JP4977457B2 - Laser diode light direct generator for beauty - Google Patents

Description

  The present invention is an apparatus for generating and irradiating laser light that does not depend on the Q-switch system, and is a small and light laser diode light having a simple structure suitable for hair removal and stain removal for beauty and the like, which can be used safely and easily. It relates to a direct generator.

  Laser light oscillation forms include CW (continuous wave) pulses and single pulses. When a high peak laser light is generated with a short pulse of 1 μs or less, the Q-switch method is usually used. However, the laser generator using the Q switch method has a complicated structure, becomes large and heavy, and it is not easy for a human to use it with one hand.

  By the way, the conventional epilation device using laser light reflects the laser beam irradiated with a small spot diameter sequentially by the first and second adjustable tilting mirrors whose axial directions are different by 90 degrees to thereby adjust the coordinate axis. There is one that scans in the X-axis direction and the Y-axis direction and detects the irradiation state by an image sensor so that the irradiation of the laser beam is adapted to the target position (Patent Document 1). However, the pulse width of the laser beam is considerably large as 1 ms to 100 ms (the specific structure of the laser source is not clearly shown), and the same portion is irradiated with the laser beam repeatedly due to an operational error or the like. Doing so or prolonging the exposure time may cause irritation and burns to the skin. Furthermore, since there is no means for preventing the unexpected irradiation of laser light, there is a problem in safety in this respect, and the structure is complicated, the size is increased, and the weight is increased. However, there is a drawback that it is difficult to use in a depressed part of the human body.

  In addition, a single polygon motor or electromagnet-driven diaphragm having a mirror surface is arranged inside the casing in this type of epilation device, or the first and second polygons whose axial directions are different by 90 degrees. A motor or electromagnet-driven diaphragm, or scanning means that reciprocates the laser diode itself in the X-axis direction by a crank mechanism, or a bundle of optical fibers and a built-in optical fiber An optical scanning means is provided by making an external laser beam scanning device face the rear end of the fiber so that the laser beam emitted from the laser diode is optically irradiated in the coordinate axis X-axis direction. There is one that can efficiently perform a hair removal operation by irradiating the body hair with laser light (Patent Document 2). However, there is no indication as to what kind of characteristics the laser beam is used for, for example, the pulse width or peak power of the laser beam, and there is a risk of causing inflammation or burns in the skin in some cases. There is a risk of causing irritation and burns on the skin even if the same part is irradiated with a powerful laser beam or the irradiation time is prolonged. Of course, in this case as well, there is a problem in safety because there is no means for preventing the unexpected irradiation of the laser beam. In addition, since the laser diode of the laser source is separated from the driver device, the so-called pulse current becomes dull and there is a disadvantage that a high-peak laser beam cannot be obtained with a short pulse.

  In addition, an interlock sensor is installed around the laser emission port of the casing, and when the interlock sensor is pressed against the human skin surface during use, the laser light generator is activated, and when it is separated, the operation is automatically performed. There are some which are designed to be blocked (Patent Document 3, Patent Document 4). However, since these interlock sensors employ a pressure switch system, the tip is pushed in, and the irradiation distance and irradiation position of the laser light fluctuate, and there is a drawback that stable and good irradiation cannot be obtained.

JP-T-2002-541906 JP 2003-174922 A JP 2003-126276 A JP 2001-327323 A

  In other words, many laser beam generators have been developed today, but they are small devices that use laser diodes as the laser source, and generate high peak laser beams with short pulses of submicron seconds. However, there are no sub-micron-second short pulses of high-peak laser light that can be irradiated continuously and safely over a wide range (about 2 mm to 10 mm square) with an auto-scanning device. The above-mentioned laser diode as a source, a high-speed driver that generates high-peak laser light with a short pulse of submicron seconds, and the above-mentioned auto-scanning device are efficiently combined into a state in which the so-called pulse current is less dull. I can't find it.

  Furthermore, there is a possibility that the laser light may be unexpectedly emitted only by the manual start / stop switch. Therefore, it is possible to detect that the human skin surface has been touched and to emit the laser light only in the contact state. It is necessary for safety, and it is also necessary to obtain stable and good irradiation by avoiding variations in distance and position in the irradiation of the laser beam.

  The present invention is intended to solve the above-mentioned problems and the like, and uses a small-capacity and inexpensive laser diode without using a complicated and heavy high-cost Q-switch system. By using a high-speed driver device that has been made possible, it is possible to generate a high-peak laser beam with a short pulse of submicron seconds, a laser diode of the laser source, a miniaturized high-speed driver device for the laser diode, By efficiently deploying the laser beam auto-scanning device, the laser generator can be reduced in size and weight, improved in operability, etc. Also, the laser is detected only in the contact state by detecting contact with the human skin surface. Interlock sensor device that enables light emission or optics to detect the irradiation state of laser light to the target position By providing an electronic detection means, it is intended to make it possible for the melamine pigment of the skin to safely absorb the laser light, and in general, the laser generator can be easily realized at a low manufacturing cost. It is something to try.

From this point of view, the cosmetic laser diode light direct generator according to claim 1 of the present invention is equipped with a laser diode that directly emits laser light to the outside of the casing inside the casing having a laser emission port at the tip. a laser beam generating apparatus comprising Te, a high-speed driver device configured to generate a laser beam of high peak to have and the laser diode of the laser power supply unit connected to the laser diode with a short pulse of submicron seconds And the laser power source is adjacent to the laser diode .

The cosmetic laser diode light direct generator according to claim 1 is equipped with an auto scanning device that irradiates the laser light uniformly and continuously over a wide area inside the casing. In addition, the outer edge of the laser emission port is equipped with an interlock sensor device that prevents the operation of the high-speed driver device as long as it does not contact the surface of the human skin. A switch is provided, and power is supplied from the external power supply device to the high-speed driver device via the start / stop switch.

Claim 3 is, in the laser diode beam direct generator cosmetic according to claim 2, the high speed driver apparatus, electrically controlled by the CPU section provided with the laser power supply unit in the vicinity of the laser power supply unit In addition, the CPU unit is configured to electrically control the auto-scanning device in a certain relationship, and the CPU unit is configured to be electrically controlled by the interlock sensor device. Become.

A cosmetic laser diode light direct generator according to claim 1 is provided in the cosmetic laser diode light direct generator according to claim 1, and an auto scanning device that irradiates the laser light uniformly and continuously over a wide area inside the casing. It is equipped with an optical and electronic detection device for detecting the irradiation state of the laser beam, and an illuminating means is provided at the outer edge of the laser emission port.

According to a fifth aspect of the present invention, in the cosmetic laser diode light direct generator according to the fourth aspect, the cosmetic laser diode light direct generator is divided into a head device and a control device. Inside the casing for the head device provided with the injection port, the laser diode, the laser power source of the high-speed driver device close to the laser diode, the driving mirror of the auto-scanning device, and the optical electron The control device is provided with a central control unit and a drive control unit for electrically controlling the drive mirror inside the control device casing. The control unit is configured to electrically control the laser power supply unit and the drive control unit. To, to provide a start-stop switch that can be operated from the outside, and configured to provide a deactivation operation to the central control unit by the start-stop switch.

6. The cosmetic laser diode light direct generator according to claim 5, wherein the high-speed driver device operates as long as the outer edge of the laser emission port of the head device casing does not contact the human skin surface. It is equipped with an interlock sensor device that prevents this.

According to a seventh aspect of the present invention, in the cosmetic laser diode light direct generator according to the second, third or sixth aspect, the interlock sensor device is a micro electrical contact switch type.

  An eighth aspect of the present invention is the cosmetic laser diode light direct generator according to the second, third, fourth, fifth, sixth, or seventh aspect, wherein the automatic scanning device is electromagnetic. It consists of a coil system.

A ninth aspect of the present invention is the cosmetic laser diode light direct generator according to the second, third, fourth, fifth, sixth, or seventh aspect, wherein the autoscanning device is used. With a mechanical cam system.

  According to the present invention, the various problems described in the section of the problem to be solved by the invention can be solved, and the required hair removal and stain removal can be performed safely and efficiently without causing damage such as burns to the skin. In addition, the complicated and heavy high-cost Q-switch system does not require a large-capacity and expensive laser diode, it uses a small-capacity and inexpensive laser diode, has a simple structure, is small and lightweight, and is easy to use. A low-cost laser generator can be realized.

  The best mode for carrying out the present invention is to make laser light from a laser diode a short pulse with a frequency of 16 kHz inside or outside, a pulse width of about 1 μs or less, a peak power of 25 W inside or outside, a peak energy of 25 μJ inside or outside, and an average power of 0.4 W inside or outside. This is further condensed to a spot diameter of about 0.1 mm to 0.3 mm to form a fine laser beam, that is, a spot laser beam, and this spot laser beam is arranged at intervals of 0.02 mm to 0.08 mm in the coordinate axis X axis direction and Y axis direction. 2 mm to 10 mm square by reciprocating scanning in the coordinate axis X-axis direction to a width of about 2 mm to 10 mm with a line laser beam having a length of about 2 mm to 10 mm instead of the spot laser beam. Irradiate with about a square laser beam.

  FIGS. 1 to 3 show embodiments according to the laser diode optical direct generators of claims 1, 2, 3, 7, 8, and 9. Will be described in detail.

  As shown in FIG. 1, a laser diode light direct generator 1 is connected to an external power supply device 7 via a power supply cable 6, and the power supply device 7 converts an AC supplied from a household AC power supply to an appropriate value. It is converted into a direct current and supplied to the laser diode light direct generator 1 through the feeding cable 6.

  As shown in FIG. 1 and FIG. 2, the laser diode light direct generator 1 has a laser emission port 9 at the tip and a required laser beam in a casing 20 formed so as to be grasped by the palm of one hand. The laser diode device 3 to be emitted, the high-speed driver device 4 for the laser diode device close to the laser diode device 3, and the laser light emitted from the laser diode device 3 to the outside through the laser emission port 9 are coordinate axes X-axis. And an auto-scanning device 2 that scans in the Y-axis direction and the Y-axis direction, respectively, and an appropriate DC power supply current supplied from the power supply device 7 to the high-speed driver device 4 is manually turned on at an appropriate position on the casing 20・ Equipped with a start / stop switch 5 for turning off, a laser scanning lens 17 at the laser exit 9, and , The outer edge of the laser exit 9, the interlock sensor device 8 for electrically preventing the operation of the high speed driver apparatus 4 unless in contact with human skin surface is equipped.

  As shown in FIG. 3, the laser diode device 3 includes a laser diode 19 that emits laser light under the control of the high-speed driver device 4 and a focal length adjustment lens 18 for the laser light. The driver device 4 is arranged in the immediate vicinity of the laser diode 19 and controls the laser power supply unit 16 to emit a high-peak fine laser beam, that is, a spot laser beam, to the laser diode 19 with a required short pulse. It consists of a CPU unit 12. The CPU section 12 is turned on / off by the pulse width control section 13 and the frequency control section 14 for the laser power supply section 16, the start / stop switch 5 and the interlock sensor device 8, and the laser power supply section 16 and the frequency control section 13. The sensor control / switch unit 15 controls ON / OFF of the pulse width control unit 14 and the auto scanning device 2.

  The auto-scanning device 2 includes an electromagnetic coil driving unit 10 that reciprocally scans the laser light emitted from the laser diode device 3 in the X-axis direction and the Y-axis direction (see FIG. 5), and a laser light scanning lens 17. And an electromagnetic coil drive control unit 11 for controlling the electromagnetic coil drive unit 10. The ON / OFF control by the sensor control / switch unit 15 in the auto-scanning apparatus 2 is performed by the electromagnetic coil drive control unit 11. It is configured to be done. The auto-scanning device 2 may be a piezo (piezoelectric) type drive or a mechanical cam type drive, and a suitable drive unit and drive control unit are provided for these.

  The interlock sensor device 8 shown in FIG. 1 to FIG. 3 is a micro electrical contact switch system that can provide stable and good irradiation without causing a change in distance or position in laser irradiation without mechanical movement. I have to.

  In the high-speed driver device 4, an appropriate value of direct current is supplied from the external power supply device 7 to the laser power supply unit 16, and a frequency within 16 kHz is given to the laser power supply unit 16 by the control of the frequency control unit 14 of the CPU unit 12. A pulse width of about 1 μs or less is given by the control by the width controller 13 (see FIG. 4), and a pulse current of a maximum of 30 A at that frequency and pulse width is generated. This pulse current is used as the laser diode 19 of the laser diode device 3. And the laser diode 19 is turned on to output a short pulse laser beam with a peak power of 25 W, a peak energy of 25 μJ, and an average power of 0.4 W from the laser diode 19, and this is output to the focal length adjusting lens 18. Condensed by a short pulsed fine laser beam with a spot diameter of about 0.1 mm to 0.3 mm That is, a spot laser beam is obtained, and further, in the scanning device 2, the spot laser beam is moved to a coordinate axis X within a range of about 2 mm to 10 mm square by the operation of the electromagnetic coil drive unit 10 controlled by the electromagnetic coil drive control unit 11. Reciprocating scanning is performed at intervals of 0.02 mm to 0.08 mm in the axial direction and the Y-axis direction (see FIG. 5), and the laser beam is emitted from the laser emission port 9 to the outside as square laser light.

  In use, the casing 20 of the laser diode light direct generator 1 is gripped with a palm, the micro electric contact switch type interlock sensor device 8 at the tip is brought into contact with the skin surface, and the laser emission port 9 is opposed to the treatment site where the skin surface should be removed and the stain is removed, and the start / stop switch 5 is turned ON. At this time, the micro electric contact switch type interlock sensor device 8 that is in contact with the skin surface generates an electrical signal in accordance with the contact, and the CPU section 12 is operated in the high-speed driver device 4 by this electrical signal. Then, the laser power supply unit 16 works and the laser diode device 3 and the auto scanning device 2 operate to generate the above-described square laser light, and this square laser light is emitted from the laser emission port 9 to the outside. In addition, it is necessary to move the laser emission port 9 appropriately according to the situation of the processing location.

  Since the laser power supply unit 16 of the high-speed driver device 4 is arranged in the immediate vicinity of the laser diode 19 of the laser diode device 3, the laser diode device 3 can be efficiently integrated into a state where the pulse current is less dull. In this case, even if the laser diode 19 is a low-power and inexpensive one, the laser diode 19 can emit a high-peak laser beam with a short pulse, and this laser beam is condensed by the focal length adjusting lens 18. The laser diode device 3 can efficiently emit a spot laser beam having a required short pulse and a high peak, and this spot laser beam is reciprocally scanned by the autoscanning device 2 in the coordinate axis X-axis direction and the Y-axis direction. Thus, the above-described square laser beam is obtained, and this square laser beam passes through the scanning lens 17. Is irradiated from the laser exit 9 to the processing portion of the collected hair and skin blemishes Te. This square laser beam can be efficiently absorbed by the melanin pigment at a place where the melanin pigment is present on the skin, and can be irradiated as a laser beam having a wavelength of about 800 nm that appears red to the human eye. That is, by shortening the pulse width to 1 μs or less, the tissue located at a certain distance from the melanin pigment is heated excessively for heat conduction even when irradiated with a high-peak laser beam with an input current of 30 A. In addition, the laser light can be stably and satisfactorily irradiated by the micro-electric contact switch type interlock sensor device 8 without variation in irradiation distance and position, and the skin can be damaged such as burns. No, required hair removal and stain removal can be performed efficiently and safely. In addition, because of the short pulse, even if a large current is passed through the laser diode, the temperature at the end face does not rise, so there is no need to use a large-capacity and expensive laser diode, nor a complicated, heavy and expensive Q-switch system. Since a laser diode having a small capacity can be used without hindrance, a low-cost laser generator having a simple structure, small and light, and easy to use can be realized.

  When the laser diode light direct generator 1 is separated from the human body for some reason during use, the interlock sensor device 8 is separated from the skin surface, and the electrical signal from the interlock sensor device 8 is stopped. The apparatus 4 and the auto-scanning apparatus 2 are stopped, and the laser diode light direct generator 1 is put into a resting state as a whole. Therefore, the emission of the square laser light is stopped, and safety can be ensured.

  In the second embodiment, the spot laser beam in the first embodiment is a line laser beam, and the line laser beam having a length of about 2 mm to 10 mm is reciprocally scanned in the coordinate axis X-axis direction to a width of about 2 mm to 10 mm to 2 mm. A square laser beam having a size of about 10 mm square is obtained, and the square laser beam is irradiated from the laser emission port. In this case, the electromagnetic coil driving unit 10 according to the first embodiment does not require scanning means in the coordinate axis Y-axis direction.

  Next, FIG. 6 shows an embodiment according to the laser diode optical direct generator of claims 1, 4, 5, 6, 7, 8, and 9. Hereinafter, this will be described in detail.

  As shown in FIG. 6, the laser diode light direct generator 21 is composed of two bodies: a head device 22 that is held and operated by the palm of one hand and a control device 23 that electrically controls the head device 22.

  In the head device 22, a laser diode device that emits laser light into a head device casing 24 that has a laser emission port (see Example 1) at the tip and can be held by the palm of one hand (Example 1). 1), a laser power supply unit 26 of a high-speed driver device (see Example 1) placed close to the laser diode 25, and a laser beam emitted from the laser diode 25 in the X-axis direction and the Y-axis. A mechanical cam type driving mirror 27 as an auto-scanning device (see Example 1) for reciprocating scanning in the direction, and an image transmission fixed reflecting mirror 28 for changing the direction of the laser beam from the mechanical cam type driving mirror 27 at right angles; And an optical and electronic detection device 29 for converting an image entering from the laser exit through the image transmitting fixed reflecting mirror 28 into an electric signal, respectively. Is further to the laser emission port, a focal length adjusting lens 30 for the injection laser beam is arranged, and an outer edge of the laser exit, illumination LED31 of the illumination device is arranged. The illumination LED 31 may be replaced with another illumination lamp. In this case, an appropriate illumination lamp power supply unit may be used instead of the LED power supply unit 35 described below. Further, an interlock sensor of the micro electrical contact switch system shown in the first embodiment is arranged at the outer edge of the laser emission port, and control is performed in the same manner as in the first embodiment by an electric signal from the interlock sensor. The device 23 may be turned ON / OFF.

  In the control device 23, the lead wire leads to the central control portion 33 of the high-speed driver device connected to the laser power source portion 26 via the lead wire 36 and the mechanical cam type driving mirror 27 inside the control device casing 32. 37 is provided with a mechanical cam type drive control unit 34 connected via an LED 37 and an LED power supply unit 35 connected via a lead wire 38 to the LED 31 for illumination. The mechanical cam type drive control unit 34 and the LED power source unit 35 are configured so as to be electrically controlled, and a start / stop switch 39 and a power source switch 40 that can be operated from the outside are provided at appropriate positions on the casing 32 for the control device. The circuit is configured to give a start / stop operation to the central control unit 33 by turning the start / stop switch 39 ON / OFF. That. Further, a power switch 40 is disposed inside the control device casing 32, and converts commercial AC power received via the power switch 40 into an appropriate DC current when the power switch 40 is turned on. An output power supply device 41 is built in, and a circuit configuration is made such that the DC output current is supplied to the laser power supply unit 26 and the optical / electronic detection device 29 (the camera unit 45 described below) via the power supply cables 42 and 43. Yes.

  The mechanical cam type driving mirror 27 is an X-axis driving mirror 27x that deflects a short pulse fine laser beam emitted from the laser diode 25 and collected by the focal length adjustment lens 30, that is, a spot laser beam in the direction of the coordinate axis X-axis. And a Y-axis drive mirror 27y for further deflecting it in the direction of the coordinate axis Y-axis. The mechanical cam type drive mirror 27 may be an electromagnetic coil type drive mirror, a piezo (piezoelectric) type drive mirror, or the like. In the case of these drive mirrors, the mechanical cam type drive mirror 34 is replaced with the mechanical cam type drive mirror 34. A drive control unit suitable for the drive mirror may be used.

  The optical and electronic detection device 29 includes an image condensing lens 44 that accepts an image, and a camera unit 45 that converts the image that has passed through the image condensing lens 44 into an electrical signal and outputs the electric signal. The video output signal from the camera unit 45 is sent to an external monitor 46 to be imaged and observed. The camera unit 45 is preferably composed of a small CCD, CMOS camera or the like.

  The central control unit 33 is turned on / off by a pulse width control unit 47 and a frequency control unit 48 for the laser power supply unit 26, and a start / stop switch 39, so that the laser power supply unit 26, the pulse width control unit 47, the frequency control unit 48, and the auto It comprises a control / switch unit 49 that electrically controls the scanning device ON / OFF. The central control unit 33 may be configured by a CPU.

  As in the case of the first embodiment, an appropriate direct current is supplied from the power supply device 41 to the laser power supply unit 26, and the laser power supply unit is controlled by the frequency control unit 48 and the pulse width control unit 47 of the central control unit 33. 26, the laser power supply unit 26 generates a pulse current having a frequency of 16 kHz or less, a pulse width of 1 μs or less (see FIG. 4), and a maximum current of 30 A. Next, the laser diode 25 is turned on with this pulse current, The laser diode 25 outputs a short pulse laser beam having a peak power of 25 W, a peak energy of 25 μJ, and an average power of 0.4 W, and the laser light is condensed by a focal length adjusting lens 30 to be spot diameters of 0.1 mm to 0.00 mm. A spot laser beam having a short pulse of about 3 mm is obtained, and further, electric is performed by the mechanical cam type drive control unit 34 of the auto scanning device. In the mechanically controlled cam mirror 27, the spot laser beam is slowly moved in the range of about 2 mm to 10 mm square by the X axis driving mirror 27x and the Y axis driving mirror 27y in the coordinate axis X axis direction and the Y axis direction. A square laser beam is obtained by reciprocating scanning, and this square laser beam is emitted from the laser emission port to the outside.

  In use, the head device casing 24 of the laser diode light direct generator 21 is gripped with a palm, and the laser emission port at the tip is brought into contact with the treatment site on the skin surface where hair is removed or stained, and the start / stop operation is performed. Switch 39 is turned on. As a result, the central control unit 33 is activated, the laser power source unit 26 and the laser diode 25 are operated, and a short pulse spot laser beam is emitted from the laser diode 25. The spot laser light is reciprocally scanned in the X-axis direction and the Y-axis direction by the X-axis drive mirror 27x and the Y-axis drive mirror 27y, and is emitted as the above-described square laser light from the laser emission port. At that time, the LED power source 35 turns on the illumination LED 31 to illuminate the processing portion, and the image of the processing portion passes through the image transmission fixed reflector 28 and the optical and electronic detection device 29. In the optical and electronic detection device 29, the image of the processing portion is condensed by the image condensing lens 44 and converted into a video signal by the camera unit 45. The video output signal from the camera unit 45 is sent to an external monitor 46 to be imaged, and hair removal or spot removal is performed while confirming the processing position, processing status, etc. with this image. The presence of the checking means for the processing position, processing status, etc. allows the laser light to be emitted stably and satisfactorily without any change in the irradiation distance or position, so that the interlock sensor device 8 in the first embodiment can be omitted. Therefore, the effect of the third embodiment is similar to that of the first embodiment. In the case of the third embodiment as well, as in the case of the first embodiment, it is necessary to move the laser emission port in accordance with the situation of the treatment site on the skin surface.

  In the fourth embodiment, the spot laser beam in the third embodiment is a line laser beam. The line laser beam having a length of about 2 mm to 10 mm is converted to a width of 2 mm to 2 mm by the X-axis drive mirror 27x in the mechanical cam type drive mirror 27. A square laser beam of about 2 mm to 10 mm square is obtained by reciprocating scanning in the coordinate axis X-axis direction to about 10 mm, and the square laser beam is irradiated from the laser emission port. In this case, the Y-axis drive mirror 27y in the mechanical cam type drive mirror 27 scanned in the coordinate axis Y-axis direction in the third embodiment is not required.

  The laser diode light direct generator of the present invention can be used not only in beauty but also in the medical field, and can be widely applied to various fields such as metal marking in addition to dental and animal medicine.

  The laser diode light direct generator 1 of the above-described first and second embodiments may be used as a simple type, and the laser diode light direct generator 21 of the above-described third and fourth embodiments may be used for business use. .

BRIEF DESCRIPTION OF THE DRAWINGS It is composition point explanatory drawing which shows Example 1 of the laser diode optical direct generator based on this invention. FIG. 3 is an explanatory diagram of a configuration point of a front end surface of the apparatus showing the first embodiment. 2 is a block diagram of an electric circuit showing the first embodiment. FIG. It is a pulse current waveform figure of the Example 1. FIG. 3 is a laser beam scanning waveform diagram of the first embodiment. It is a block diagram of the electric circuit which shows Example 3 of the laser-diode optical direct generator based on this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Laser diode light direct generator 2 Auto scanning device 3 Laser diode device 4 High-speed driver device 5 Start stop switch 6 Feeding cable 7 Power supply device 8 Interlock sensor device 9 Laser exit 10 Electromagnetic coil drive part 11 Electromagnetic coil drive Control unit 12 CPU unit 13 Pulse width control unit 14 Frequency control unit 15 Sensor control / switch unit 16 Laser power supply unit 17 Scanning lens 18 Focal length adjustment lens 19 Laser diode 20 Casing 21 Laser diode light direct generator 22 Head device 23 Control device 24 Head device casing 25 Laser diode 26 Laser power supply unit 27 Mechanical cam drive mirror 27x X-axis drive mirror 27y Y-axis drive mirror 28 Image transmission fixed reflection mirror 29 Optical electronic detection device 30 Focal length Oilseed lens 31 illumination LED
32 Control Device Casing 33 Central Control Unit 34 Mechanical Cam Drive Control Unit 35 LED Power Supply Units 36, 37, 38 Lead Wire 39 Start Stop Switch 40 Power Switch 41 Power Supply Device 42, 43 Power Supply Cable 44 Image Condensing Lens 45 Camera Unit 46 monitor 47 pulse width control unit 48 frequency control unit 49 control / switch unit

Claims (9)

Inside a casing having a laser emission port to the tip, a laser light generator comprising a laser light is equipped with a laser diode which emits directly to the outside of the casing,
A high-speed driver device having a laser power source connected to the laser diode and configured to generate high peak laser light with a short pulse of submicron seconds is provided in the laser diode, and the laser power source is used as the laser diode. A laser diode optical direct generator for cosmetics, characterized in that it is adjacent .   The high-speed driver device is equipped with an auto-scanning device that irradiates the laser light uniformly and continuously over a wide range inside the casing, as long as the outer edge of the laser emission port does not contact the human skin surface. An interlock sensor device that prevents the operation of the motor is installed, and a start / stop switch that can be operated from the outside is provided at an appropriate position of the casing, and power is supplied from the external power supply device to the high-speed driver device via the start / stop switch. The cosmetic laser diode light direct generator according to claim 1, wherein the cosmetic laser diode light direct generator is configured. The high speed driver apparatus, the laser power supply unit as well as configured to electrically controlled by CPU section provided near the laser power supply, electrically also the automatic scanning apparatus at a constant associated with the CPU unit 3. The cosmetic laser diode light direct generator according to claim 2, wherein the cosmetic laser diode light direct generator is configured to be controlled and electrically controlled by the interlock sensor device.   Inside the casing is equipped with an auto-scanning device that uniformly and continuously irradiates the laser light over a wide range, and is equipped with an optical and electronic detection device that detects the irradiation state of the laser light, 2. The cosmetic laser diode light direct generator according to claim 1, wherein an illuminating means is provided at an outer edge portion of the laser emission port.   The laser diode light direct generator is divided into a head device and a control device. In the head device, the laser diode and the laser diode are disposed in the head device casing provided with the laser emission port. In addition, the laser power supply unit of the high-speed driver device, the driving mirror of the auto-scanning device, and the optical and electronic detection device are respectively disposed.In the control device, the control device casing includes A central control unit and a drive control unit that electrically controls the drive mirror are arranged, and the laser control unit and the drive control unit are electrically controlled by the central control unit. A start / stop switch that can be operated from the outside is provided at an appropriate position on the casing for the device. Cosmetic laser diode beam direct generator of claim 4 configured to provide a deactivation operation to the central control unit.   6. The cosmetic laser diode light direct generation according to claim 5, wherein an interlock sensor device that prevents the operation of the high-speed driver device is provided at an outer edge portion of the laser emission port of the casing for the head device unless it contacts the surface of the human skin. apparatus.   The cosmetic laser diode light direct generator according to claim 2, 3 or 6, wherein the interlock sensor device is a micro electrical contact switch type.   The cosmetic laser diode light direct generator according to claim 2, 3, 4, 5, 6 or 7, wherein the auto-scanning device is an electromagnetic coil system.   The cosmetic laser diode light direct generator according to claim 2, claim 3, claim 4, claim 6, or claim 7, wherein the auto scanning device is a mechanical cam type.

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