KR101015881B1

KR101015881B1 - The treatment system of scars and cutaneous disorder, and the method thereof

Info

Publication number: KR101015881B1
Application number: KR1020100057402A
Authority: KR
Inventors: 이용수
Original assignee: 이용수
Priority date: 2010-06-17
Filing date: 2010-06-17
Publication date: 2011-02-23
Also published as: WO2011159118A9; WO2011159118A2; WO2011159118A3

Abstract

PURPOSE: A scar and dermatosis treatment system and a method thereof are provided, which provide peeling laser and non-peeling laser setting information. CONSTITUTION: A scar and dermatosis treatment system comprises: a peeling laser guide module(100) offering peeling laser setting information; and a non-peeling laser guide module offering non-peeling laser setting information. The peeling laser setting information and non-peeling laser setting information are provided according to shape, size, depth of scar.

Description

The treatment system of scars and cutaneous disorder, and the method

The present invention relates to a non- thickening scar treatment system using a laser, and to a non- thickening scar treatment system using a laser, characterized in that it provides a peeling laser and non-skinning laser setting information suitable for the treatment of non- thickening scars. will be.

The present invention relates to a non-hypertensive scar treatment system using a laser, wherein the present invention provides a dermabrasion laser and non-dermabrasion laser setting information suitable for non-hypertrophic scar treatment, wherein the dermabrasion laser setting information includes scar contour and surgical pattern information. The non-skinning laser setting information relates to a non-hypertensive scar treatment system using a laser, characterized in that it comprises regenerative sustaining and activation information.

The present invention relates to a method for treating non- thickening scars using a laser, the method comprising: providing peeling laser setting information; And providing non-dermabrasion laser setting information.

The present invention relates to a system for treating scars and skin diseases using a laser, comprising: peeling laser and non-exfoliating laser setting information suitable for treating non-hypertrophic scar, pigmented laser setting information suitable for treating pigmented disease, blood vessel suitable for treating vascular disease A system for treating scars and skin diseases using a laser, characterized by providing laser setting information and laser setting information suitable for the treatment of thickening and keloid scarring.

The present invention relates to a system for treating scars and skin diseases using a laser, wherein two-dimensional and three-dimensional images are formed using skin thickness information and photographing information, and a treatment decision interface screen is constructed using the image and laser setting information. Later, when the laser irradiation area and setting information is selected on the treatment determination interface screen, the laser is driven according to a scar and skin disease treatment system using a laser.

The present invention relates to a system for treating scars and skin diseases using a laser, wherein two-dimensional and three-dimensional images are formed using skin thickness information and photographing information, and a treatment decision interface screen is constructed using the image and laser setting information. After selecting the laser irradiation area and setting information on the treatment decision interface screen, the laser is driven accordingly, but the treatment status is monitored to change the setting information within the allowable value, and the laser is always irradiated vertically, and the probe is If the treatment to be in contact with the contact area at a desired constant pressure, and before and after the treatment relates to a scar and skin disease treatment system using a laser, characterized in that the stored information.

The present invention relates to a scar and skin disease treatment system using a laser, and to form two-dimensional and three-dimensional images using skin thickness information and imaging information, and to configure a treatment decision interface screen using the image and laser setting information. However, the present invention relates to a treatment system for scars and skin diseases using a laser, characterized in that the area to be treated can be accurately found using the existing stored image and position coordinates.

The present invention relates to a system for treating scars and skin diseases using a laser, wherein two-dimensional and three-dimensional images are formed using skin thickness information and photographing information, and a treatment decision interface screen is constructed using the image and laser setting information. After selecting the laser irradiation area and setting information on the treatment decision interface screen, the laser is driven accordingly, and the laser probe is inserted into the gantry to move along the guide means, and the gantry of the portion where the laser probe is inserted is rotated to the left and right. A system for treating scars and skin diseases using a laser, characterized in that the laser is irradiated.

Laser devices may be divided into various types according to a medium and an excitation method, and when used for medical purposes, a laser device suitable for medical purposes is selected and utilized.

For the purposes of cosmetic treatment of the skin, the most suitable laser device for the treatment of individual skin abnormalities such as birthmarks, tattoos, hair loss, wrinkles, acne scars, hypertrophic scars and keloids, redness, vasodilation Is utilized.

In general, skin cosmetic treatment using a laser device utilizes a mechanism that mainly causes thermal damage to a treatment area and then activates tissues in the surrounding area so that the treatment area is generally regenerated.

Specifically, when the laser is irradiated, the thermal reaction spreads concentrically around the heat spot. The thermal reaction layer of the skin tissue is sequentially carbonized or burned off or increased. (vaporization), blood coagulation, protein denaturation and activation layer, the last activation layer is activated to take advantage of the mechanism to regenerate the area to be treated.

However, according to the structure of the skin, the condition of the region to be treated, and the type of laser, skin beauty treatment using such a general regeneration mechanism requires various applications.

In other words, the skin is composed of epidermis and dermis, each of which has different regeneration mechanisms depending on the tissue structure and structure, so it is necessary to consider which area to target laser treatment. .

In addition, the application of general regeneration mechanisms also varies according to the type and condition of the area to be treated. That is, even if the same type of scar is different in shape and pigmentation state, whether the skin is to be treated with epidermis or dermis, It is a judgment about whether to do it only once or several times.

In addition, the thermal reaction layer spreading concentrically from the skin and the corresponding skin reaction are different depending on the type of laser, wavelength, output, power density, irradiation area, irradiation time and transmittance, and pressure of the laser probe contacting the skin. Of course, it is also necessary to decide which laser is used to irradiate at a certain intensity and to which intensity to irradiate once, or to use one or more types of lasers for several treatments.

In summary, to treat wrinkles, inelastic skin, thickening scars, thickening scars and keloids, redness and vasodilation for skin cosmetic effects, the general regeneration mechanism using laser is used, In order to ensure the correct laser treatment, it is necessary to consider the shape, condition, color tone, skin composition, regeneration mechanism of the components, and the type, intensity, frequency, and contact pressure of the laser.

However, in the prior art, the laser device technology for skin beauty is mainly focused on optical or device parts, and thus, a laser system capable of covering the above-mentioned things is urgently needed.

In the following, the approach and limitations of the previously disclosed or announced skin care laser device technology will be briefly described.

First, Korean Patent Publication No. 10-0892143 relates to a method for forming an optical device for skin treatment and an irradiation pattern for skin treatment, and is characterized by the configuration and function of an optical compression unit and an optical nozzle. Although it can be seen that the improvement direction is concentrated in the optical device itself.

Second, the Republic of Korea Patent Publication No. 10-0933934 relates to a multi-wavelength skin regeneration laser device, in order to irradiate the laser of one wavelength or two wavelengths at the same time, oscillator, transmission means, scanner and lens, etc. It is characterized by including the.

This is positive in terms of widening the choice of laser devices for skin care treatments, but as in the first case, the direction of improvement is concentrated on the optical devices themselves. Thirdly, Republic of Korea Patent Publication No. 10-0938378 relates to a laser treatment device for the treatment area, and when the treatment area is marked with ink or a pen, the camera extracts it and the laser beam can be irradiated only to this treatment area. It is characterized by.

This is positive in terms of the combination of the treatment procedure and the optical device, but the effect of guiding the laser treatment procedure is lacking in that it does not consider the area to be treated or the skin condition.

Fourth, the Republic of Korea Patent Publication No. 10-2006-0031262 relates to a three-mode skin optical therapy device consisting of the endi-yag laser treatment device, UV treatment device and IPL treatment device, using three types of laser devices and selectors It is characterized by the fact that one of three treatment devices can be selected and used.

This may be positive in terms of device integration or economics, but may not be effective in that it does not take into consideration the skin treatment procedure such as not considering the treatment target area or skin condition.

SUMMARY OF THE INVENTION An object of the present invention is to provide a non- thickening scar treatment system using a laser, characterized in that it provides a peeling laser and non-skinning laser setting information suitable for treating non- thickening scars.

SUMMARY OF THE INVENTION An object of the present invention is to provide dermabrasion laser and non-dermabrasion laser setting information suitable for non-hypertrophic scar treatment, wherein the dermabrasion laser setting information includes scar contour and surgical pattern information, and the non-dermabrasion laser setting information provides sustained reproduction. And it provides to the non- thickening scar treatment system using a laser, characterized in that it comprises activation information.

It is an object of the present invention to provide peeling laser setting information; And providing non-dermabrasion laser setting information.

An object of the present invention is to provide skin and laser skin setting information suitable for treating non-hickening scars, pigment laser setting information suitable for treating pigmented diseases, blood vessel laser setting information suitable for treating vascular diseases and thickening and keloid scar treatment. To provide a laser and scar disease treatment system using a laser, characterized in that for providing laser setting information suitable for.

An object of the present invention is to form a two-dimensional and three-dimensional image using the skin thickness information and the imaging information, and after configuring the treatment decision interface screen using the image and the laser setting information, the laser irradiation area in the treatment decision interface screen And it provides a system for treating scars and skin diseases using a laser, characterized in that the laser is driven according to the setting information selected.

An object of the present invention is to form a two-dimensional and three-dimensional image using the skin thickness information and the imaging information, and after configuring the treatment decision interface screen using the image and the laser setting information, the laser irradiation area in the treatment decision interface screen And setting information, the laser is driven accordingly, but the treatment status is monitored so that the setting information is changed within the allowable range, the laser is always irradiated vertically, and if the probe is to be treated by touching the skin, The present invention provides a system for treating scars and skin diseases using a laser, characterized in that contact is made at a desired constant pressure, and images and setting information before and after treatment are stored.

An object of the present invention is to form a two-dimensional and three-dimensional image using the skin thickness information and the imaging information, and to configure the treatment decision interface screen using the image and the laser setting information, the existing stored image and position coordinates To provide a treatment system for scars and skin diseases using a laser, characterized in that it is possible to accurately find the area to be treated.

An object of the present invention is to form a two-dimensional and three-dimensional image using the skin thickness information and the imaging information, and after configuring the treatment decision interface screen using the image and the laser setting information, the laser irradiation area in the treatment decision interface screen And setting the driving information accordingly, wherein the laser probe is inserted into the gantry to move along the guide means, and the gantry of the portion into which the laser probe is inserted is rotated left and right to irradiate the laser. The present invention provides a system for treating scars and skin diseases using laser.

Before describing the present invention with reference to the drawings, it is not shown or specifically described for the matters that are not necessary to reveal the gist of the present invention, that is, those skilled in the art can obviously add. Make a note.

1 is a schematic diagram for explaining a cross section of a scar to which the present invention is applied.

Skin scars are generally classified into hypertrophic scars, keloids and atrophic scars, mainly due to the shape of the scars.

As shown in FIG. 1 (a), scars are formed on the normal skin level after skin damage, and the keloid is a form in which a greater amount of collagen is accumulated than FIG. 1 (a), although not shown.

In the case of Figure 1 (b) is atrophic scars, scars are generated below the normal skin level, which is only one example, there may be a variety of forms such as more pointed or stepped.

In the case of FIG. 1 (c), both the case of rising slightly flatter than the normal level and the case of lowering slightly flat may be referred to as flat scars.

According to the general scar classification, the two cases of Fig. 1 (c) may be thickening and atrophy, respectively, in this case far from the general degree of thickening and atrophy.

In addition, in the laser treatment procedure using the present invention, Fig. 1 (b) and Fig. 1 (c) is substantially the same method is used and the effective effect is guaranteed.

In addition, in terms of laser treatment using the present invention, the thickening scar and the keloid scar (not shown) of FIG. 1 (a) are substantially similar methods, and the effective effect is guaranteed.

Therefore, it is not possible to define the scar treatment area of the present invention according to the general scar classification, and the existing classification of skin scars is subdivided into thickening and keloid scarring and non-hypertrophic scar, and the present invention Non- thickening scars to be applied are intended to include atrophic scars in FIG. 1 (b) and flat scars in FIG. 1 (c).

In summary, the scars to which the present invention is applied are hypertrophic and keloid scars and non-hypertrophic scars, in particular, non-hypertrophic scars, which rise slightly above normal levels after skin damage and are flat, and in various shapes, below normal levels. This can include various forms of wrinkles, acne scars and loose skin.

FIG. 2 is a schematic showing the limitation of the effect of dermabrasion laser treatment on non- thickening scars.

In general, an ablative laser removes a portion of the scar tissue while leaving a slightly deeper outline than the scar, in order to induce activation of the tissue region adjacent to the outline.

Therefore, the depth to be peeled is mainly determined according to the shape of the scar, and accordingly, the type and intensity of the laser are determined. If the laser thermal damage is transmitted too deeply, the regeneration mechanism is not possible at all. It is a treatment that requires attention in that it can remain.

In other words, depending on the operator, the effect of the procedure remains the same, even if the same operator can not always expect a consistent effect.

In the case where the atrophic scars are continuously connected as shown in FIG.

In other words, if you want to cure such scars by focusing on the peeling function using only the peeling laser, there will be an area where the contour of the first scar overlaps with the contour of the second scar. May be as shown in Figure 2 (b).

2 shows only one example of a limit of the therapeutic effect when only the peel laser is used, and in addition, erythema, edema, and inflammatory hyperpigmentation when the laser intensity is excessively used. Side effects, such as post-inflammatory hyperpigmentation, may occur.

3 is a main configuration of a non- thickening scar treatment system using a laser according to an embodiment of the present invention, Figure 4 is an example using a non- thickening scar treatment system using a laser according to an embodiment of the present invention. to be.

In order to overcome the limitations when treating non- thickening scars using only a peel laser as described with reference to FIG. 2, the present invention is more specific for each use than a general use, using a plurality of peel lasers, It is also proposed to use a peeling laser and a non-cutting laser together, while at the same time specifying the use of the non-cutting lasers more, and also specifying the settings of the respective lasers according to the use, and also the order of use of the lasers.

The guide module 100 includes a non- thickening scar guide module, and the non- thickening scar guide module includes an ablative laser guide module and a non-ablative laser guide module.

The exfoliation laser guide module also includes an erbium-yag laser setting module and a CO ₂ laser setting module, and the non-exfoliation laser guide module includes a smooth beam laser setting module and a fractional laser setting module. .

Preferably, the laser setting module included in the peeling laser guide module does not necessarily need to be an erbium-yag and a CO ₂ laser setting module, and may be replaced with another kind of peeling laser setting module which may exhibit the same effect.

The same applies to the laser setting module included in the non-exfoliating laser guide module.

Preferably, the guide module 100 is configured to be linked to various types of patient management system, diagnostic system and laser system used in the dermatology hospital.

Specifically, the guide module 100 may be driven to the next step when the operator determines that the patient is a non-hypertrophic scar in conjunction with the patient management system, or when the electronic diagnosis system automatically determines the non-hypertrophic scar. The guide module 100 may be driven in steps, or may be interlocked so that the laser system may be driven in the next step according to the driving of the guide module 100.

Also preferably, the guide module 100 may be configured to meet the DICOM (Digital Imaging and Communications in Medicine) standard to be linked with various types of Picture Archiving Communication System (PACS), hospital information It can be configured to meet the Health Level 7 (HL7) standard to work with the Hospital Information System (HIS).
Also preferably, when the guide module 100 is driven, the peeling laser setting information and the non-skinning laser setting information are provided according to the information on the shape, size, and depth of the non-hickening scar, in which case the guide module 100 is provided. ) Is already included in the or the information is built in the database or memory included in the system in which the guide module 100 is located.
Specifically, the pulse width, irradiation energy intensity, pulse frequency, overlap ratio, etc. of the peeling laser should be set according to the shape, size, and depth of the non-hickening scar, and the spot size, wavelength, and overlap ratio of the non-skinning laser should be set. The back provides how it should be set.

The Erbium-Yag laser setting module guides the Erbium-Yag laser to be first performed on non- thickening scars and provides basic setting information.

In general, the degree of vaporization of water in the skin tissue by laser irradiation depends on the wavelength, and the degree of residual thermal damage at the wavelength is determined by increasing or decreasing the pulse width at the same wavelength. Becomes

However, considering that the pulse width can be set long or short during the laser setting process, the Erbium-Yag laser with a wavelength of 2,940 nm is more easily absorbed by intracellular water than a CO ₂ laser with a wavelength of 10,600 nm. I have a condition to be.

Therefore, if the erbium-jag laser is properly set, the scar tissue is removed and water absorption is high. Therefore, the skin depth causing thermal damage is shallower than that of the CO ₂ laser.

This may be a disadvantage of the erbium-jag laser in view of the known regeneration mechanism of the skin, that is, the deeper the thermal damage, the more active the regeneration mechanism. I want to use as.

Specifically, the currently known skin regeneration mechanism, that is, the cell next to the cell that senses the disappearance of adjacent tissue cells, generates a signal that triggers the skin regeneration mechanism. At the same time, by forming a scar contour slightly shallower than the scar shape, a desired scar contour is formed without causing too much heat damage to the surrounding tissue, and the skin regeneration mechanism is triggered based on the contour.

This is a trigger stage suitable for various types of non-hypertrophic scars, and in particular, the scar described in FIG.

That is, the Erbium-Yag laser setting module makes the erbium-Yag laser pulse width, irradiation intensity, pulse frequency, and overlap to trigger a regeneration mechanism while simultaneously making the scar contour shallow and smooth against non-hypertrophic scars. Setting information such as information.

Preferably, the erbium-yag laser setting module can be associated with the scar diagnostic system to provide the most appropriate scar contour information, ie no angles are formed at the scar boundaries and smoothly connected to normal skin levels, concave Provides information that allows scar contours to be formed.

This can be referred to as information for causing a scar contour as shown in FIG. 4 (b) for non- thickening scars having an angle at the boundary as shown in FIG. 4 (a).

On the other hand, the erbium-yag laser setting module may be replaced with other types of lasers and setting information that can achieve the above-described uses and effects.

CO ₂ laser setting module, then subject to the point that the first step in the procedure described in the CO ₂ proceeds to the next step It guides the laser to the procedure and provides basic setting information.

CO ₂ Since the laser has a deeper thermal damage depth than the erbium-yag laser, as described above, the laser can activate the regeneration mechanism of the non-hypertrophic scar region to switch on the regeneration mechanism completely.

Preferably, CO ₂ Heat damage can be applied to a depth at which the skin is not regenerated by the use of a laser, thereby providing setting information to control this.

That is, for example, setting information of a 1 mm spot size, 800 W, 0.1 millisecond pulse width, 100 Hz pulse frequency, and overlap information may be provided.

Preferably, the CO ₂ laser setting module, in conjunction with the diagnostic system and the erbium-jag laser setting module, can provide surgical pattern information that is most appropriate for the scar contour already formed.

Preferably, the treatment pattern information is a pattern that is formed in a straight line shape in all four directions in a direction perpendicular to the newly formed scar contour in the first step, and the shape of the final pattern may be different according to the shape of the scar.

For example, when the scar is close to a circle, the final pattern is a honeycomb-shaped round circle shaped like a petal hanging in all directions.

On the other hand, as shown in FIG. 4, it can be said that information such that the pattern as shown in FIG. 4C is formed in the scar outline as shown in FIG. 4B.

As another example, when the scar is narrow and long, the final pattern is a shape in which the honeycomb shape is extended to both sides.

On the other hand, the CO ₂ laser setting module may be replaced with other types of lasers and setting information that can achieve the above-described uses and effects.

After the guide step of the peelable laser guide module, the guide step of the non-skinned laser guide module takes place.

In general, non-dermal lasers use a mechanism that causes thermal damage to the epidermis without thermal damage to the epidermis, with fewer side effects and particularly effective in healing tissue defects due to photoaging.

However, the dermis and epidermis have different regenerative mechanisms, so that the regenerative mechanism works mainly on the dermis while preserving the epidermis, so that the scar regeneration effect of the non-dermal laser is not only less effective than the dermal laser, but also predicts the extent. The disadvantage is that it is difficult.

The present invention, however, rather focuses on the above-mentioned disadvantages of the non-exfoliating laser and uses the non-exfoliating laser so that the fully switched on regeneration mechanism can be sustained without atrophy after the exfoliation laser procedure.

Preferably, the laser setting module included in the non-exfoliating laser guide module does not necessarily need to be a smooth beam and a fractional laser setting module, and may be exchanged for a non-exfoliating laser type that may exhibit the same effect.

The smooth beam laser setting module assumes that the dermabrasion has been performed and then proceeds to the next smooth beam. It guides the laser to the procedure and provides basic setting information.

That is, for example, setting information of a smooth beam laser having a spot size of 6 mm, a wavelength of 12.5 J / cm ² , 1,450 nm, and overlap information may be provided.

Preferably, because of the effect of sustaining the regenerative mechanism of the smooth beam laser described above, the smooth beam laser treatment can be further performed between the peeling laser treatment and the fractional laser treatment. The guide module 100 is configured to support the function of separately adding the module between the laser setting modules.

Fractional laser setting module is fractional It guides the laser to the procedure and provides basic setting information.

Fractional laser irradiates skin tissue with numerous micro laser beams to induce epidermal and dermal regeneration at the same time. The formation of microscopic necrosis columns of hair thickness allows the regeneration mechanism of surrounding tissues to proceed very rapidly.

However, due to the characteristics of the fractional laser, the fractional laser has a limitation in actually performing the peeling function such as scar contouring. In particular, in the case of the scar shown in FIG. 2, it is very difficult to form the scar contour with the fractional laser. to be.

Accordingly, the present invention provides setting information focusing on the regeneration mechanism activation and sustaining function, rather than the peeling laser function of scarring the fractional laser.

Preferably, it also provides setting information that can also serve as a slight peeling function while performing regeneration mechanism activation and sustaining functions.

Preferably, for example, using a Fraxel or Cellar laser having a wavelength of 1,550 nm provides setting information and density information to have about 500-1000 fine necrotic zones.

5 is a main step diagram of a method using a non- thickening scar treatment system using a laser according to an embodiment of the present invention, Figure 6 is a schematic for explaining the overlap information included in the laser setting information according to the present invention It is a schematic diagram, and FIG. 7 is a schematic schematic diagram for demonstrating density information contained in the fractional laser setting information which concerns on this invention.

First, it will be noted that the parts already described with reference to FIGS. 1 to 4 are omitted or briefly mentioned.

First, in step s100, the erbium-yag laser setting module included in the peelable laser guide module provides erbium-yag laser setting information for non- thickening scars.

Erbium-Yag laser setting information includes laser information such as pulse width, irradiation intensity, pulse frequency and overlap information and scar contour information.

The overlap information includes overlap ratio and gradation, which will be described with reference to FIG. 6.

In general, when irradiating a pulsed laser through a probe, each beam pulse is irradiated with temporal and spatial Gaussian curve characteristics, the irradiation area is different depending on the spot size and intensity, and the cross section of the beam pulse It is usually circular in shape.

In Fig. 6, the cross section of the beam pulse is expressed in a circular shape, and the laser intensity increases as the center portion thereof is shaded.

In addition, the overlap ratio is represented by the length overlapping the radius of the circle, as shown in the example of Figure 6 (a).

In general, the overlap ratio is used to determine whether or not laser stimulation is evenly applied to the area to be treated in the actual laser treatment, or selectively stimulates evenly only the necessary parts, and reduces the amount of other stimuli.

In other words, since the laser beam has a high laser intensity at the central portion of the beam pulse, when the beam pulse is irradiated at an overlap ratio of 20% to 25%, the stimulus of uniform intensity is averaged.

However, since the overlap ratio is appropriately changed according to the type of scar, there is a need to irradiate a laser. The overlap information to be provided by the present invention is to change the overlap ratio according to the shape or depth of the scar. As in the case of), it includes information about a gradual increase, a gradual decrease, or a constant ratio.

On the other hand, the additional consideration is that if the operator grabs the laser probe with his hand and irradiates it, there is a limit to maintaining the constant ratio even though the operator wants to irradiate the same ratio, and the overlap ratio is selectively applied depending on the shape of the scar. Even if it is desired, there is a limit to adjusting the ratio as desired.

Therefore, even if the procedure is performed with the same setting information, there is a possibility that the difference in the actual overlap ratio or degree of change between the operators.

Therefore, it is preferable that the laser is automatically driven and irradiated according to the laser setting information provided by the guide module 100 including the overlap information, which is applied to another embodiment of the present invention.

Meanwhile, the overlap information is not limited to the case shown in FIG. 6 (b), and various changes information may be provided according to the shape or depth of the scar.

Scar contour information is information that creates contours, or new scars, with little thermal damage to surrounding tissues. The scar boundary is smooth and the overall shape is round or smooth, with the concave above the center. Information to make shape.

In step s200, the CO ₂ laser setting module included in the dermabrasion laser guide module provides the CO ₂ laser setting information for the thickening scar.

The CO ₂ laser setting information includes laser information such as pulse width, irradiation intensity, pulse frequency and overlap information, and procedure pattern information.

The treatment pattern information is information to form a straight pattern in all four directions in a perpendicular direction to the scar contour, and the final pattern is different according to the shape of the scar.

In step s300, the smooth beam laser setting module included in the non-skinning laser guide module provides the smooth beam laser setting information for the non- thickening scar.

The smooth beam laser setting information includes laser information such as spot size, wavelength, overlap information, and contact pressure of each part of the probe, and reproduction sustaining information.

The regeneration sustaining information is information that allows a completely switched on regeneration mechanism to be sustained after the peeling laser procedure, and includes irradiation area and laser intensity.

In step s400, the fractional laser setting module included in the non-skinning laser guide module provides fractional laser setting information for the non-hickening scar.

The fractional laser setting information includes laser information such as spot size, wavelength, irradiation intensity and density information, and regeneration activation information.

Density information includes energy density and irradiation density, which is described using FIG. 7.

As described above, the fractional laser irradiates a large number of micro laser beams to form 500 to 1000 micronecrotic pillars (MTZs). In general, the micro laser beams have a constant energy density and irradiation density. Is investigated.

In the case of Fig. 7 (a), the surface shape of the skin irradiated with the fractional laser is irradiated with a constant energy density and irradiation density.

However, there is a need to gradually change the energy density or irradiation density in a desired direction depending on the shape and depth of the scar.

Therefore, the density information to be provided by the present invention is to change the energy density and irradiation density according to the shape or depth of the scar, it provides information to enable a variety of patterns as in the case of Figure 7 (b).

7 (b) shows four cases, where the upper left side has an increase in energy density and a constant irradiation density, and the upper right side has a constant energy density and irradiation density, and the lower left side has an energy density and irradiation density. If both increase, the bottom right is where the energy density is constant and the irradiation density is increased.

On the other hand, the density information is not limited to the case shown in Figure 7 (b) can be provided of a variety of change information according to the shape or depth of the scar, of course.

The regeneration activation information is information for further activating a mechanism in which regeneration is in progress, and includes irradiation area, laser intensity, and the like.

Preferably, the information provided in each step provides a plurality of pieces of information, for example, the scar outline information includes a plurality of scar outlines according to the shape of the scar.

Preferably, when each piece of information provides a plurality of pieces of information, the most appropriate piece of information is managed first.

8 is a main configuration of a scar and skin disease treatment system using a laser according to another embodiment of the present invention.

First, in the present invention, it is revealed that the skin diseases other than scars are pigmented diseases and vascular diseases.

The guide module 200 includes a non-hypertrophic scar guide module, a pigmented disease guide module, a vascular disease guide module and a thickening and keloid scar guide module.

Preferably, the pigmented disease guide module, the vascular disease guide module, the thickening and the keloid scar guide module may be optionally included according to design conditions.

The non-hypertrophic scar guide module uses what is included in the guide module 100 of FIG. 3, and thus, the parts described in relation to the non-hypertrophic scar guide module using FIGS. 1 to 7 are omitted or briefly mentioned. To reveal.

Preferably, as the guide module 100 is interlocked with related systems, the guide module 200 is also configured to be interoperable with various types of patient management systems, diagnostic systems, and laser systems used in dermatology hospitals.
Also preferably, the guide module 200 provides the laser setting information according to the shape, size of the scar and pigment and lesion of the disease, in which case the guide module 200 is already included in the guide module 200 or Information built in a database or a memory included in the system in which the guide module 100 is located is used.

The pigmented disease guide module includes a pigment laser setting module, and the pigment laser setting module provides pigment laser setting information.

Generally, pigmented disease refers to birthmarks, tattoos, freckles, spots, keratosis, pigmentation and blemishes, and is treated with a pigment laser that selectively destroys only the pigment and does not damage surrounding tissues.

However, in the case of pigment laser treatment, new pigmentation may be generated at the treatment site, which may be caused by a strong laser stimulation than necessary.

Therefore, the dye laser setting module of the present invention provides laser information and overlap information according to the shape of the treatment target area and the degree of pigmentation.

The laser information includes the spot size, the wavelength and the intensity, and the overlap information includes the overlap ratio and the degree of change as described with reference to FIG. 6.

For example, if a circular pigmented disease is severely pigmented toward the central part, laser information according to the shape size, etc., and overlap information such as the overlap ratio increases toward the center and the overlap ratio decreases toward the periphery are provided. In this case, the periphery can significantly reduce the possibility of new pigmentation.

The vascular disease guide module includes a vascular laser setting module, and the vascular laser setting module provides vascular laser setting information.

In general, vascular disease refers to hot flashes, hemangiomas, and capillary dilatation, and the like, and is treated using a vascular laser that destroys blood vessels by oxidizing hemoglobin as a laser irradiation target.

However, in the case of vascular laser treatment, like pigment laser, new pigmentation may be generated at the treatment site, which may be due to laser stimulation more than necessary.

Accordingly, the vascular laser setting module of the present invention provides laser information and overlap information according to the shape and lesion state of the region to be treated.

For example, the laser information may vary according to the thickness and color information of the blood vessel provided from the diagnostic system. Information can be provided.

The laser information includes pulse width, spot size, wavelength, intensity, contact pressure for each part of the probe, and the like, and the overlap information includes overlap ratio and degree of change as described with reference to FIG. 6.

The thickening and keloid scar guide module includes a vascular laser setting module and a high frequency instrument setting module.

In general, thickening and keloid scars are cases in which a scar is generated above the normal skin level after skin damage as described in FIG. 1 (a), which removes the accumulated collagen and prevents further colloid accumulation. The procedure is necessary.

Therefore, various apparatuses capable of performing such an object can be used, and the present invention provides setting information when using a vascular laser and a high frequency device.

The vascular laser setting module provides laser information and overlap information according to the shape or size of the scar. The laser information includes pulse width, spot size, wavelength, intensity, contact pressure of each part of the probe, and the overlap information is illustrated in FIG. 6. As described above, the overlap ratio and degree of change are included.

The high frequency device setting module also provides setting information including temperature, heating depth and irradiation distribution depending on the shape or size of the scar.

Meanwhile, the setting module included in the thickening and keloid scar guide module may be replaced with another type of laser setting module which may have the same effect.

9 is a main configuration of a scar and skin disease treatment system using a laser according to another embodiment of the present invention.

The scar and skin disease treatment system 300 using the laser includes a diagnosis unit 310, a guide unit 320, a control unit 330, and a laser unit 340.

Preferably, according to the design conditions, the laser unit 340 may be implemented by employing a conventional laser device or a device incorporating lasers and high frequency devices used in the present invention.

First, the diagnosis unit 310 includes a skin measurement module and a camera module, and forms diagnostic information and provides the diagnosis information to the guide unit 320 and the control unit 330.

The skin measurement module is used to determine the thickness of the epidermis and dermis and the scar thickness of the region to be treated, and forms skin thickness information including thickness information of each region.

In addition, the skin thickness information may further include blood vessel thickness and color information of the region to be treated.

The skin measurement module may be configured using an ultrasonic wave or an image sensor, and various types of measurement modules may be employed according to design conditions.

In addition, the skin measurement module is operated in conjunction with the camera module, so that the skin is measured at the same time when the camera is photographed while scanning the skin.

The camera module photographs while scanning the region to be treated, and then forms photographing information to enable three-dimensional processing.

In addition, the camera module uses a grid as a screen background or forms a grid separately after capturing and includes the grid in the photographing information. This is to indicate the coordinates of the location of the treatment target region.

Preferably, the grid is defined to be formed at a predetermined interval based on a predetermined position, for example, based on the center of the line connecting both eyes or the center and the nose of the two eyes, and then the baseline or the interval may be newly adjusted.

The skin thickness information of the skin measurement module and the photographing information of the camera module are combined together to form diagnostic information, which is then used to form a two-dimensional or three-dimensional image, and also the same site when the patient visits after a certain period of time. It is used to find and recognize.

The guide unit 320 includes a 3D processing module, a guide module, and a treatment determination module.

In addition, a feedback module, a memory module, and a face recognition module may be selectively included according to design conditions.

The 3D processing module forms real-time two-dimensional and three-dimensional images by using the diagnostic information transmitted from the diagnosis unit 310.

In addition, the process of enlarging the desired portion of the two-dimensional and three-dimensional image, or rotating the angle of the three-dimensional image to be viewed.

In addition, the two-dimensional and three-dimensional images represent the position coordinates of the treatment target area while the grids overlap each other, and the grid can be erased from the screen by the operator's selection.

In addition, by reflecting the skin thickness information in the two-dimensional and three-dimensional image, the thickness of the epidermis, the dermis, and the scar may be numerically displayed together, and the desired area is represented by cross-sectional image processing.

In addition, by reflecting the thickness and color information of the blood vessel in the two-dimensional and three-dimensional image, it can be numerically displayed along with the information on the epidermis and the dermis, and the desired portion is represented by cross-sectional image processing.

In addition, the image processing is performed by reflecting the setting information provided by the guide module. For example, the scar outline may be superimposed on the region to be treated by reflecting the scar outline information.

In addition, the treatment decision module reflects the changed setting information to perform image processing.

In addition, when the patient comes to visit after a certain period of time, the treatment target area is displayed by using previously stored images and position coordinates stored in the memory module and the face recognition module.

In addition, the newly formed image and position coordinates are processed to be displayed in comparison with the existing image and position coordinates.

As the guide module, the guide module 100 described with reference to FIG. 3 or the guide module 200 described with reference to FIG. 8 is basically used, and a separate module may be added according to design.

First, it will be noted that the above-described portions of the guide module (100, 200) are omitted or briefly mentioned.

Each laser setting module of the guide module provides corresponding setting information with reference to the diagnostic information provided by the diagnosis unit 310 and the image processed by the 3D processing module.

Specifically, if the shape and depth of the scar corresponds to the non-hypertrophic scar described with reference to FIGS. 1 and 2, the non-hypertrophic scar guide module provides setting information.

That is to form and provide the appropriate setting information from the image reflecting the skin thickness and position coordinates of the treatment target area, for example, the Erbium-Yag laser setting module provides the scar contour information and laser information most suitable for the treatment target area.

In addition, it is determined whether the region to be treated is a pigmented disease or a vascular disease to provide corresponding setting information.

That is, it is determined whether pigmentary or vascular based on skin thickness information and imaging information (including color tone) included in the diagnostic information and an image provided by the 3D processing module, and the setting information is provided by the corresponding guide module.

In addition, if the shape and depth of the scar corresponds to the thickening and keloid scars, the thickening and keloid scar guide module will provide the setting information.
Preferably, when the guide module provides the information on the setting of the radar, it is possible to use the information already established in the database already included in the guide module or in the memory module that can be added according to the design conditions. Therefore, the appropriate laser setting information is provided.

The treatment decision module provides a single screen interface including images provided by the 3D processing module and setting information provided by the guide module, thereby providing an interface for the operator to make treatment decisions or change laser setting information.

First, the treatment determination module combines the diagnostic information provided by the diagnosis unit 310, the image provided by the 3D processing module, and the setting information provided by the guide module.

The treatment decision module also provides an interface for changing setting information such as scar contour, laser irradiation area and laser information.

That is, overlap information, scar contour information, procedure pattern information, and irradiation, including information such as spot size, pulse width, pulse frequency, irradiation intensity, and contact pressure, included in the laser information provided by the guide module The present invention provides an interface for changing an area and the like using an input device including a keyboard, a mouse, or a joystick.

For example, the laser irradiation area provides an interface for dragging with a mouse on a displayed image to select a block and drawing an area having a curved boundary with the mouse.

In addition, the setting information changed in the treatment determination module is configured to be transmitted to the 3D processing module to be reflected in the image in real time.

In addition, when the laser treatment is determined by adopting or partially changing the setting information provided by the guide module through the treatment determination module, the treatment determination information is formed, which is transmitted to the controller 330 to perform a subsequent series of operations.

For example, when the laser irradiation area and the CO ₂ laser setting information are selected, the treatment determination information is formed by combining the CO ₂ laser information and the treatment pattern information with respect to the area to be irradiated, and the information is transmitted to the controller 330. .

The feedback module receives the situation in which the laser is performed by the treatment decision information transmitted from the treatment decision module from the diagnosis unit 310 in real time or at predetermined time intervals, and monitors whether the procedure is performed according to the setting information.

If the result of laser treatment is greatly out of comparison with the setting information, the system will be stopped immediately and an alarm will sound according to the setting.

In addition, if the result of the laser procedure is within the allowable value, the laser setting information is changed finely according to the setting and transmitted to the treatment decision module so that appropriate feedback is performed.

For example, in a procedure where the laser is irradiated according to the scar contour information, the intensity is increased finely within the allowable value and the laser irradiation depth is shallow, and the intensity is decreased finely when the laser irradiation depth is deep within the allowable value.

Preferably, the degree to which the feedback setting information is changed may be set by the operator through the treatment decision module and configured to be monitored through the screen.

In addition, the feedback module continuously monitors the direction in which the laser is irradiated, and performs a function of feeding back the laser so that the laser is always irradiated perpendicularly to the area to be treated.

In general, when the operator grasps the laser probe by hand and irradiates the laser, the vertical is not maintained due to the slight shaking of the hand, which becomes more difficult when the area to be treated is in the curved area of the face.

Therefore, the feedback module determines whether the laser irradiation direction is irradiated perpendicularly to the area to be treated from the skin thickness information, the imaging information, and the two- and three-dimensional images transmitted in real time or at predetermined time intervals, so that the actuator and / or gantry of the laser Feedback control.

The actuator of the laser can be controlled through the laser drive module of the controller 330, and the gantry control will be described later.

In addition, the pressure that the probe contacts the skin is monitored in real time, and the function of feeding back the set value set for each part does not deviate within the allowable value.

The memory module stores the patient's diagnostic information, setting information, and two-dimensional and three-dimensional images of the face and skin target area.The memory module is stored before and after the procedure. You may lose.

The face recognition module calculates and stores the coordinates of the face and the position coordinates of the treatment target area by using two-dimensional and three-dimensional images of grids superimposed by the 3D processing module. When you come to visit after a certain period of time, you can compare the reference point and the position coordinates of the treatment target area to accurately find the treatment target area and check the degree of improvement.

That is, when the camera module forms a grid and includes it in the shooting information and transmits it to the 3D processing module, the 3D processing module digitizes each position coordinate and processes and displays the image. The face recognition module is a reference point of the face-for example, eyes and nose. , Ear, etc.-and the position coordinates of the area to be treated will be calculated and stored.

Therefore, when the patient visits again and newly forms the diagnostic information and the image, it is possible to compare with the existing information, thereby accurately finding the treatment target area.

On the other hand, in addition to the above-described face recognition method may be implemented by employing a conventional face recognition module.

In addition, the storage of the position coordinates may of course use a memory module.

On the other hand, using the principle of the face recognition module, but by changing the design can be applied to the skin recognition module to recognize the skin of the arms, legs and other body parts.

The controller 330 is configured to control the laser procedure by receiving treatment determination information from the treatment determination module of the guide unit 320, and includes a laser setting module and a laser driving module.

Preferably, the controller 330 may be added or partially modified according to the design of the laser unit 340.

That is, in the case of employing a conventional laser device for the laser unit 340, a module for performing an interface function for controlling the existing laser device may be added.

In addition, the gantry driving module may be further included to control the gantry.

The laser setting module prepares to drive the laser unit 340 according to the type of laser, pulse width, pulse frequency, intensity and overlap information, contact pressure, etc. using the setting information included in the treatment determination information.

The laser driving module drives the laser module of the laser unit 340 so that the laser is irradiated to the irradiation area of the selected treatment target region by using the irradiation area and setting information included in the treatment determination information.

That is, the laser driving module controls the driving of the actuator, the probe joint, and other mechanical driving means included in the laser unit 340.

For example, if the treatment decision information includes the irradiation area and the CO ₂ laser setting information, the laser module is driven so that the laser is irradiated with the pattern included in the treatment pattern information for the area to be irradiated.

The laser unit 340 includes a laser module, and may include cooling means or other mechanical means separately depending on the design.

The laser module may include a laser device used in the existing or may be configured to include a plurality of lasers used in the present invention integrally.

In addition, according to the design, the laser unit 340 may be configured to include a high frequency device.

Meanwhile, although the embodiment of the present invention described with reference to FIG. 9 has been described based on scars and skin diseases formed on the face, the same principles can be applied to scars and skin diseases of arms, legs and other general body parts other than the face. Of course it can.

FIG. 10 is a schematic view of implementing a scar and skin disease treatment system using the laser of FIG. 9.

First, the shape of the schematic diagram of the present system can be changed according to the design conditions, it should be noted that the present invention is not limited to the schematic diagram of FIG.

A plurality of scan units 410 are formed on the gantry semi-circular roof side to scan the skin of the patient and form diagnostic information.

Preferably, the scan unit 410 may be formed with the diagnostic unit 310 described with reference to FIG. 9, and a separate module may be added according to design conditions.

In addition, the position at which the scan unit 410 is attached may be changed according to design conditions.

Fixing device 420 is a device for fixing the head of the patient, the length is variable is configured to fix the head of various sizes, but the reference point of the head or face is always configured to be in the same position.

For example, the reference point such as the crown, cheekbones, eyes, or nose is configured to be consistent with the scan direction of the scan unit 410 at a predetermined point.

This is to ensure that the position coordinates of the treatment target area are always the same, and assists the camera module, the feedback module, and the face recognition module to be normally performed. It allows you to compare exactly how much your skin has improved.

The device unit 430 may include the control unit 330 and the laser unit 340 described in FIG. 9, and in the case of employing a conventional laser device, the control unit 330 is included in the monitoring unit 440.

The monitoring unit 440 may be formed to include the guide unit 320 described with reference to FIG. 9, and a separate module may be added according to design conditions.

On the other hand, depending on the design conditions, it is obvious that the laser unit 340 may be included in the scan unit 410.

FIG. 11 is a schematic view of a scar and skin disease treatment system using the laser of FIG. 9 differently from FIG. 10.

It is to be noted that the above description is omitted or briefly mentioned.

Probe guide means 520 and the probe inserting portion 530 is formed in the gantry, the portion in which the probe guide means 520 is formed is configured to be rotated to the left and right.

The probe insertion unit 530 into which the laser probe of the device unit 540 is inserted is fixed so that the probe is not shaken but is moved in the vertical direction, and the probe guide means 520 formed in the X and Y axis directions Provides a path that can be moved along the X and Y axes.

That is, as the control unit 330 is driven, the laser probe moves along the guide unit 520 while being fixed to the insertion unit 530 to irradiate the laser, taking the shape of the treatment target area and the irradiation angle of the laser into consideration. Gantry will rotate left and right.

Specifically, the laser driving module controls the probe according to the setting information included in the treatment determination information, thereby allowing the probe to move along the probe guide means 520, and the gantry is left and right under the control of the feedback module and the gantry driving module. To rotate.

Therefore, the laser beam can be more stably irradiated by inserting and guiding the probe. In addition, since the gantry rotates from side to side and the probe can move in the vertical direction and the front, rear, left and right directions, it is always perpendicular to the curved surface of the skin such as the face. The tilt of the probe can be tilted so that the laser is always irradiated perpendicular to the area to be treated.

On the other hand, by providing an adapter that can be inserted into the probe inserting portion 530 in preparation for interworking with the existing laser device, the handpiece of the existing device can also be mounted.

Meanwhile, the probe guide means 520 and the probe insertion part 530 may be formed in a configuration capable of performing the same function in addition to the shape of FIG. 11.

FIG. 12 is a schematic view of a scar and skin disease treatment system using the laser of FIG. 9 differently from FIGS. 10 and 11.

It is to be noted that the above description is omitted or briefly mentioned.

After the patient's head is fixed by the fixing device 620, the arm-type diagnosis and the laser units 610-1 and 610-2 start diagnosis based on the facial reference point.

In addition, under the control of the monitoring unit 630, the laser type diagnosis and laser units 610-1 and 610-2 are driven with laser irradiation.

For example, the diagnosis unit 310 and the laser unit 340 may be merged into the female diagnosis and laser units 610-1 and 610-2, and the guide unit 320 and the control unit 330 may be a monitoring unit 630. ) Can be merged with

Preferably, when the laser driving is started after the diagnosis is performed with the face reference point set to zero, the female joint moves around the reference point, and may be designed to be driven by finding X, Y, and Z coordinates.

Meanwhile, the female diagnosis and laser units 610-1 and 610-2 may be designed such that both diagnosis and laser functions are merged or one side only performs diagnosis and one side performs only a laser function.

Meanwhile, two female diagnosis and laser units 610-1 and 610-2 may be formed as shown in FIG. 12, or may be changed in design so that three or more or only one is formed. Of course, it can be changed in various ways.

Meanwhile, the above descriptions using only FIGS. 1 to 12 describe only the main matters of the present invention, and the present invention may be applied to the configurations and methods of FIGS. 1 to 12 as long as various designs are possible within the technical scope. It is obvious that it is not limited.

The non- thickening scar treatment system using the laser of the present invention provides skin peeling laser and non-skin peeling laser setting information suitable for the treatment of non- thickening scars, thereby preventing the non- thickening scars that cannot be cured when treated with the peeling laser alone. It can have a significant therapeutic effect on common hypertrophic scars, including.

The scar and skin disease treatment system using the laser of the present invention provides the peeling laser and non-dermalizing laser setting information suitable for the treatment of non- thickening scars, and the pigment laser setting information and the vascular laser setting, respectively, suitable for pigmentary diseases and vascular diseases. By providing information and laser setting information suitable for the treatment of thickening and keloid scarring, such as generalized non- thickening scars, pigmented diseases, and vascular diseases, including non- thickening scars that cannot be cured when treated with a peel laser alone And remarkable therapeutic effects on thickening and keloid scars.

The non- thickening scar treatment system using the laser of the present invention provides the peeling laser and non-skinning laser setting information suitable for the treatment of non-hickening scar, wherein the peeling laser setting information includes scar contour and surgical pattern information, and non-skinning The laser setting information includes regeneration sustaining and activation information, so that the laser is automatically driven, thereby ensuring an excellent therapeutic effect for non-hypertrophic scars at all times.

The scar and skin disease treatment system using the laser of the present invention forms a two-dimensional and three-dimensional image using the skin thickness information and imaging information, and configures a treatment decision interface screen using the image and the laser setting information, By selecting the laser irradiation area and setting information on the determination interface screen, the laser is automatically driven accordingly, so that a customized treatment for various scars and skin diseases can always be guaranteed.

The scar and skin disease treatment system using the laser of the present invention forms a two-dimensional and three-dimensional image using the skin thickness information and imaging information, and configures a treatment decision interface screen using the image and the laser setting information, When the laser irradiation area and setting information is selected on the determination interface screen, the laser is driven accordingly, but the treatment status is monitored to change the setting information within the allowable value, and the laser is always irradiated vertically, before and after the image and setting. It has the significant effect that information is stored.

Scar and skin disease treatment system using a laser of the present invention, forming the two-dimensional and three-dimensional image using the skin thickness information and imaging information, and configure the treatment decision interface screen using the image and the laser setting information, It has a remarkable effect of accurately finding the area to be treated using the image and position coordinates stored in the.

The scar and skin disease treatment system using the laser of the present invention forms a two-dimensional and three-dimensional image using the skin thickness information and imaging information, and configures a treatment decision interface screen using the image and the laser setting information, When the laser irradiation area and setting information are selected on the determination interface screen, the laser is driven accordingly, but the laser probe is inserted into the gantry to move along the guide means, and the gantry of the portion where the laser probe is inserted is rotated to the left and right to irradiate the laser. It has a remarkable effect of maintaining the probe angle so that the laser is stably irradiated and always perpendicular to the curved surface of the skin.

1 is a schematic diagram for explaining a cross section of a scar to which the present invention is applied.
FIG. 2 is a schematic showing the limitation of the effect of dermabrasion laser treatment on non- thickening scars.
3 is a main configuration of a thickening scar treatment system using a laser according to an embodiment of the present invention.
Figure 4 is an example utilizing a non- thickening scar treatment system using a laser according to an embodiment of the present invention.
5 is a main step diagram of a method using a non- thickening scar treatment system using a laser in accordance with one embodiment of the present invention.
6 is a schematic diagram for explaining overlap information included in laser setting information according to the present invention.
7 is a schematic diagram for explaining density information included in fractional laser setting information according to the present invention.
8 is a main configuration of a scar and skin disease treatment system using a laser according to another embodiment of the present invention.
9 is a main configuration of a scar and skin disease treatment system using a laser according to another embodiment of the present invention.
FIG. 10 is a schematic view of implementing a scar and skin disease treatment system using the laser of FIG. 9.
FIG. 11 is a schematic view of a scar and skin disease treatment system using the laser of FIG. 9 differently from FIG. 10.
FIG. 12 is a schematic view of a scar and skin disease treatment system using the laser of FIG. 9 differently from FIGS. 10 and 11.

100, 200: guide module 310: diagnostic unit 320: guide unit
330: control unit 340: laser unit 410: scanning unit
420: fixed device 430: device part 440: monitoring unit
510: scanning unit 520: probe guide means
530: probe insertion unit 540: device unit 550: monitoring unit
610-1, 610-2: arm type diagnosis and laser unit 620: fixed device
630: monitoring unit

Claims

A peeling laser guide module for providing peeling laser setting information; And
A non-exfoliating laser guide module that provides non-exfoliating laser setting information
Including, the skinning laser setting information and non-skinning laser setting information is provided according to the shape, size and depth of the non-hickening scar,
The peeling laser setting information includes pulse width, irradiation intensity, pulse frequency, overlap ratio and overlap gradient;
The non-exfoliating laser setting information includes spot size, wavelength, overlap ratio, degree of overlap, probe contact pressure, irradiation area and irradiation energy intensity, irradiation density and energy density. Treatment system.

The method of claim 1,
The peeling laser setting information includes scar contour information, wherein the scar contour information is information for forming a scar contour in which a scar boundary is continued without an angle, the overall shape is round, and the concave is formed on the center. Non-hypertrophic scar treatment system.

The method of claim 2,
The peeling laser setting information includes the surgical pattern information, wherein the surgical pattern information is information for forming a straight pattern in all directions in a direction perpendicular to the scar contour formed according to the scar contour information. Non-hypertrophic scar treatment system.

delete

The method of claim 1,
The non-dermabrasion laser setting information includes regeneration sustaining information, wherein the regeneration persistence information includes spot size, wavelength, overlap ratio, degree of overlap, probe contact pressure, irradiation area, and irradiation to allow skin regeneration to be sustained after the peeling laser procedure. Non- thickening scar treatment system using a laser, characterized in that the information providing energy intensity.

6. The method according to claim 1 or 5,
The non-exfoliating laser setting information includes regeneration activation information, wherein the regeneration activation information is information providing spot size, wavelength, irradiation intensity, irradiation area, irradiation density and energy density so that regeneration is activated. Characterized by the laser for non-hypertrophic scar treatment system.

Providing peel laser setting information; And providing non-exfoliating laser setting information, wherein the exfoliating laser setting information and non-exfoliating laser setting information are provided according to the shape, size and depth of the non-hickening scar.
The peeling laser setting information includes pulse width, irradiation intensity, pulse frequency, overlap ratio and overlap gradient;
The non-exfoliating laser setting information includes spot size, wavelength, overlap ratio, degree of overlap, probe contact pressure, irradiation area and irradiation energy intensity, irradiation density and energy density. Guide to the treatment of the.

The method of claim 7, wherein
Providing the peeling laser setting information includes the erbium-jag laser setting step; And CO ₂ laser setting step,
The Erbium-Yag laser setting step provides scar contour information.
The CO ₂ laser setting step provides treatment pattern information.

The method of claim 7, wherein
Providing the non-exfoliating laser setting information includes: smooth beam laser setting step; And a fractional laser setting step,
The smooth beam laser setting step provides regeneration sustaining information,
A fractional laser setting step provides regenerative activation information.

Non-hypertrophic scar guide module;
Pigmented disease guide module;
Vascular disease guide module; And
Including thickening and keloid scar guide modules,
According to the shape, size and depth of the scar and pigment and lesion of the disease, the guide module provides the laser setting information,
The laser setting information includes a laser comprising a pulse width, a radiation intensity, a pulse frequency, an overlap ratio, an overlap gradient, a spot size, a wavelength, a probe contact pressure, an irradiation area, an irradiation density, and an energy density. Scar and Skin Disease Treatment System.

Diagnostic unit; Guide part; Control unit; And a laser unit,
The diagnostic unit forms diagnostic information including skin thickness information and photographing information.
The guide unit forms two-dimensional and three-dimensional images using the diagnostic information, and provides laser setting information corresponding to scars and skin diseases.
The control unit is a laser and scar disease treatment system using a laser, characterized in that for controlling the laser unit according to the laser setting information provided by the guide unit.

The method of claim 11,
The guide portion non- thickening scar guide module; Pigmented disease guide module; Vascular disease guide module; And thickening and keloid scar guide modules,
Wherein each guide module provides laser setting information according to the shape, size and depth of the scar and pigment and lesion of the disease.

The method of claim 11 or 12,
The guide unit forms a treatment determination interface screen including the 2D and 3D images and laser setting information.
The interface screen is a system for treating scars and skin diseases using a laser, characterized in that the laser irradiation area and setting information is selected to be selected.

The method according to claim 11 or 12,
The guide unit includes a feedback module,
The feedback module monitors that the control unit drives the laser unit, and immediately stops the system and sounds an alarm when the laser is driven beyond the laser setting information beyond the allowable value.
Scar and skin disease treatment system using a laser, characterized in that for changing out of the laser setting information and within the allowable value by changing the laser setting information according to the setting to the control unit.

The method of claim 11,
The guide unit includes a memory module,
The memory module is a laser and scar disease treatment system using a laser, characterized in that for storing the diagnostic information, the two-dimensional and three-dimensional image and video, laser setting information before and after driving the laser unit.

The method of claim 15,
The guide unit includes a face recognition module,
The face recognition module calculates a position of a reference point and a treatment target area by using the diagnostic information and information stored before and before driving the laser.
A system for treating scars and skin diseases using a laser, characterized in that a reference point and a treatment target area can be designated on a face after treatment.

The method of claim 15,
The guide unit includes a scar recognition module,
The scar recognition module calculates the position of the reference point and the treatment target area by using the diagnostic information and the information stored before and before the laser driving.
A system for treating scars and skin diseases using a laser, characterized in that a reference point and an area to be treated can be designated in the scar after the treatment.

The method of claim 11, further comprising a gantry
The gantry is formed with a laser probe insertion portion and a laser guide means, the gantry of the portion where the laser guide means is formed to be rotatable from side to side,
The laser probe of the laser unit is inserted into the insertion unit is moved vertically, and moved back, front, left and right according to the guide means, the scar and skin using a laser, characterized in that the laser probe is irradiated while the gantry is rotated left and right Disease treatment system.

The method of claim 18, further comprising a probe adapter,
When the laser device previously used in the laser unit is used, the scar and skin disease treatment system using a laser, characterized in that to insert the handpiece of the existing device to the probe adapter to be inserted into the probe insert.

The method of claim 11, further comprising a gantry

Scar and skin disease treatment system using a laser, characterized in that the laser unit is installed in the gantry.

The system for treating scars and skin diseases using laser according to claim 11, wherein the diagnosis unit and the laser unit are combined to be formed by arm-shaped means, or respectively formed by arm-shaped means. .