KR20030081668A - A medical treatment apparatus using a laser beam and a method of the same - Google Patents

Abstract

PURPOSE: A treatment apparatus and a method using a laser light are provided to reduce the surgical operation time by employing a multi laser light source module and a multi light head module. CONSTITUTION: A multi laser light source module(100) irradiates a laser light simultaneously to one or more surgical operation region. At least one light head module(102) receives the laser light from the multi laser light source module(100) through a light fiber(110) to focus and irradiate it to the surgical operation region. A control unit(104) controls the multi laser light source module(100) to manage the strength of the laser light from the light head module(102), an irradiation time, an irradiation mode, an irradiation position, and an irradiation sequence. An input unit(106) inputs an operational condition to the control unit(104). A power unit(108) supplies power to the multi laser light source module(100) and the control unit(104).

Description

Therapeutic apparatus using laser light and its treatment method {A MEDICAL TREATMENT APPARATUS USING A LASER BEAM AND A METHOD OF THE SAME}

The present invention relates to a treatment apparatus using a laser beam and a method of treatment thereof, and in particular, when a surgeon inputs treatment conditions after operating the optical head module to a treatment point when the laser beam is irradiated to the treatment site for the treatment, the operator Can perform other tasks, the patient can also behave within a certain range, at the same time can be laser light treatment for several treatment points, focus the laser light as well as adjust the focus point to skin or subcutaneous It is possible to precisely adjust the light focusing point in the inside, and by operating the operating conditions of the treatment apparatus, the treatment apparatus using the laser light and the treatment method that maximize the treatment effect by providing convenience for operation by various treatment conditions. It is about.

In the case of the conventional commercialized laser light treatment device (for example, YC semiconductor pain laser treatment device: YC3000, YC trade), one laser light generator 2 is provided by one laser light generator 1 as shown in FIG. By using only, it was impossible to irradiate the laser beam 2 to several procedure points at the same time.

In addition, since the laser beam cannot be fixed at the procedure point, the patient cannot move while being treated, and especially if the patient is a young child, the patient cannot move around while the patient is unable to see other tasks. There was an inconvenience that there was no choice but to aim the treatment point with laser light while waiting at the.

In FIG. 1, reference numeral 3 is a power supply unit for supplying power to the treatment apparatus, reference numeral 4 is a control unit for controlling the treatment apparatus to control and output a laser beam, and reference numeral 5 is the power supply unit 3. And a frame constituting the control unit 4 in one package, and the reference numeral 6 denotes the laser light generator 1 in a predetermined position while interconnecting the frame 5 and the laser light generator 1. It is a stand which can be moved, and reference numeral 7 denotes an electric wire for supplying power from the power supply unit 3 to the laser light generator 1.

Various patents have been filed to solve the problems of the conventional treatment apparatus described above. First, as shown in FIG. 2, a signal controlled by the controller 13 is applied to the laser diode module 11 along the wire 14, and fixes the laser diode module 11 to the stator 12. In the case of U.S. Patent No. 6,074,411 (name of invention: MULTIPLE DIODE LASER APPARATUS AND METHOD FOR LASER ACUPUNCTURE THERAPY), which is disclosed for the method, one laser must be used for each treatment site, so that even if the laser output is high enough, There was an inefficiency of not being able to split the light, and there was a potential problem that the laser was not fixed stably due to its weight because it was directly fixed to the treatment site.

Next, Korean Patent No. 1991-0008927 discloses a method of fixing a procedure head using a sucker using a vacuum pump, dividing it into several laser beams in a multi-channel light splitting method, and then directly irradiating the optical fiber. : In case of laser acupuncturer, the vacuum head is used to fix the treatment head as well as the case of cupping treatment. Even if the end is directly applied to the surgical site, the optical fiber end acts as a point light source, so that the laser light spreads a lot in the subcutaneous area, thereby reducing the therapeutic effect.

The present invention has been made in view of the above, and an object thereof is to provide a treatment apparatus using the laser light and a method of treating the same, which can maximize the treatment effect for various treatment conditions.

1 is a configuration diagram schematically showing a treatment apparatus using a general laser light,

2 is a configuration diagram schematically showing a treatment apparatus using a laser beam according to the prior art,

Figure 3a is a block diagram showing a treatment device using a laser light according to the present invention,

FIG. 3B is a configuration diagram showing a state in which the optical head module is attached to the surgical site in FIG. 3A;

Figures 4a to 4d is a block diagram showing each embodiment of the multiple laser light source module according to the present invention,

Figure 5a is a cross-sectional view showing the configuration of a conventional optical head module without a lens,

5B to 5C are cross-sectional views showing the configuration of each embodiment of the optical head module according to the present invention, in which a lens is mounted, respectively;

6 is a cross-sectional view showing the configuration of an embodiment of a length-adjustable optical head module according to the present invention;

7 is a cross-sectional view showing the configuration of an embodiment of the optical head module that can be irradiated with laser light while applying heat or cold to the localized portion according to the present invention,

8A is a cross-sectional view showing the configuration of an embodiment of an optical head stator according to the present invention;

8B and 8C are cross-sectional views showing the configuration of another embodiment of the optical head stator according to the present invention, respectively;

8D is a cross-sectional view illustrating a configuration of a rail-type optical head stator along a line AA ′ of FIG. 8C;

9A and 9B are cross-sectional views showing respective embodiments of the construction of the applicator according to the present invention, respectively;

10A and 10B are sectional views showing an embodiment of the safety device according to the present invention.

1 --- laser light generator 2 --- laser light

3 --- Power Supply 4 --- Control

5 --- Frame 6 --- Stand

7 --- wires

11 --- laser diode module

12 --- Stator 13 --- Controller

14 --- wires

100 --- multiple laser light source module

102 --- Optical Head Module 104 --- Controls

106 --- Input 108 --- Power

110 --- Optical Fiber 112 --- Laser Light

200 --- indicating laser

202 --- Dividers and Couplers 203 --- Couplers

204 --- Fiber Optic Bundle

205 --- Motor Drive Stage 206 --- Laser

208 --- beam adder 210 --- light adder and coupler

300 --- optical head stator 302 --- attachment

304 --- optical head stator clamp 400 --- velcro frame

402 --- Velcro strip 406 --- double sided tape

408 --- Tapered 500,501,502 --- Lens

600 --- Temperature riser 602 --- Chiller

604, 606 --- Wire 608 --- Sensor

700 --- Spring 702 --- Laser Light Blocker

CN --- control terminal

The treatment device using a laser beam according to the present invention for achieving the above object, and multiple laser light source module for supporting the irradiation of the laser light to one or more surgical site at the same time; At least one optical head module for receiving the laser light from the multiple laser light source module with the optical fiber and focusing the irradiated laser beam onto the treatment site; A control unit controlling the multiple laser light source modules to control the intensity, irradiation time, continuous irradiation to pulse irradiation irradiation mode, irradiation position, and irradiation order of the laser light emitted from each optical head module; An input unit for inputting an operating condition to the control unit; Characterized in that it comprises a power supply for supplying power to the multiple laser light source module and the control unit.

The controller may control the multiple laser light source module to control on / off of the laser light applied to the optical head module designated by the input unit.

The multi-laser light source module connects one or more lasers to the same number of dividers and couplers as the laser, thereby splitting the laser light into more than twice the number of lasers.

The multiple laser light source module connects one or more lasers to a coupler of the same number of lasers by using a motor driving stage so that the laser light can be divided by dividing the laser light by more than twice the number of lasers.

The multiple laser light source module connects one or more lasers to a divider and coupler having the same number of control terminals as the laser, thereby splitting the laser light into more than twice the number of lasers.

The multi-laser light source module connects the therapeutic laser and the indicating laser to the divider and the coupler with an optical adder so that the irradiation part can be accurately identified when the laser light is irradiated.

A lens is mounted on the optical head module to focus the laser light emitted from the optical fiber.

A lens is mounted on the optical head module to parallelize the laser light emitted from the optical fiber.

By adjusting the length of the optical head module it is possible to change the position where the laser light is focused inside the skin.

It is characterized in that the end of the optical head module is equipped with a device capable of locally applying heat or a device capable of taking away heat.

When the optical head module is connected to the optical head stator, the laser light blocking plate is opened.

A local on / cold steamer is mounted to the optical head module, and the controller and the input unit are configured to input and control the on / off time, temperature, time, and sequence of the local on / cold steamer.

An optical head stator for fixing the optical head module; And an attacher for attaching the optical head stator to the surgical site.

One of an end of the optical head module and the optical head stator is made of a magnet, and the other is made of a magnet or a magnetic body attached to the magnet.

The optical head module and the optical head stator are connected to each other in the form of a screw, a snap button, a velcro, or a wedge.

The end of the optical head module can be pasted with a double-sided tape to be directly fixed to the surgical site.

After attaching the double-sided tape to the end of the optical head stator as the applicator, the optical head stator is attached to the surgical site.

After attaching the end face tape to the end of the optical head stator as the applicator, the optical head stator is attached to the surgical site.

After the frame using the Velcro fabricated as the applicator to fix the band to the surgical site, another optical Velcro strap can be used to attach the optical head stator to the correct surgical site.

The Velcro belt is manufactured in the form of a rail so that the optical head stator can be moved and moved to the correct surgical site.

The control unit and the input unit are computers, and the computer can program and input operating conditions.

The treatment method using the laser light according to the present invention includes determining which optical head module to irradiate the laser light through the input unit; Programming the intensity of the laser light in each optical head module, the irradiation time, the irradiation mode, the irradiation position, the irradiation sequence, and the like; The operator fixing the optical head module using the attachment and the optical head stator to a suitable surgical site of the patient; Adjusting the length of the optical head module to determine a subcutaneous laser beam focusing region; According to the program, the control unit comprises a step of treating the patient by irradiating the laser light by controlling the optical head module according to the structure and the multiple laser light source module.

In the treatment method, after programming the on / off time, temperature, time, sequence, etc. of the local on / cold steamer, the control unit according to the program in parallel with the operation of the local on / cold steamer in parallel with the multiple laser light source module and the optical head The module is controlled to irradiate laser light.

(Example)

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

3A illustrates a treatment apparatus using a laser beam according to the present invention, and includes a multiple laser light source module 100 for supporting irradiation at multiple sites at the same time; At least one optical head module 102 for focusing the laser light emitted from the multiple laser light source module 100 and irradiating the treatment site; A control unit (104) for controlling the optical head module (102) according to the multiple laser light source module (100) and its structure; Specify the laser light intensity, irradiation time, irradiation mode, irradiation position, irradiation order, on / off time, temperature, time, and order of the local hot / cold steamer mounted and operated on the optical head module 102 in advance. An input unit 106; It is composed of a power supply unit 108 for supplying power of the entire system.

Here, the control unit 104 and the input unit 106 may be made of a single computer, which can be programmed by inputting operating conditions with related software, and can be controlled by a computer based on such input data.

FIG. 3B is a diagram illustrating a case in which the optical head module 102 is attached to the surgical site using the optical head stator 300 and the attacher 302 in FIG. 3A.

The construction and operation of the optical head stator 300 and the attacher 302 will be described later in detail.

4A to 4D show the configuration of each embodiment of the multiple laser light source module 100 according to the present invention, respectively.

Here, the multi-laser light source module means a module for sending one or more laser light from the one or more lasers through the optical fiber. Accordingly, by using the multiple laser light source module, it is possible to form one or more laser lights to treat one or more surgical sites.

Hereinafter, the actual implementation method of the multiple laser light source module 100 will be described in detail with reference to FIGS. 4A to 4D.

Referring first to FIG. 4A, which splits one laser 206 into multiple laser lights using a divider and coupler 202 and connects them to the fiber bundle 204 to obtain multiple laser light outputs. The configuration shown is shown.

If the wavelength of the laser light is invisible in the infrared region, it is difficult to find an accurate treatment point. Therefore, the laser 206 for treating the indication laser 200 in the visible wavelength band such as a helium-neon laser is used. By using a beam splitter or the like as an optical adder and irradiating together, it is possible to precisely designate a procedure point.

That is, after the therapeutic laser 206 and the indicating laser 200 are synthesized by the optical adder 208, the synthesized laser light is sent to the divider and the coupler 202, and the divider and the coupler The laser light sent to 202 is sent to the optical fiber bundle 204 in a divided state so that a plurality of visible laser light outputs can be obtained.

In the following, although not particularly mentioned, the indicator laser shown in FIG. 4A can be applied to all the multiple laser light source modules 100 according to the present invention.

4B is configured to control a plurality of laser beams output from the divider and coupler 202 by installing a control terminal CN in the divider and coupler 202 of FIG. 4A.

In case of adopting this configuration, even though several optical head modules are fixed to the treatment site, the laser light emitted from each site is switched on and off under the operator's control. It is possible to freely adjust the irradiation position, irradiation order, and the like.

Here, a cover (not shown) may be implemented instead of the divider and coupler 202 so as to perform on / off in front of each laser beam, and the same function may be realized by connecting a switch to a laser power source. You can also

Although not specifically mentioned below, it is a matter of course that each of the above-described on / off method of the laser light can be applied to all the multiple laser light source module (100).

FIG. 4C illustrates a configuration in which a plurality of laser beams can be produced by connecting a single laser beam to a coupler 203 moving using a motor driving stage 205 by a time multiplexing method. . With this configuration, it is possible to produce a plurality of laser lights with one laser. Here, the laser light is not sequentially divided, but is sequentially divided with time.

FIG. 4D is a configuration useful when the output of the laser light is not sufficient to divide into a plurality of laser lights, showing that one laser light is output from one laser. In this case, the indicator laser 200 need not be as many as the number of laser treatments, and may be used after dividing into a plurality of laser lights using the optical adder and the coupler 210.

Although not specifically mentioned below, the configuration in which the above-described indicator laser 200 is divided into several light sources using the optical adder and the coupler 210 may be applied to all the multiple laser light source modules according to the present invention. Of course.

5A illustrates a problem of an optical head using a conventional optical fiber. In FIG. 5A, when the laser light 112 is output through the optical fiber 110, since the end of the optical fiber 110 serves as a point light source, light can only be spread, thereby efficiently irradiating the laser light to the treatment area. You will not be able to.

However, as shown in FIG. 5B, the optical head module 102 according to the present invention receives the laser light 112 through the optical fiber 110 from the multiple laser light source module 100, and then uses the lens 500. Since it is configured to condense it by using, the laser beam 112 can be irradiated to the treatment site very efficiently.

In addition, as shown in FIG. 5C, the optical head module 102 according to the present invention receives the laser light 112 from the multiple laser light source module 100 through the optical fiber 110 and then the lens 501 and the lens. Since the structure can be made into parallel light using 502, the laser beam 112 can be irradiated to the treatment site very efficiently.

An advantage of the optical head module 102 according to the present invention described above is that the laser head generator is not directly included in the optical head module. This is because the structural laser according to the present invention is included in the multiple laser light source module 100 and the optical head module 102 receives the laser light 112 through the optical fiber 110.

Therefore, the weight is much lighter than the existing structure, so it has the advantage of being fixed very stably to the surgical site.

In addition, even if equipped with a low-power laser is configured to focus on the irradiation to the treatment site, because it can increase the power density it is possible to achieve a superior therapeutic effect than the conventional treatment device.

FIG. 6 illustrates a configuration in which the length of the optical head module can be adjusted. After adjusting the depth of the optical head module 102 using a screw structure, the optical head module 102 is fixed using the clamp 301. In this case, there is an advantage that the position where the laser light 112 is focused according to its length can be adjusted to the desired depth by the operator on the skin surface or subcutaneously.

Although not specifically mentioned below, the configuration that can adjust the length of the optical head module as shown in Figure 6 can be applied to all the optical head module of the present invention, of course.

FIG. 7 is a cross-sectional view showing the configuration of an optical head module capable of irradiating the laser light 112 while applying heat or cold to a local part according to the present invention. Avoiding this passing point, attach a heater 602 made of a heating wire connected to the wire 604 and the sensor 608, or a cooler 602 made of a thermoelectric element connected to the wire 606 and the sensor 608. When the treatment by the laser light 112 is configured to increase the therapeutic effect by locally heating or cooling the treatment site.

8A is a cross-sectional view showing the configuration of one embodiment of the optical head stator 300 according to the present invention.

In FIG. 8A, the optical head stator 300 is fixed to the surgical site by an attacher 302 which will be described later, and then stably fixes the optical head module 102 so that the operator directly picks up the laser and receives the laser light. By investigating, the surgeon can not only perform other tasks during the procedure but also solve the inconvenience that the patient should be stationary.

Here, the ends of the optical head module 102 and the optical head stator 300 may be connected and fixed by a magnet, a magnetic body, a screw structure, a snap button structure, a velcro band structure, and a wedge structure. .

8B illustrates an embodiment of an optical head stator 300 and an attacher attaching the same to the surgical site, and particularly, illustrates a velcro band-shaped frame 400 and a velcro band 402 as the attacher. .

In FIG. 8B, after attaching the velcro frame 400 to a portion to be irradiated with a plurality of laser beams and fixing the velcro frame 400 in a band, the velcro frame 402 having the optical head stator 300 is placed at the surgical site. After connecting to the 400, the optical head module 102 is fixed.

8c is a rail system of the Velcro strip 402 with the optical head stator 300 according to the present invention, and the optical head stator 300 can be freely moved on the Velcro strip 402.

FIG. 8D is a cross-sectional view illustrating the configuration of the rail-type optical head stator 300 along the line AA ′ of FIG. 8C. That is, the optical head stator 300 moves on the velcro belt 402 in a rail manner, and is fixed by the clamp 304 to the velcro belt 402.

9A and 9B are cross-sectional views showing one embodiment of an attacher for fixing the optical head module 102 according to the present invention to the surgical site, respectively. FIG. 9A is a double-sided tape as an attacher under the optical head stator 300. 9B shows a case where the side tape and the end face tape 408 are attached to the side of the optical head stator 300 and the surgical site.

On the other hand, the optical head module 102 may be attached directly to the surgical site using the double-sided tape 406 without using the optical head stator 300.

10A and 10B illustrate a configuration of an optical head module with a safety device according to the present invention.

The safety device according to the present invention blocks the laser light 112 by standing the laser light blocking plate 702 using the spring 700 while the optical head module 102 is connected to the optical head stator 300. 702 is shown lying down so that the laser beam 112 can be irradiated.

Therefore, when the optical head module 102 is dropped from the optical head stator 300, the laser light 112 is automatically blocked, thereby preventing the risk of irradiating the laser light to the eyes of the operator or the patient.

Hereinafter, a treatment method for treating a patient using the laser treatment apparatus according to the present invention will be described.

First, it is determined which optical head module 102 is irradiated with laser light through the input unit 106.

Next, the intensity of the laser light in each optical head module 102, the irradiation time, the irradiation mode, the irradiation position, the irradiation sequence, and the like are programmed. Then, according to the needs of the operator, the on / off time, temperature, time, sequence, etc. of the local hot / cold steamer are also programmed.

The operator then secures the optical head module 102 using the attachment 302 and the optical head stator 300 to a suitable surgical site of the patient.

Next, the length of the optical head module 102 is adjusted to determine the subcutaneous laser beam focusing region.

Subsequently, according to the program, the controller 104 controls the multiple laser light source module 100 and the optical head module 102 according to the structure to irradiate the laser light to treat the patient.

As described above, the treatment apparatus using the laser light and the treatment method according to the present invention have the following effects.

1. Since the multiple laser light source module and the optical head module are used, the laser light can be irradiated to several sites at the same time, thereby reducing the procedure time.

2. The optical head module is fixed to the treatment site by using the optical head stator and the attacher to free the movement of the patient and the convenience of the other operator during the procedure.

3. As the laser is mounted on the multiple laser light source module instead of the optical head module, the weight of the optical head module can be reduced, so that the optical head module can be stably fixed to the surgical site.

4. By using the lens in the optical head module to form focused or parallel light, it is possible to focus the laser light on the surface or subcutaneous part of the skin or to irradiate the laser light only on the minute part, thereby improving the effect of treatment. .

5. Since the length of the optical head module can be adjusted, it is possible to focus by specifying a precise subcutaneous point, thereby increasing the therapeutic effect.

6. Attached to the end of the optical head module, such as a heating wire or a thermoelectric element, a heat riser or a cooler that can heat or deprive heat, thereby increasing the therapeutic effect by additionally stimulating the laser light treatment.

7. When the optical head module is moved away from the optical head stator, the laser light is automatically blocked to increase the safety of the operator and the patient.

8. Flexibility in manufacturing is possible because a single laser can be irradiated with a plurality of laser lights depending on the laser output, price and the like.

9. The operator can program the intensity of laser light, irradiation time, irradiation mode, irradiation position, irradiation order, on / off time, temperature, time and sequence of the local hot / cold steam machine mounted on the optical head module. The flexibility of the laser light treatment method can be maximized according to experience, ultimately maximizing the therapeutic effect.

Claims (22)

A multi-laser light source module 100 that supports irradiating laser light to more than one surgical site at the same time; At least one optical head module 102 for receiving the laser light from the multiple laser light source module 100 to the optical fiber 110, and then focus and irradiate the treatment site; A control unit 104 for controlling the multiple laser light source module 100 to control the intensity, irradiation time, continuous irradiation to pulse irradiation irradiation mode, irradiation position, and irradiation order of the laser light emitted from each optical head module 102; An input unit 106 for inputting an operation condition to the control unit 104; The multi-laser light source module 100 and the treatment device using a laser beam, characterized in that it comprises a power supply unit 108 for supplying power to the control unit 104. The apparatus of claim 1, wherein the control unit 104 controls the multiple laser light source module 100 to control on / off of the laser light. The method of claim 1, wherein the multiple laser light source module 100 connects one or more lasers to the same number of dividers and couplers 202 so as to divide the laser light into more than twice the number of lasers. Treatment device using a laser light. The method of claim 1, wherein the multiple laser light source module 100 connects one or more lasers to the same number of couplers 203 as the lasers by using the motor driving stage 205, so that the laser light is more than twice the number of lasers. Treatment device using a laser light, characterized in that divided by the time difference. The method of claim 1, wherein the multiple laser light source module 100 connects one or more lasers to the dividers and couplers 202 having the same number of control terminals CN as the lasers, thereby doubling the number of laser beams. Treatment device using a laser light, characterized in that the division. The method according to any one of claims 3 to 5, wherein the multiple laser light source module (100) connects the therapeutic laser (210) and the indicator laser (200) to the divider and coupler (202) with an optical adder (208). Treatment device using a laser light, characterized in that to be able to accurately determine the irradiation site when the laser light irradiation. The treatment apparatus according to claim 1, wherein a lens (500) is attached to the optical head module (102) to focus the laser light (112) emitted from the optical fiber (110). The apparatus of claim 1, wherein the lenses 501 and 502 are attached to the optical head module 102 so that the laser light 112 from the optical fiber 110 can be made parallel. . 8. The treatment apparatus according to claim 7, wherein the position of the focused laser light (112) is changed by adjusting the length of the optical head module (102). The treatment apparatus using a laser beam according to claim 7 or 8, wherein an element capable of locally applying heat or an element capable of extracting heat is mounted at an end of the optical head module (102). The apparatus of claim 1, wherein the laser beam blocking plate is opened when the optical head module is connected to the optical head stator. According to claim 1, wherein the optical head module 102 is equipped with a local hot / cold steamer, the control unit 104 and the input unit 106 is on / off time, temperature, time, sequence of the local hot / cold steamer Treatment device using a laser beam, characterized in that to input and control. An optical head stator (300) for fixing the optical head module (102); Treatment device using a laser beam, characterized in that further comprising an attachment (302) for attaching the optical head stator (300) to the surgical site. The laser beam of claim 13, wherein one of an end of the optical head module 102 and the optical head stator 300 is made of a magnet, and the other is made of a magnet or a magnetic body attached to the magnet. Used treatment device. The laser beam of claim 13, wherein the optical head module 102 and the optical head stator 300 are connected to each other by being formed in any one of a screw type, a snap button type, a Velcro type, and a wedge type. Treatment device using. The treatment apparatus according to claim 1, wherein an end of the optical head module (102) is attached to a double-sided tape (406) so that the end of the optical head module (102) can be directly fixed to the surgical site. The method of claim 13, wherein the optical head stator 300 is to be attached to the surgical site after attaching the double-sided tape 406 or the single-sided tape 408 to the end of the optical head stator 300 as the applicator Treatment device using a laser light characterized in that. The method according to claim 13, wherein the optical head stator 300 is precisely treated using another Velcro belt 402 after fixing the frame 400 using the Velcro as the attacher and fixing the band to the surgical site. Treatment device using a laser light, characterized in that to be attached to. 19. The treatment apparatus according to claim 18, wherein the velcro band (402) is manufactured in a rail shape to move the optical head stator (300) to move to the correct surgical site. The treatment apparatus according to claim 1, wherein the control unit (104) and the input unit (106) are computers, and operating conditions are programmed by the computer. Determining which optical head module 102 to irradiate laser light through the input unit 106; Programming the intensity of the laser light in each optical head module 102, the irradiation time, the irradiation mode, the irradiation position, the irradiation sequence, and the like; The operator fixing the optical head module 102 using the attachment 302 and the optical head stator 300 at a suitable surgical site of the patient; Adjusting the length of the optical head module 102 to determine a subcutaneous laser beam focusing region; According to the program, the control unit 104 comprises a laser light source characterized in that it comprises the step of controlling the multiple laser light source module 100 and the optical head module 102 in accordance with the structure to treat the laser light to treat the patient. Treatment method used. 21. The multi-laser light source module of claim 20, wherein after programming the on / off time, temperature, time, sequence, etc. of the local on / cold steamer, the controller 104 according to the program is in parallel with the operation of the local on / cold steamer. Treatment method using a laser light, characterized in that to control the laser beam 100 and the optical head module (102).