A cupping suction port forming a body of a cupping cup;
An air outlet formed at one side of the cupping suction port to discharge air inside the cupping cup;
An optical fiber which transmits a laser to the inside of the cupping suction port and irradiates the skin;
Located in the center of the body of the cupping adsorption port to cover and support the optical fiber in the cupping cup inside, the end of the body is extended to contact the skin in the cupping cupping port to apply heat stimulation to the skin in the cupping cupping port A magnetic pole member; A laser probe for a cupping apparatus comprising a. The method of claim 1,
A vacuum pump for forming a negative pressure inside the cupping suction port is connected to the air outlet port, characterized in that the laser probe for cupping device. An optical fiber that transmits a laser and irradiates the skin;
A heat stimulating member formed of a cylindrical body and configured to cover and support the optical fiber in a central portion of the body, wherein one end of the body extends in contact with the skin to apply thermal stimulation to the skin;
And an adsorptive pad attached to a lower portion of the thermal stimulation member and attached to a local part which is difficult to be treated by the probe during laser treatment to apply laser irradiation and thermal stimulation. The method according to any one of claims 1 to 3,
The optical fiber is a laser probe for the cupping device, characterized in that the optical oscillation portion is configured to be coupled to the laser output portion of a constant intensity and wavelength. The method according to any one of claims 1 to 3,
The thermal stimulating member is a cupping laser probe, characterized in that the metal material. The method of claim 1 or 3, wherein the thermal stimulating member,
It is made of a hollow cylindrical body, the optical fiber support for covering and supporting the optical fiber is formed in the central portion of the cylindrical body in the longitudinal direction, the through-hole larger than the diameter of the optical fiber is formed in the interior of the optical fiber support to close the optical fiber A laser probe for a cupping machine, characterized in that configured to be inserted. The method of claim 6, wherein the thermal stimulation member,
An inner space for circulating fluid is formed around the optical fiber support, so that the fluid for thermal stimulation is configured to circulate along the inner space. The method of claim 7, wherein
The inner space of the thermal stimulation member is divided into two spaces left and right by a partition wall, and the partition wall is formed only from a top end portion of the inner space to a predetermined height of a lower end portion. A laser probe for a cupping machine, characterized in that the space is connected in one direction along the longitudinal direction to form one fluid flow passage. The method of claim 8,
A fluid inlet and a fluid outlet for entering and exiting the fluid into two separation spaces formed by the partition wall are formed.
The fluid inlet port and the fluid outlet port is a laser probe for a cupping apparatus, characterized in that the constant temperature water tank for maintaining a constant temperature of the storage of the fluid and the fluid is connected. An air outlet for controlling the internal pressure of the cupping cup is formed at one side of the cupping adsorption port, and a thermal stimulation member that directly contacts the optical fiber and the skin for applying and irradiating the laser and applies heat stimulation to the inside center of the cupping adsorption port. A laser probe;
A negative pressure control unit connected to an air outlet of the laser probe to adjust a pressure inside the cupping suction port;
A laser controller for controlling an output of a laser transmitted and irradiated through the optical fiber;
A constant temperature control unit controlling a temperature of a thermal stimulus applied by the thermal stimulus member;
A main control unit controlling the laser irradiated to the inside of the cupping adsorption port through the laser control unit, and controlling the sound pressure control unit and the constant temperature control unit respectively according to the internal sound pressure setting condition and the thermal stimulation temperature setting condition of the cupping adsorption port. Laser probe control device for the cupping device, characterized in that. The method of claim 10,
And a key input unit connected to the main control unit, the key input unit including at least one key to set a sound pressure and a temperature or set an intensity and a wavelength of the laser to enter the main control unit. Device. The method according to any one of claims 10 or 11,
The thermal probe member of the laser probe is a laser probe control device for a cupping apparatus, characterized in that the metal material. The thermal stimulus member of claim 10 or 11, wherein
It is made of a hollow cylindrical body, the optical fiber support for covering and supporting the optical fiber is formed in the central portion of the cylindrical body in the longitudinal direction, the through-hole larger than the diameter of the optical fiber is formed in the interior of the optical fiber support to close the optical fiber Laser probe control device for the cupping device, characterized in that configured to be inserted. The method of claim 13, wherein the thermal stimulation member,
An inner space for circulating fluid is formed around the optical fiber support, so that the fluid for thermal stimulation is configured to circulate along the inner space. The method of claim 14,
The inner space of the thermal stimulation member is divided into two spaces left and right by a partition wall, and the partition wall is formed only from a top end portion of the inner space to a predetermined height of a lower end portion. A laser probe control apparatus for a cupping machine, characterized in that the space extends one along the longitudinal direction to form one fluid flow passage. 16. The method of claim 15,
A fluid inlet and a fluid outlet for entering and exiting the fluid into two separation spaces formed by the partition wall are formed.
The fluid inlet port and the fluid outlet port is a laser probe control device for a cupping apparatus, characterized in that the constant temperature water tank for maintaining the storage of the fluid and the temperature of the fluid is connected. The sound pressure control unit according to any one of claims 10 to 11, wherein
A vacuum pump connected to an air outlet of the cupping suction port to suck internal air to form a negative pressure inside the cupping cup;
A pressure sensor installed inside the cupping suction port to measure a pressure in a space inside the cupping suction port;
And a vacuum pump control unit for controlling the operation of the vacuum pump to adjust the internal negative pressure of the cupping suction port at a set pressure by comparing the measured pressure measured by the pressure sensor with a set pressure. Laser Probe Control The method of claim 10 or 11, wherein the laser control unit,
A laser oscillation unit optically coupled to an end of the optical fiber and outputting a laser having a constant intensity and wavelength;
And a laser controller for controlling the output of the laser oscillator to control the operation of the laser oscillator so that the laser is irradiated with a constant intensity and wavelength. According to claim 10 or 11, wherein the constant temperature control unit,
A constant temperature water tank for storing a fluid for maintaining a thermal stimulation temperature of the thermal stimulation member and connected to the thermal stimulation member through a pipe;
A fluid temperature controller for controlling a fluid temperature in the constant temperature water tank by driving a heating / cooling element;
And a fluid circulation control unit for controlling a fluid in the constant temperature water tank to be circulated to the heat stimulating member by driving a circulation pump. The method of claim 10 or 11, wherein the fluid temperature control unit,
A temperature sensor installed in the constant temperature water tank to measure a fluid temperature in the constant temperature water tank;
A heating / cooling element installed in the thermostatic bath to directly heat or cool the fluid in the thermostatic bath;
A temperature controller comparing the fluid temperature measured by the temperature sensor with a set temperature and controlling a heating / cooling element driving unit according to the comparison result;
And a heating / cooling element driver for selectively driving a heating element or a cooling element by outputting a heating / cooling element driving signal according to the control signal of the temperature controller. According to claim 10 or 11, The fluid circulation control unit,
A circulation pump control unit controlling an operation of the circulation pump according to the control of the main controller;
And a circulation pump driven by the circulation pump control unit to pump the fluid in the constant temperature water tank to the heat stimulating member through a pipe. A vacuum pump for controlling the internal pressure of the cupping cup is provided, and a thermal stimulating member for applying thermal stimulation to a circulating fluid in a constant temperature tank including an optical fiber for transmitting and irradiating a laser and a temperature sensor and a heating / cooling element. In the control method of the equipped cupping laser probe,
(a) Operate the temperature control unit according to the temperature setting, and measure the fluid temperature in the constant temperature bath through the temperature sensor to determine whether the fluid temperature is within the set temperature range, and selectively drive the heating / cooling element in the constant temperature bath to determine the fluid temperature. Fluid temperature control step of adjusting;
(b) when the fluid temperature in the constant temperature bath reaches the set temperature range through the fluid temperature adjusting step, the fluid in the constant temperature bath is circulated to the heat stimulating member in the laser probe to heat the heat stimulating member and maintain the heat stimulating temperature. Circulating step;
(c) The vacuum pump is driven according to the pressure setting to form a negative pressure inside the cupping cup, and when the internal negative pressure reaches the set pressure, the vacuum pump is stopped to maintain the internal negative pressure at the set pressure while maintaining the internal negative pressure at the set pressure. Sound pressure control and laser irradiation step of outputting a laser of the intensity; Laser probe control method for a cupping device comprising a.

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