Muscle restoration device

Abstract

The present invention relates to physical therapy and health care equipment, and, more specifically to equipment for restoring damaged or fatigued muscles by stimulating skin and muscles. Muscles can be stimulated and restored by using the device of the present invention.

Description

Muscle recovery equipment

[0001] The present invention relates to physical therapy and health management equipment, and more particularly, to a muscle restoration equipment that provides dual vibration stimulation to the skin and muscles to restore damaged muscles or quickly recover from fatigued muscles.

[0002] As the human body ages, muscle mass decreases and muscle loss occurs. Causes of muscle loss include trauma, damage to disused muscles, and overuse.

[0003] Another major factor in muscle weakness is long-term nerve compression caused by spinal imbalances in the neck and back. For example, patients with chronic cervical disc herniation often experience shoulder pain and rotator cuff calcification, as well as hair loss and headaches due to scalp muscle calcification. Furthermore, those with lumbar disc herniation experience accelerated muscle calcification around the leg nerves due to compression of the nerves leading to knee arthritis. Furthermore, calf muscle damage can cause blood vessels to protrude, leading to varicose veins. Furthermore, the weakening of the calf-to-heart pumping function can lead to hypertension and various other adult diseases.

[0004] As numerous studies have shown, most people over 60 have lost 50% of their muscle mass, leaving them vulnerable to various lifestyle diseases. These muscles not only protect the bones but also the blood vessels and nerves. Consequently, damaged muscles can compress surrounding blood vessels, leading to circulatory problems. To overcome this circulatory problem, the heart pumps more blood, increasing blood pressure. Even with this massive pumping of blood, the blood vessels surrounding calcified muscles lack proper circulation, making it difficult for the tissues surrounding the damaged muscles to regenerate, contributing to aging and lifestyle diseases.

[0005] Therefore, restoring muscles to their youthful state is crucial not only for alleviating intermittent pain but also for preventing aging and adult diseases. Methods for increasing muscle temperature include laser therapy, long-wave diathermy, and infrared lamp therapy.

[0006] These methods raise the skin temperature to 37-40°C (99-104°F), then scratch or stimulate the adhered muscles from beginning to end. This releases inflammation and foreign substances from the adhered muscles, causing them to return to normal. These methods have been performed manually using glasson.

[0007] However, these manual procedures have limitations in speed and strength, difficulty achieving uniform results across large areas, time-consuming procedures, and the need for highly skilled practitioners. Therefore, the need for automated equipment to facilitate and simplify the recovery of muscles affected by adhesions, damage, or calcification is growing.

[0008] The present invention is intended to solve the above problems and aims to provide an automated device for stimulating and restoring muscles.

[0009] In addition, the present invention is intended to solve the above-mentioned problems, and an object of the present invention is to provide a muscle restoration device that improves and restores fatigue and damage of damaged and fatigued muscles by stimulating them through double vibration by contacting the muscles.

[0010] In addition, the present invention aims to provide a muscle restoration device having an optimal structure that is easy for a practitioner to hold by hand, maximizes the contact skin area, can apply both dual vibration and laser light to the skin, and efficiently provides heat to the contacted skin.

[0011] In addition, the present invention aims to provide a muscle restoration device having a structure that diversifies and maximizes the vibration transmitted to the skin of a subject of treatment, disperses the generated heat, and facilitates observation and replacement of the operation of the vibration structure.

[0012] The present invention can be understood through the following description, and will be more clearly understood through an embodiment of the invention. Furthermore, it will be readily apparent that the objectives and advantages of the present invention can be realized by the means and combinations thereof set forth in the claims.

[0013] In order to achieve the above-described purpose, a muscle restoration device according to a first embodiment of the present invention is characterized by comprising: a device for restoring muscles by stimulating the surface of the skin, comprising: a long body (110); a vibrating structure (120) provided in the body (110) and having an end protruding toward the bottom of the body (110); and a control device (140) for controlling the operation of the vibrating structure (120).

[0014] The above main body (110) is characterized in that the bottom surface faces the human body, and the vibrating body (127) of the vibrating structure (120) is positioned so that it protrudes toward the bottom end (112b) of the main body (110).

[0015] The above vibration structure (120) is characterized in that a plurality of them are arranged at intervals along the outer surface of the main body (110).

[0016] The above body (110) includes: a body cylinder (111) in the longitudinal direction; and the body cylinder (111) is characterized by having a body cavity (111a) having an empty interior.

[0017] The above main body cylinder (111) is characterized in that it has a flange that protrudes outward, and the vibration structure (120) is positioned and supported through the flange.

[0018] The above flange is characterized by comprising: a bottom flange (112) arranged close to the bottom surface side of the main body cylinder (111); and an upper flange (113) arranged close to the top surface side of the main body cylinder (111).

[0019] The above flange is characterized in that it further includes an intermediate flange (114) located between the bottom flange (112) and the top flange (113).

[0020] The lower end (112b) of the above main body (110) is characterized in that a laser light emitting device (150) is provided.

[0021] The above vibration structure (120) is characterized by comprising: a vibration body (127) that generates vibration by the operation of the motor, including a motor; and a vibration connecting member (122) connected to the vibration body (127).

[0022] The above vibrating body (127) is characterized in that it is supported on the bottom end (112b) of the main body (110).

[0023] It is characterized in that it further comprises an elastic member (123) supported on the lower end (112b) of the main body (110), and the upper end of the vibrating body (127) is supported by the elastic member (123).

[0024] The above vibrating body (127) is characterized in that it is configured to include a first motor (121).

[0025] The above vibrating body (127) is characterized by further comprising a second motor (124) coupled to the lower part of the first motor (121).

[0026] The rotation speed of the second motor (124) is greater than the rotation speed of the first motor (121), or the rotation torque of the first motor (121) is greater than the rotation torque of the second motor (124).

[0027] The above control device (140) is characterized by including at least one of: a vibration switch (141) for determining the power supply of the vibrating body (127); or a laser switch (142) for determining the power supply of the laser light-emitting device (150); or a control switch (143) for controlling the vibration amount of the vibrating body and the light-emitting amount of the laser light-emitting device.

[0028] In order to achieve the above-described purpose, a muscle restoration device according to a second embodiment of the present invention is characterized by comprising: a long body (210); a vibrating structure (220) having at least one protrusion formed at one end of the body (210) and protruding so as to contact the surface of the skin, the vibrating structure having a double vibration; a vibrating structure coupling member (230) formed between the body (210) and the vibrating structure (220) to couple the body and the vibrating structure (220); and a control device (290) formed in the body (210) and connected to the vibrating structure (220) through the vibrating structure coupling member (230) to control the operation of the vibrating structure (220).

[0029] The vibration structure (220) is composed of two or more, and the vibration structure coupling member (230) is characterized by including a coupling base (231) to which a plurality of the vibration structures (220) are coupled in a bottom direction; and a vibration connecting part (232) that connects the main body (210) and the coupling base (231).

[0030] The above body (210) includes a spherical coupling groove (217) configured to rotate by inserting a sphere inwardly into the one end portion, and the vibration connecting portion (232) is characterized in that the opposite part of the part coupled to the coupling base (231) is formed as a sphere and is configured to be coupled to the spherical coupling groove (217).

[0031] The above body (210) includes: a body cylinder (211) in the longitudinal direction; and the body cylinder (211) is characterized in that it has a body cavity (211a) with an empty interior.

[0032] The above main body cylinder (211) is characterized in that it has a flange that protrudes outward, and the vibration structure (220) is supported by being positioned so as to penetrate the flange.

[0033] The above flange is characterized by comprising: a bottom flange (212) arranged close to the bottom surface side of the main body cylinder (211); and an upper flange (213) arranged close to the top surface side of the main body cylinder (211).

[0034] The above vibration structure (220) is characterized by including an elastic body (221) that has a hollow portion formed therein and provides elasticity according to vibration by contacting one side of the bottom surface of the coupling base (231); an elastic coupling member (222) having one end coupled to the coupling base (231) through the hollow portion of the elastic body (221); a first vibration body (223) that is connected to the other end of the elastic coupling member (222) and is configured to contact the elastic body (221) to generate a first vibration; and a second vibration body (224) that is configured at least two times on the lower part of the outer circumferential surface of the first vibration body and has the protrusion formed thereon to generate a second vibration.

[0035] The first vibration body (223) is characterized by including a first motor (223a) that is connected to the other end of the elastic coupling member (222) and is configured to contact the elastic body (221) and generates a first vibration under the control of the control device; and a motor support member (223b) that surrounds the first motor (223a) and a part of the elastic body (221) to support the first motor (223a) and the elastic body (221).

[0036] The above device is characterized in that it further includes a laser emitting device (250) that irradiates a laser under the control of the control device at the center of the bottom surface of the above combination base (231).

[0037] The second vibrator (224) is characterized by including a motor protection member configured in a hollow tube shape and coupled to the lower part of the outer surface of the first vibrator; and a second motor inserted and fixed into the hollow portion of the motor protection member to generate a second vibration under the control of the control device.

[0038] The above first vibrating body (223) is characterized by being composed of four pieces and being symmetrically configured on the bottom surface of the coupling base (231).

[0039] The above second vibration body (224) is characterized by being composed of four parts.

[0040] The rotation speed of the second motor (224b) is greater than the rotation speed of the first motor (223a), or the rotation torque of the first motor (223a) is greater than the rotation torque of the second motor (224b).

[0041] The above vibration structure is characterized in that it further includes a vibration body coupling member (225) that wraps around and supports the entire lower portion of the first vibration body and the motor protection member of the second vibration body.

[0042] The above vibration structure (220) is characterized in that it is supported on the bottom end (212b) of the main body (210).

[0043] The above control device (290) is characterized by including an operation unit including at least one of: a vibration switch that outputs a signal instructing power supply to a vibration structure (220); a laser switch that outputs a signal instructing power supply to a laser light-emitting device (250); and a control switch for controlling the vibration amount of the vibration body and the light-emitting amount of the laser light-emitting device.

[0044] In order to achieve the above purpose, a muscle restoration device according to a second embodiment of the present invention is characterized by comprising: a device for stimulating the surface of the skin to restore muscles, comprising: a main body (310) including an elongated main body cylinder (311) having an end formed in a locust shape and an internally hollow main body cavity (311a); a vibration structure (320) provided in the main body (310) and having an end protruding toward the bottom of the main body (310); and a control device (390) for controlling the operation of the vibration structure (320).

[0045] The above muscle restoration equipment is characterized in that it further includes an equipment protection member (330) that is formed in a locust shape at an end corresponding to the shape of the main body (310) and wraps the elongated main body (310) and the vibration structure (320), but wraps the end of the vibration structure (320) so that it is exposed.

[0046] The above-mentioned main body cylinder (311) is characterized by having two or more flanges that are formed to protrude outward, and the vibration structure (320) is characterized by further including a spacing member (340) that is positioned and supported through the flanges, but is configured perpendicular to the flanges to separate the main body (310) and the equipment protection member (330) by a certain distance.

[0047] The above equipment protection member (330) is characterized by including an aluminum body having a locust-shaped end; and silicone covering the outside of the aluminum body.

[0048] The above-mentioned separation member (340) is characterized by being a steel spring that provides high rigidity and elasticity between the equipment protection member (340) and the main body (310).

[0049] The above main body cavity (311a) is formed in a grasshopper shape identical to the shape of the end of the main body (310), and the main body (310) is configured to cross the grasshopper-shaped waist portion of the bottom surface of the main body cylinder (311) of the main body (310) facing the human body, and further includes a light source support portion (312c) in which a light source hole (312d) is formed in the center, and the muscle restoration equipment is characterized in that it further includes a laser light emitting device (350) that is inserted into the light source hole (312d) and irradiates a light source under the control of the control device.

[0050] The above laser light emitting device (350) is characterized by including a cold laser that irradiates a low-power laser light source of multiple wavelengths.

[0051] The present invention has the effect of stimulating muscles by generating double vibrations to the muscles and improving and restoring damaged or fatigued muscles.

[0052] In addition, the present invention has the effect of providing an automated device in which a vibration structure for providing dual vibration, laser light, and heat to muscles, a laser light source device, etc. are optimally structured.

[0053] In addition, the present invention has an optimal structure suitable for use by a practitioner, so it has the effect of enabling a practitioner to easily hold it by hand and perform a procedure.

[0054] In addition, the present invention has the effect of providing vibration and heat to the patient's muscles, thereby restoring adhered and calcified muscles to healthy muscles.

[0055] In addition, the present invention can alleviate cervical disc herniation, lumbar disc herniation, knee arthritis and pain, and can improve tinnitus by restoring calcified muscles around the ears, improve hearing loss due to aging, restore calcification of vocal cords and esophagus, alleviate and recover hair loss, alleviate wrinkles and sagging of the face and neck, remove freckles, alleviate abdominal obesity, alleviate sagging of thigh muscles, and reduce bad breath by improving gum calcification.

[0056] In addition, the present invention provides dual vibration by combining a plurality of second vibration bodies to each of a plurality of first vibration bodies, so that the contact area of ​​the skin through which the generated vibration propagates can be formed widely.

[0057] In addition, the present invention can smoothly generate vibrations transmitted to the skin by controlling the rotational speed, rotational force, torque, and phase of the vibration cycle of the first vibration body, and can transmit more diverse double or more vibrations, thereby having the effect of maximizing improvement in muscle damage and fatigue.

[0058] FIG. 1 is a drawing showing the appearance of a muscle restoration device according to a first embodiment of the present invention.

[0059] Figure 2 is a drawing showing an exploded view of the main body of a muscle restoration device according to the first embodiment of the present invention.

[0060] Figure 3 is a drawing showing a main body according to a first embodiment of the present invention.

[0061] Figure 4 is a drawing showing the upper surface of the main body according to the first embodiment of the present invention.

[0062] Figure 5 is a drawing showing a vibration structure according to a first embodiment of the present invention.

[0063] FIG. 6 is a side view of a muscle restoration device according to a first embodiment of the present invention.

[0064] Fig. 7 is a drawing showing a cross-section of a vibrating body part according to the first embodiment of the present invention.

[0065] FIG. 8 is a drawing showing a muscle restoration device according to a first embodiment of the present invention from a side view in another direction.

[0066] FIG. 9 is a drawing showing the upper surface of a control device of a muscle restoration device according to a first embodiment of the present invention.

[0067] Fig. 10 is a drawing showing a muscle restoration device according to a first embodiment of the present invention from the bottom.

[0068] Fig. 11 is a cross-sectional drawing showing a muscle restoration device according to a first embodiment of the present invention.

[0069] Fig. 12 is a perspective view showing the appearance of a muscle restoration device according to a second embodiment of the present invention.

[0070] Figure 13 is a drawing showing an exploded view of the main body of a muscle restoration device according to a second embodiment of the present invention.

[0071] Figure 14 is a drawing showing a side view according to a second embodiment of the present invention.

[0072] Figure 15 is a drawing showing the upper surface of a main body according to a second embodiment of the present invention.

[0073] Figure 16 is a drawing showing a bottom view according to a second embodiment of the present invention.

[0074] Fig. 17 is a drawing showing a vertical cross-section of a vibration structure according to a first embodiment of the present invention.

[0075] Fig. 18 is a perspective view showing the appearance of a muscle restoration device according to a third embodiment of the present invention.

[0076] Fig. 19 is a drawing showing the disassembled main body of a muscle restoration device according to a third embodiment of the present invention.

[0077] FIG. 20 is a drawing showing a perspective view of the main body of a muscle restoration device according to a third embodiment of the present invention.

[0078] Figure 21 is a drawing for explaining the muscle restoration effect when using the muscle restoration equipment according to the present invention.

[0079] Fig. 22 is a perspective view showing the appearance of a muscle restoration device according to a fourth embodiment of the present invention.

[0080] Figure 23 is a drawing showing an exploded perspective view of a muscle restoration device according to a fourth embodiment of the present invention.

[0081] Fig. 24 is a cross-sectional view of a muscle restoration device according to a fourth embodiment of the present invention taken along line AA'.

[0082] FIG. 25 is a drawing showing a pattern printed on the outside of a muscle restoration device according to a fourth embodiment of the present invention.

[0083] FIG. 26 is a plan view and a bottom view of a muscle restoration device according to a fourth embodiment of the present invention.

[0084] The configuration and function of the present invention will be examined in detail with reference to an embodiment of the configuration of the present invention illustrated in the attached drawings below.

[0085] FIG. 1 is a drawing showing the appearance of a muscle restoration device according to a first embodiment of the present invention. Referring to FIG. 1, the muscle restoration device (100) has an appearance similar to an elongated cylinder and forms a vertical height of about 10 to 30 cm that can be held by hand. The muscle restoration device (100) as a whole includes a central structure (110, main body), a plurality of massage structures (120, vibration structures), a low-energy laser (light source) device (150), and a control device (160). The plurality of massage structures generate vibrations for massaging the patient's muscles, the low-energy laser (light source) device (150) transfers heat to the patient's muscles, and the power circuit / device provides the power necessary for the operation of the muscle restoration device (100) and enables the same to be controlled. A control device (160) including a plurality of massage structures (120), a low-energy laser device (150), and a power circuit and operating unit (140) is mounted and coupled to the central structure (110).

[0086] The main body (110) is made of a rigid material and supports the entire structure, and a plurality of vibration structures (120) may be provided at regular intervals along the perimeter of the main body (110). The lower end of the vibration structure (120) protrudes from the lower end of the muscle restoration device (100), and a closing member (130) and a control device (160) are provided at the upper end. The control device (160) includes an operating unit (140) including at least one of a vibration switch (141), a laser switch (142), and a control switch (143) to be described later.

[0087] The practitioner holds the muscle restoration equipment (100) in his hand, brings the protruding part of the lower vibration structure (120) into contact with the skin, and allows the vibration of the vibration structure (120) and the light of the laser light emitting device (150) to affect the skin.

[0088] The muscle restoration device (100) is a treatment device that raises the skin temperature to 37-40℃ (99-104℉), and then automatically restores calcified muscles, much like an excavator vibrates asphalt to break up adhered muscles. To achieve this, a motor is used. However, to prevent skin damage if it comes into direct contact with the skin, a motor with a thin, curved metal cover is used. Furthermore, the motor's vibration generates heat at the contact point, naturally increasing the temperature around the target muscle.

[0089] However, the ambient temperature of the muscle to be restored must rise to 37-40℃ (99-104℉), but since the heat generated by the vibration of the motor and frictional heat alone cannot raise the temperature to this level, a 650nm laser light-emitting device (150) is provided together with the vibration motor so that the temperature can rise when the laser is irradiated on the muscle. In addition, a magnet can be installed at the contact point of the motor to promote blood circulation, or if a magnet is already installed inside the motor, this magnet will play a role in facilitating blood circulation. Blood contains red blood cells, white blood cells, and platelets, and among these, platelets react to the magnetic force of the magnet, thereby promoting circulation.

[0090] When the device of the present invention is applied to a damaged muscle and operated, the speed of muscle recovery is improved as the hard calcium in the muscle is broken down according to the rotation of the motor, and the treatment time is significantly shortened.

[0091] This type of vibration therapy improves range of motion, increases subcutaneous blood flow, enhances muscle strength, and enhances kinesthetic perception. Mechanical vibrational exercise is provided through vibration, which is defined as the oscillatory changes in force, acceleration, and displacement over time.

[0092] Furthermore, the device of the present invention is designed to apply two stages of vibration to the muscles. The first stage of vibration is the vibration by each vibration motor to break up the calcium deposits in the muscles and soften the attached muscles, and the heat generated by the rapid rotation of the motor maintains the temperature deep in the muscles, plays a role in separating the muscles, and plays a role in melting inflammation and foreign substances coming from the calcified muscles. In order to apply the maximum stimulation that is gentle yet strong to the muscles, the second motor is attached to the slightly stronger first motor, so that while the second motor in contact with the skin stimulates the calcified muscles, the slightly stronger first motor operates simultaneously, thereby stimulating the calcified muscles as much as possible and playing a role in breaking up the calcium deposits.

[0093] The second-stage vibration connects the first motor to a vibration connecting member (122) such as an aluminum tube, and transmits the vibration power of the six vibration motors so that the entire main body (110) exhibits vibration capability. That is, the second-stage vibration vibrates the aluminum tubes of the vibration connecting members (122) to which the six motors provided in the main body (110) are connected, and the six aluminum tubes vibrate the main body (110). The vibration caused by this serves to gently prepare the muscle area to be restored, and the vibration of each motor head, which is the first-stage vibration, breaks the muscles and causes the heat generated by the motor rotation to melt lime or foreign substances in the muscles.

[0094]

[0095] Figure 2 is an exploded view of the main body of a muscle recovery device according to a first embodiment of the present invention. Referring to Figure 2, the main body (110) has a cylindrical structure, is hollow from the top, and is a structure made of a solid material such as metal. The main body (110) is open at the top and closed at the bottom.

[0096] On the lateral outer surface of the main body (110), a plurality of vibration structures (120) are arranged vertically at concentric radial intervals, and the lower end of the vibration structure (120) is exposed so as to protrude downward from the main body of the vibration structure (120) as a part that touches the skin.

[0097] On the bottom surface of the main body (110), a laser emitting device (150) is placed at the inner center of the position where the vibrating structure (120) is placed. The vibrating structure (120) transmits vibration, and at the same time, laser light is irradiated from the laser emitting device (150). In some cases, only vibration may be applied, or only laser light may be selected to be emitted.

[0098]

[0099] Fig. 3 is a drawing showing a main body according to a first embodiment of the present invention, and Fig. 4 is a drawing showing an upper surface of the main body according to the first embodiment of the present invention. Referring to Figs. 3 and 4, the main body (110) has a main body cylinder (111) having an elongated shape in the vertical direction, and the center of the main body cylinder (111) has a main body cavity (111a) having an empty interior.

[0100] A flange (112, 113, 114) is formed to protrude from the outside of the main body cylinder (111) in a ring or disk shape, and the flange is a configuration for fixing the vibration structure (120). The flange is a protruding rib, edge, or collar, and is a general term for a configuration used to fix an object in place or attach a first object to a second object. The flange may include at least one of a bottom flange (112) protruding outward from the bottom side of the main body cylinder (111), an upper flange (113) protruding outward from the upper end side of the main body cylinder (111), and an intermediate flange (114) protruding outward from the middle side of the main body cylinder (111).

[0101] A plurality of bottom through holes (112a) are formed along the circumference of the bottom flange (112), a plurality of middle through holes (114a) are formed along the circumference of the middle flange (114), and a plurality of top through holes (113a) are formed along the circumference of the top flange (113). The bottom through holes (112a), the middle through holes (114a), and the top through holes (113a) are formed in positions that are aligned with each other in the vertical direction and face each other, so that the vibration structure (120) inserted into these through holes can be firmly fixed in the vertical direction. The vibration structure (120) is not placed in a closed position inside the main body cylinder (111), but is placed so that it can be exposed in an open position through an outer flange (112, 113, 114), so that the operation of the vibration structure (120) can be easily observed and replacement can be facilitated.

[0102]

[0103] Fig. 5 is a drawing showing a vibrating structure according to a first embodiment of the present invention. Referring to Fig. 5, the vibrating structure (120) is a configuration that converts electrical energy into mechanical energy to generate vibration, and includes a vibrating body (127) and a vibrating connecting member (122) connected thereto, and an elastic member (123) such as a spring is arranged on the upper portion of the vibrating body (127), and has a structure independent from other vibrating structures (120), but can operate simultaneously as a unit.

[0104] The vibrating body (127) is a part where vibration is generated, the vibration connecting member (122) is connected to the vibrating body (127) so that vibration is transmitted, and a power line for supplying power is arranged internally, and the elastic member (123) is arranged in a supporting position so that the vibration of the vibrating body (127) is transmitted to the outside. The vibration connecting member (122) has a tubular rigid member shape in which a power line is accommodated inside and, if necessary, wraps around the outside of the power line.

[0105] The vibrator (127) transmits vibrations to the outside, i.e., the skin and muscles of a patient, by utilizing the vibrations generated from the motor by supplying power to the motor, and includes a first motor (121), a second motor (124), a support member (125), and a housing (126) surrounding the outside thereof, and forms an exterior of a cantilever structure extending downward like a beam. Vibration and heat can be transmitted to the skin and muscles of a patient through the lower end of the elongated cantilever portion.

[0106] In some cases, only the first motor (121) may be included, and the second motor (124) may be omitted. The first and second motors may use a DC coreless motor or a micro vibration motor. It is preferable that the first and second motors are formed in an elongated shape, have an end portion that includes a spherical curved surface, and have a metal surface so that this curved portion can come into contact with the skin.

[0107] The first motor (121) is provided with a first support member (121a) at the upper end, and the first support member (121a) supports the lower end of the elastic member (123). The first motor (121) has a rotational speed of 8000 to 15000 RPM, and has a rotational force and rotational torque greater than those of the second motor (124).

[0108] A second motor (124) is arranged in the lower direction of the first motor (121), and the second motor (124) is supported on the first motor (121) side by a support member (125). The second motor (124) is designed to have a rotation speed of 8000 to 24000 RPM, so that it can rotate faster than the first motor (121), but its rotational power and rotational torque are set to be lower than those of the first motor (121).

[0109] As the first and second motors operate simultaneously, the lower end of the vibrating second motor (124) is brought into contact with the skin under a combination of a relatively slow rotation speed of the first motor (121) and a relatively fast rotation speed of the second motor (124).

[0110] The support member (125) is configured to fix and support the second motor (124), and the outer housing (126) is configured to couple with each other, increase support capacity, and protect the internal components. These may be formed of a plastic material, but may also be manufactured from metal to have greater high-temperature resistance. The first and second motors include an elongated cantilever structure, and may be viewed as being coupled thereto or installed within it.

[0111]

[0112] FIG. 6 is a side view of a muscle restoration device according to a first embodiment of the present invention, FIG. 8 is a side view of a muscle restoration device according to a first embodiment of the present invention in another direction, and FIG. 9 is a view showing the upper surface of a control device of a muscle restoration device according to a first embodiment of the present invention. Referring to FIGS. 6 and 8 to 9, the muscle restoration device (100) has a main body cylinder (111) at the top of which a main body cavity (111a) can be closed by a closing member (130), and a control device (160) is provided on the upper portion of the closing member (130). The control device (160) may include a switch for turning the entire power on and off, a motor power of a vibrator (127), a power of a laser light-emitting device (150), or controlling the intensity of vibration or light emission. The vibration switch (141) is for controlling the motor operation of the vibrator (127), and the laser switch (142) is for controlling the light-emitting operation of the laser light-emitting device (150).

[0113] A vibrating body (127) is positioned so as to protrude from the bottom of the main body cylinder (111), and an elastic member (123) is positioned between the main body cylinder (111) and the vibrating body (127). Since the skin or muscles of the human body are not flat but curved surfaces, the height at which the plurality of vibrating bodies (127) come into contact differs depending on the position. At this time, as the extension length of the elastic member (123) such as a spring is reduced as much as it is pressed, the position of the vibrating body (127) is optimally contacted and pressed according to the curve of each skin or muscle.

[0114] A vibrating structure (120) is installed and supported on multiple flanges (112, 114, 113) protruding outward from a main body cylinder (111), and a vibrating body (127) protrudes and is exposed at the bottom. The practitioner holds the main body (110) in his / her hand, and while the lower end of the vibrating body (127) is pressed against the skin and muscles, the vibration of the vibrating body (127) and the light of the laser light-emitting device (150) are transmitted toward the skin and muscles. The laser light-emitting device (150) is a low-energy laser device and serves to transmit heat to the patient's muscles. In addition, the laser light-emitting device (150) generates electromagnetic radiation that is transmitted to the patient's muscles and serves to treat the patient's muscles. The laser light-emitting device (150) can be used simultaneously with the vibration operation of the vibrating structure (120), and can provide respective actions and therapeutic effects for the same location of the patient's muscles. The laser light emitting device (150) may include a laser generating unit and a lens structure, and the laser generating unit converts electric energy into electromagnetic radiation and projects low-energy infrared electromagnetic radiation onto a patient, and the lens structure arranged along the path serves to focus the generated electromagnetic radiation onto a specific point on the patient.

[0115]

[0116] FIG. 7 is a cross-sectional view of a vibrating body according to a first embodiment of the present invention. Referring to FIG. 7, a vibrating body (127) is centered around a first motor (121), and a second motor (124) is supported and connected to the lower portion thereof by a support member (125). The vibrations of the first motor (121) and the second motor (124) can be superimposed and transmitted to the skin in contact with the lower curved surface of the second motor (124). By separating the motors into two and arranging them in series, a larger composite vibration can be generated, while preventing the skin from being damaged by the vibration and dispersing the heat, so that hardened muscles can be softened without damaging the skin in contact. The vibrating motor generates far-infrared heat, and if the heat is concentrated in one place, there is a risk of skin irritation. However, by dividing the vibration of the same magnitude into two motors and generating it, the effect of dispersing the heat is achieved.

[0117] The first motor (121) may have a lower rotational speed than the second motor (124), but it is preferable to use one with greater power, rotational force, and rotational torque, and the second motor (124) may have a higher rotational speed than the first motor (121), but it is preferable to use one with less power, rotational force, and rotational torque.

[0118] The first motor (121) has the effect of strengthening the vibration of the vibrating body (127) due to its large rotational torque. However, there is a concern that this may generate high-temperature far-infrared heat, which may have a negative effect on the skin. However, by additionally providing the second motor (124) at the skin contact location, it is separated from the skin and a distance is maintained, thereby reducing the risk of burns.

[0119] The second motor (124) is a motor located at the contact point of the terminal, and although it rotates at high speed, the sensation felt on the skin is soft due to the small rotational torque, and the heat generation is low, so it is at a level where you feel a warm sensation, and thus has the effect of protecting against burns.

[0120] The elastic member (123) positioned and supported between the upper first support portion (121a) of the first motor (121) and the lower end portion (112b) of the main body cylinder (111) enables the vibration of the vibrating body (127) to be smooth, and at the same time, the vibrating body (127) has a different height for each position so that it can contact each position of the curved skin and muscles with an appropriate pressure.

[0121] The vibration connecting member (122) penetrates the bottom through hole (112a) formed in the bottom end (112b) and is coupled and connected to the vibrating body (127). The vibration connecting member (122) has a diameter of 0.5 cm, and the bottom through hole (112a) is formed with a diameter of 0.6 cm, so that six vibration connecting members (122) are arranged to penetrate and slide or vibrate within the bottom through hole (112a).

[0122] The vibration connecting member (122) includes a power line on the inside and has a tubular rigid member on the outside. The rigid member may be supported and fixed in the bottom through-hole (112a) or the through-holes (113a, 114a) of each flange, or may be made to slide up and down in a friction or supported state. The vibration connecting member (122) may be movable with respect to the middle flange (114) or the upper flange (113), but may be supported in various ways depending on the case.

[0123] Fig. 10 is a drawing showing a muscle restoration device according to a first embodiment of the present invention from a bottom view. Referring to Fig. 10, a laser light emitting device (150) is arranged at the center of a bottom end portion (112b), and a plurality of bottom penetration holes (112a) are formed radially spaced outwardly, and a vibrating body (127) is arranged at all or part of the lower positions of the bottom penetration holes (112a), and a lower contact surface of a second motor (124) is exposed at the lowest surface.

[0124]

[0125] Fig. 11 is a cross-sectional view of a muscle restoration device according to a first embodiment of the present invention. Referring to Fig. 11, it is a cross-sectional view taken along line AA of Fig. 9. A control device (160) including a power supply such as a battery is provided in the internal body cavity (111a) of the main body cylinder (111), and supplies power to a motor, a light-emitting device, etc.; however, in some cases, an external power supply may be used instead of the internal battery power supply.

[0126] The power line connected to the power source of the control device (160) is arranged inside the vibration connecting member (122) and connected to the motor in the vibrating body (127) or to the laser light emitting device (150). The main body cylinder (111) has flanges (112, 113, 114) that repeatedly protrude outward, so that the vibration structure (120) can be easily fixed, and at the same time, it has the effect of providing a grip and frictional force so that the operator can easily hold the main body cylinder (111) in his hand.

[0127]

[0128] FIG. 12 is a perspective view showing the appearance of a muscle restoration device according to a second embodiment of the present invention, FIG. 13 is a view showing an exploded view of a main body part of a muscle restoration device according to a second embodiment of the present invention, FIG. 14 is a view showing a side view of a second embodiment of the present invention, FIG. 15 is a view showing an upper surface of a main body according to a second embodiment of the present invention, FIG. 16 is a view showing a bottom view of a second embodiment of the present invention, FIG. 17 is a view showing a vertical cross-section of a vibration structure according to a second embodiment of the present invention, and FIG. 21 is a view for explaining a muscle restoration effect when a muscle restoration device according to an embodiment of the present invention is used. Hereinafter, description will be made with reference to FIGS. 12 to 17 and FIG. 21.

[0129] The muscle restoration equipment (100) has an appearance similar to a long cylinder and forms a vertical height of about 10 to 30 cm that can be held by hand. The muscle restoration equipment (100) includes a main body (210) forming a central structure, a vibration structure (220) including a plurality of vibration motors for contacting a wide area of ​​skin and having a plurality of dual massage stimulation structures, and a control device (290) for controlling the operation of the vibration structure (220), and according to an embodiment, further includes a vibration structure coupling member (230) and a laser light emitting device (250) using low energy.

[0130] The main body (210) is made of a rigid material and includes a cylindrical (or tubular) shaped main body cylinder (211) with a main body cavity (211a) formed in the inner center to be easy to hold by hand as described above, thereby supporting the entire structure of the muscle restoration device (100). The main body cavity (211a) may be configured to penetrate the center of the main body cylinder (211), or may be configured to have an open upper portion and a closed lower portion.

[0131] According to the second embodiment, the main body cavity (211a) of the main body (210) may be formed to be penetrable, and the main body cavity (211a) according to the third embodiment, which will be described later, may be configured to have a closed lower portion. In the latter case, one or more vibration structures (220) may be configured to be directly coupled to the closed lower portion of the main body (210). This will be described in detail with reference to FIGS. 18 to 20, which will be described later.

[0132] However, as shown in FIGS. 12 to 17, it is preferable to be configured to be coupled through a vibration structure coupling member (230) that is inserted into the main body cavity (211a) through the lower part of the main body (210) and coupled to the main body cylinder (211) or that covers the lower outer surface of the main body cylinder (211) of the main body (210) and is coupled to the main body cylinder (211).

[0133] The above vibration structure coupling member (230) includes a coupling base (231) having a flat surface such as a square or circle, and a vibration connecting part (232) having one end inserted into the main body cavity (211a) of the main body cylinder (211) and the other end coupled to the upper end of the coupling base (231).

[0134] The vibration connecting portion (232) may be screwed into the inner side of the main body cavity (211a) or may be screwed into the outer surface. However, as shown in FIGS. 12 and 14, it is preferable that the vibration connecting portion (232) be formed in a spherical shape at the portion inserted into the main body cavity (211a).

[0135] The above-described vibration structure coupling member (230) may be configured to be fixedly coupled to the main body (210) as described above, or may be configured to have a vibration connection part (232) formed as a sphere and move within a certain angle as shown in FIGS. 12 and 14. In the latter case, a sphere coupling groove (217) should be further configured on the inside of the lower part of the main body cavity (211a) so that a sphere can be inserted and coupled and rotated. In addition, the main body cylinder (211) may further be configured with a friction control part (not shown) that applies pressure to the sphere coupling groove (217) from the outside to control the frictional force applied to the sphere inserted inside.

[0136] One or more vibration structures (220) may be coupled to the bottom surface of the vibration structure coupling member (230), but it is preferable that two or more vibration structures (220) are coupled, and more preferably, it is preferable that four vibration structures (220) are coupled. The area of ​​the vibration structure coupling member (230) may be set according to the number of vibration structures (220) to be coupled, but it is preferable that it be set to an area in which four vibration structures (220) and a laser light-emitting device (250) can be configured in the center so that the operator can easily operate them during the procedure.

[0137] It is preferable that the above-mentioned vibration structure (220) be arranged in correspondence with the shape of the coupling base (231) of the vibration structure coupling member (230). For example, if the coupling base (231) is configured in a circular shape, the vibration structure (220) may be arranged in a circular radial shape at regular intervals, and if it is square, the vibration structure (220) may be arranged in correspondence with the corners or arranged at regular intervals along each side.

[0138] In addition, as shown in FIGS. 12 to 14, a laser emitting device (250) that receives power and control signals from a control device (290) and irradiates a laser is configured at the center of the bottom surface of the vibration structure connecting member (230).

[0139] The vibration structure (220) includes an elastic body (221), an elastic coupling member (222), a first vibration body (223), and a second vibration body (224), and may further include a vibration body coupling member (225) according to an embodiment.

[0140] One end of the elastic coupling member (222) is coupled to the vibration structure coupling member (230).

[0141] The elastic body (221) may be a spring, a spring-type coupling (poly), etc., and is inserted into the elastic coupling member (222). The elastic body (221) may be coupled so that one end is fixed to the bottom surface of the vibration structure coupling member (230).

[0142] The first vibrating body (223) is connected to the other end of the elastic coupling member (222) while the elastic body (221) is inserted into the elastic coupling member (222) and is in close contact with the elastic body (221) to generate a first vibration under the control of the control device (290). When the first vibration occurs, the elastic body (221) enhances the vibration force.

[0143] As shown in Fig. 16, the second vibrator (224) is attached to the outer surface of the lower part of the first vibrator (223) so as to protrude downward so as to touch the skin, and generates a second vibration under the control of the control device (290).

[0144] It is preferable that one first vibrator (223) is composed of two or more second vibrators (224), but it is preferable that there are four of them as shown in Fig. 16.

[0145] The first vibrating body (223) includes a motor support member (223b) that secures the first vibrating body (223) by wrapping the upper part of the first motor (223a) that generates the first vibration by being connected to the elastic coupling member (222) and being in close contact with the elastic body (221) as shown in Fig. 17, or the upper part of the first motor (223a) and the lower part of the elastic body (221).

[0146] The second vibrator (224) includes a motor protection member (224a) that has a hollow portion in the center with at least an open lower portion and is coupled to the lower outer surface of the first motor (223a), and a second motor (224b) that is inserted into the hollow portion and coupled so as to protrude from the motor protection member (224a) at a lower portion that touches the skin and generates a second vibration.

[0147] The vibrating body coupling member (225) wraps around, fixes, and supports the first vibrating body (223) and a plurality of second vibrating bodies (224) coupled to the first vibrating body (223).

[0148] In the above description, the case where the motor support member (223b) and the vibrating body coupling member (225) are configured is described, but it may also be configured with only one vibrating body coupling member that surrounds the entire first vibrating body (223) and the second vibrating body (224) (excluding the protruding portion of the second motor (224b)).

[0149] A plurality of vibration structures (220) are controlled by a control device (290) to generate two or more vibrations having different cycles and torques to massage the patient's muscles in two or more rhythms.

[0150] The first motor (223a) can operate at a first cycle (rotational speed) and a first torque, and the second motor (224b) can operate at a second cycle (rotational speed) and a second torque. It is preferable that the rotational speed of the second motor (224b) is greater than the rotational speed of the first motor (223a), and the rotational torque of the first motor (223a) is greater than the rotational torque of the second motor (224b).

[0151] In addition, the first motor (223a) and the second motor (224b) may be formed in a cylindrical structure or may be formed in a cantilever structure.

[0152] As described in the first embodiment above, it is preferable that the first motor (223a) have a rotational speed of 8000 to 15000 RPM and have a rotational force and rotational torque greater than those of the second motor (224b).

[0153] And, it is preferable that the second motor (224b) be configured to have a rotation speed of 8000 to 24000 RPM, so as to have a rotation speed that is faster than that of the first motor (223a), and it is preferable that the rotational force and rotational torque are configured to be smaller than those of the first motor (223a).

[0154] The low-energy laser light source device (250) receives power from the control device (290) and is controlled to deliver heat to the patient's muscles.

[0155] To explain the structure of the muscle restoration equipment (100) in more detail, a plurality of vibration structures (220), a laser light source device (250), and a control device (290) are mounted and connected to a main body (210) forming a central structure.

[0156] At the bottom of the muscle recovery equipment (100), the lower end of each of a plurality of vibration structures (220) protrudes, and at the top, a blocking member (216) covering the main body cavity (211a) of the main body (210) is formed, and at the upper end of the blocking member (216), an operating unit (240) electrically connected to a control device (290) is formed.

[0157] The above-described operating unit (240) is preferably configured at the upper end of the blocking member (216) as shown in FIG. 12, but may be configured at any location on the outer circumference of the main body (210) depending on the embodiment. The operating unit (240) may include one or more of a vibration switch, a laser switch, and a control switch, which will be described later, and may also be configured with a display device (not shown) that displays information according to the operating state.

[0158] The electrical connection between the control device (290) and the vibration structure (220) may be made through the main body cavity (211a), the internal conduit of the elastic coupling member (222), etc., or may be made by creating a separate hole for electrical wiring. However, since such electrical wiring can be configured in various ways by those skilled in the art according to the configuration of the present invention, a detailed description thereof will be omitted.

[0159] The control device (290) may drive only the first vibrator (223), only the second vibrator (224), or both the first vibrator (223) and the second vibrator (224) simultaneously, depending on the operator's manipulation of the operator's manipulation unit (240). In addition, the control device (290) may be configured to slightly delay each of the plurality of second vibrator bodies (224) so ​​that they vibrate at different rhythms, depending on the operator's manipulation of the operator's manipulation unit (240).

[0160] The practitioner holds the muscle restoration equipment (100) in his / her hand, brings the protruding part of the lower vibration structure (220) into contact with the skin, and allows the multiple vibrations of the vibration structure (220) and the light irradiated from the laser light emitting device (250) to affect the skin.

[0161] The muscle restoration equipment (100) is a treatment device that automatically raises the skin temperature to 37-40℃ (99-104℉) and then breaks up the adhered muscles, similar to how an excavator vibrates asphalt to break it up. To this end, multiple motors are applied to the vibration structure (220). However, since direct contact with the skin may damage the skin, a thin metal curved cover is applied to the protruding part of the motor that touches the skin. In addition, since the vibration of the motor generates heat at the contact part, the temperature around the muscle to be restored naturally also rises.

[0162] However, the surrounding temperature of the muscle to be restored must rise to 37-40℃ (99-104℉), but since the temperature cannot rise to this level with only the heat generated by the vibration of the motor and the frictional heat, a laser light emitting device (250) that generates a light source having a specific frequency is provided together with a vibration structure (220) so that the temperature around the muscle irradiated with the laser can rise when the muscle is irradiated with the laser.

[0163] This type of vibration therapy improves range of motion, increases subcutaneous blood flow, enhances muscle strength, and enhances kinesthetic perception. Mechanical vibrational exercise is provided through vibration, which is defined as the oscillatory changes in force, acceleration, and displacement over time.

[0164] Furthermore, the device of the present invention is designed to apply two or more levels of vibration to the muscles. Level 1 vibration, generated by each vibration motor, breaks down calcium deposits in the muscles and softens adhered muscles. The heat generated by the rapid rotation of the motors maintains temperature deep within the muscles, acts to separate adhered muscles, and dissolves inflammation and foreign substances from calcified muscles.

[0165] That is, in order to apply the maximum soft yet strong stimulation to the muscles, a second vibrator (224) having a second motor (224b) is attached to a first vibrator (223) having a slightly stronger first motor (223a), so that while the protrusions of a plurality of second motors (224b) that are in direct contact with the skin stimulate the calcified muscles, the slightly stronger first motor (223a) operates simultaneously, thereby stimulating the calcified muscles as much as possible and playing a role in breaking up the calcium.

[0166] The second-stage vibration transmits vibration power by connecting the first motor (223a) to a vibration connecting member (222) such as an aluminum tube, so that the entire main body exhibits vibration capability. The second-stage vibration causes each of the aluminum tubes, which are vibration connecting members (222) connected to the four motors provided in the main body (210), to vibrate, and the aluminum tubes vibrate the main body (210). The vibration caused by this serves to gently prepare the muscle area to be restored, and the vibration of each motor head, which is the first-stage vibration, breaks the muscle and causes the heat generated by the motor rotation to melt lime or foreign substances in the muscle.

[0167] By applying double vibration to the skin in this way, the present invention can improve or remove the adhesions in damaged muscles with calcification and adhesions, as shown in 1011 of FIG. 21, and turn them into healthy muscles, as shown in 1012.

[0168]

[0169] Fig. 18 is a perspective view showing the appearance of a muscle restoration device according to a third embodiment of the present invention, Fig. 19 is an exploded view showing the main body of the muscle restoration device according to a third embodiment of the present invention, and Fig. 20 is a perspective view showing the main body of the muscle restoration device according to a third embodiment of the present invention. The following description will be given with reference to Figs. 18 to 20.

[0170] The upper part of the main body (210) of the present invention according to the third embodiment is open like the first embodiment, and the lower part is closed. That is, the upper part of the main body cavity (211a) of the main body cylinder (211) of the main body (210) is open, and the lower part is closed.

[0171] According to another embodiment of the third embodiment, the main body (210) may be configured with a bottom flange (212) that extends and protrudes from the bottom surface of the main body cylinder (211) and an upper flange (213) that extends and protrudes from the top surface of the main body cylinder (211) so as to have a radius larger than the radius of the main body, while the bottom surface is closed.

[0172] The vibration structure (220) of the present invention according to the third embodiment may be coupled to the closed lower part of the main body cylinder (211) of the closed main body (210) as shown in FIG. 18, or may be coupled to the lower surface of the lower flange (212).

[0173] The above-mentioned bottom flange (212) and top flange (213) may have multiple through holes (bottom through holes (212a), top through holes (213a)) formed at the same location.

[0174] When the above-described bottom flange (213) and top flange (213) are configured and the bottom through hole (212a) and top through hole (213a) are configured, according to another embodiment, the elastic coupling member (222) of the vibration structure (220) may be formed long enough to correspond to the length of the main body cylinder (211) so that it may be coupled by penetrating the bottom through hole (212a) of the bottom flange (212) and the top through hole (213a) of the top flange (213) as in the first embodiment.

[0175] In addition, according to another embodiment of the third embodiment, an intermediate flange (214) may be further formed to protrude and have a radius larger than the radius of the main body cylinder (211) at any portion between the bottom flange (212) and the upper flange (213) of the main body cylinder (211), and the intermediate flange (214) may also have an intermediate through hole (214a) formed at the same position as the position of the bottom through hole (212a) of the bottom flange (212) and the upper through hole (213a) of the upper flange (213).

[0176] The intermediate flange (214) and the intermediate through hole (214a) may be configured one or more, and protect the elongated elastic joint member (222) from bending and breaking, and more strongly connect and support the elastic joint member (222).

[0177] To explain again, a plurality of bottom through holes (212a) are formed along the circumference of the bottom flange (212), a plurality of middle through holes (214a) are formed along the circumference of the middle flange (214), and a plurality of top through holes (213a) are formed along the circumference of the top flange (213). The bottom through holes (212a), the middle through holes (214a), and the top through holes (213a) are formed in positions that are aligned with each other in the vertical direction and face each other, so that the vibration structure (220) is connected by penetrating the through holes (212a, 213a, 124a), and the elastic coupling members (222) inserted into the vertically aligned through holes can be firmly fixed in the vertical direction. The vibration structure (220) is not placed in a closed position inside the main body cylinder (211), but is placed so as to be exposed in an open position through an outer flange (212, 213, 214), so that the operation of the vibration structure (220) can be easily observed, replacement can be easily made, and according to an embodiment, a laser light source device (250) can be easily configured in the center of the main body cylinder (211).

[0178] By arranging the first vibrator (223) and the second vibrator (224) in series, the present invention enables larger composite vibrations to be generated, while simultaneously increasing the skin area to which vibrations can be applied by configuring four second motors (224b) that directly contact the skin with the first motor (223a) of one first vibrator (223), and widely dispersing heat without damaging the skin, so that hardened muscles can be softened without damaging the skin in contact. In the vibrating motor, far-infrared heat is generated by the magnet inside the motor, and if the heat is concentrated in one place, there is a risk of skin burns, but by dividing the vibration of the same magnitude and generating it by two motors, there is an effect of dispersing the heat.

[0179] The first motor (223a) has the effect of strengthening the vibration of the first vibrating body (223) due to its large rotational torque. However, this may generate high-temperature far-infrared heat, which may have a negative effect on the skin. However, by additionally providing the second motor (224b) at the skin contact location, it is separated from the skin and has a distance, thereby reducing the risk of burns.

[0180] The second motor (224) is a motor located at the contact point of the terminal, and although it rotates at high speed, the sensation felt on the skin is soft due to the small rotational torque, and the heat generation is low, so it is at a level where you feel a warm sensation, and thus has the effect of protecting against burns.

[0181]

[0182] FIG. 22 is a perspective view showing the exterior of a muscle restoration device according to a fourth embodiment of the present invention, FIG. 23 is a view showing an exploded perspective view of a muscle restoration device according to a fourth embodiment of the present invention, FIG. 24 is a view showing a cross-sectional view of a muscle restoration device according to a fourth embodiment of the present invention taken along line AA', FIG. 25 is a view showing a pattern printed on the exterior of a muscle restoration device according to a fourth embodiment of the present invention, and FIG. 26 is a view showing a plan view and a bottom view of a muscle restoration device according to a fourth embodiment of the present invention. The following description will be given with reference to FIGS. 22 to 26.

[0183] A muscle restoration device (100) according to a fourth embodiment of the present invention includes a main body (310), a plurality of vibration structures (320), an equipment protection member (330), an equipment protection elastic body (340), a laser light emitting device (350), and a control device (390).

[0184] The main body (310) of the muscle restoration equipment according to the fourth embodiment includes a long main body cylinder (311) in which the plane, bottom, and horizontal cross-sections are formed in the shape of a locust or a figure 8, as shown in FIG. 26, and a main body cavity (311a), which is an empty space in the shape of a locust or a figure 8, is formed on the inside.

[0185] The above main body cylinder (311) is preferably in the shape of a grasshopper, and when formed in the shape of a grasshopper, when the radius of the small first circle at the top is r, the radius of the large second circle at the bottom is preferably set to r+r / 5=1.2r. For example, when the radius of the first circle is 5 cm, the radius of the second circle is preferably 6 cm.

[0186] The bottom surface of the main body cylinder (311) is configured to be open and the top surface to be closed. That is, the portion corresponding to the bottom surface of the main body cavity (311a) is opened to form an opening (311b), and the portion corresponding to the top surface is configured to be closed.

[0187] The outer surface of the main body cylinder (311) formed in a grasshopper shape or a figure 8 shape may be configured to include a bottom flange (312) and an upper flange (313) that protrude along the shape of the outer surface of the main body cylinder (311).

[0188] According to an embodiment, the main body cylinder (311) may further be configured with one or more intermediate flanges (314) protruding along the outer surface between the bottom flange (312) and the top flange (313). Preferably, there is one intermediate flange (314), and it is preferably configured to include one of the bottom flange (312), the intermediate flange (314), and the top flange (313). It is preferably configured so that the ratio of the first distance from the bottom flange (312) to the intermediate flange (314) and the second distance from the intermediate flange (314) to the top flange (313) is 2:1. For example, when the total length of the main body cylinder (311) is 15 cm, the first distance is preferably 10 cm, and the second distance is preferably 5 cm.

[0189] The above flanges (312, 313, 314) are configured to fix the vibration structure (320).

[0190] Accordingly, a plurality of bottom through holes (312a) are formed along the circumference of the bottom flange (312), a middle through hole (314a) is formed in the middle flange (314), and a plurality of top through holes (313a) are formed along the circumference of the top flange (313). The bottom through holes (312a), the middle through holes (314a), and the top through holes (333a) are formed in positions that are aligned with each other in the vertical direction and face each other, so that the vibration structure (320) inserted into these through holes can be firmly fixed in the vertical direction.

[0191] The number of through holes (312a, 313a, 314a) formed in each flange (312, 313, 314) of the main body cylinder (311) may be formed in multiple numbers depending on the size and shape of the main body cylinder (311), but it is preferable to form approximately 10 through holes.

[0192] In addition, since the main body cylinder (311) is formed in a grasshopper shape or a figure 8 shape, it is preferable to configure it so that the same number of through holes (312a, 313a, 314a) are formed on both sides of the waist portion of the grasshopper shape or the figure 8 shape, and it is preferable to configure it so as to be symmetrical.

[0193] The above main body cylinder (311) includes a light source support part (312c) that crosses the concave waist part of the bottom end (312b) of the bottom flange (312) in the shape of a grasshopper and has a light source hole (312d) formed in the center into which a laser light emitting device (350) is inserted, as shown in 1601 of FIG. 26.

[0194] The above light source support member (312c) may be formed with a thickness corresponding to the bottom flange (312), or may be formed to extend along the concave waist portion of the main body cavity (311a) to the control device (390), and may be configured to form a wiring space between the laser light emitting device (350) and the control device (390) inside.

[0195] The closed upper surface of the main body cylinder (311) may be configured with an operating unit (391), a display unit (392), and a battery charging terminal (393) of a control device (390) as in 1602 of FIG. 26.

[0196] The vibration structure (320) is inserted and fixed into the upper surface through hole (313a) of the upper surface flange (313) by penetrating the lower surface through hole (312a) of the lower surface flange (312) of the main body cylinder (311), and in the case where the intermediate flange (314) is configured according to an embodiment, it is fixed more firmly by penetrating the intermediate through hole (314a) of the intermediate flange (314).

[0197] The above-mentioned vibration structure (320) is provided with a vibration body (327) and a vibration connecting member (322) that is connected to the vibration body (327) and formed in a long shape and penetrates the through-holes (312a, 313a, 314a) of the flanges (312, 313, 314) in the same manner as the vibration structure (120) of FIG. 1, and an elastic member (323) such as a spring is arranged between the upper part of the vibration body (327) and the lower flange (312), and an elastic member (329) is also arranged in the upper surface through-hole (313a) of the upper flange (313).

[0198] Depending on the embodiment, an elastic member may also be placed in a portion corresponding to the intermediate through hole (314a) of the intermediate flange (314).

[0199] Elastic members (323, 329) increase the forward vibration force of the vibrating body (327) while alleviating the vibration transmitted to the main body cylinder (311) when the vibrating body (327) vibrates.

[0200] The cover (330) is a silicone-treated aluminum cover or a silicone-treated plastic cover, and is configured to be covered with a silicone cover on the outside of the aluminum cover or the plastic cover.

[0201] The above cover (330) covers the exterior of the upper part of the vibrating structure (320) at the end of the upper flange (313) of the main body (310) to which the vibrating structure (320) is coupled, thereby protecting the vibrating structure (320) and the main body (310).

[0202] The above cover (330) is configured to be coupled to the main body (310) at a certain distance by a plurality of spacer members (340) formed in the main body (310). It is preferable that the distance be 0.5 cm.

[0203] The cover (330) may be configured to include a first cover (331) and a second cover (332) as shown in FIG. 24 according to an embodiment.

[0204] The first cover (331) is configured to have a length that can cover a portion of the vibrating body (327) of the vibrating structure (320) from the upper portion of the main body cylinder (311), and the second cover (332) is configured to extend from the lower portion of the first cover (331) and cover the entire vibrating body (327) when unfolded.

[0205] The above second cover (332) is configured to be folded outward at the point of contact with the first cover (331) as shown in Fig. 24.

[0206] The first cover (331) is preferably made of silicon-treated aluminum, and the second cover (332) is preferably made of silicon only so that it can be folded. The second cover (332) is preferably formed to a length that allows it to be folded when in use and to allow the end of the vibrator (327) to be locked to a certain length when not in use. The length is preferably 1 cm.

[0207] If the second cover (332) is made of silicon-treated aluminum or plastic, it is preferable to be configured to be vertically split at both sides of the aluminum or plastic waist portion based on Fig. 24 based on the grasshopper shape so that it can be folded, or to be configured to be split at one or more other portions other than the waist portion.

[0208] The above cover (330) may have the product name and hospital mark printed on the silicone cover as shown in Fig. 25.

[0209] The above-mentioned spacer (340) is preferably a strong elastic body such as a steel spring bolt, and a plurality of spacers are formed along the outer surface of the flange (312, 313, 314). The number of the spacers (340) is preferably determined according to the size of the main body cylinder (311), but if the main body cylinder (311) is formed to be 15 cm, it is preferable that there be 12 of them.

[0210] The laser light emitting device (350) may be a device that applies a laser that irradiates a light source for transferring heat to muscles, such as the above-described laser light emitting device (150, 250), or may be a device that applies a cold laser that irradiates a low-power laser light source of multiple wavelengths that stimulates muscles. The cold laser increases the production of adenosine triphosphate (ATP) within cells, thereby improving nerve conduction, thereby providing various effects on nerve health, such as reducing inflammation, improving blood flow, and promoting regeneration of damaged nerves.

[0211] The control device (390) includes an operation unit (391), a display unit (392), and a battery charging terminal (393) configured on the upper surface of the main body cylinder (311) as described above, and includes a power supply unit such as a battery and a control module.

[0212] The above operation unit (391) may include a laser switch that turns the laser light source device (350) on / off, a motor switch that turns the operation of the vibrator (327) on / off, a speed controller that controls the speed of the motor, etc.

[0213] The display unit (392) may be a liquid crystal display (LCD) that displays information such as the operation mode, motor vibration speed, etc. according to the operation of the operation unit (391) under the control of the control module of the control device (390), or may be a sticker that contains product information such as operation instructions, power, and manufacturer, regardless of the control module.

[0214] The battery charging terminal (393) is a terminal such as a power terminal, USB-B, or USB-C, and receives charging power from a power adapter, USB-B adapter, USB-C adapter, or a device connected to a USB-B or USB-C cable, and allows charging of a power device such as a battery under the control of the control module or independently.

[0215] While this specification includes many features, such features should not be construed as limiting the scope of the present invention or the claims. Furthermore, features described in individual embodiments of this specification may be combined and implemented in a single embodiment. Conversely, various features described in a single embodiment of this specification may be implemented individually in multiple embodiments or, as appropriate, combined and implemented.

[0216] The present invention described above is not limited to the above-described embodiments and the attached drawings, as various substitutions, modifications, and changes can be made within the scope of the technical idea of ​​the present invention by a person having ordinary skill in the art to which the present invention pertains.

[0217]

[0218] [Explanation of symbols]

[0219] 100: Muscle Recovery Equipment

[0220] 110, 210, 310: Body 111, 211, 311: Body cylinder

[0221] 111a, 211a, 311a: Main body cavity 112, 212, 312: Bottom flange

[0222] 112a, 212a, 312a: Bottom through hole 112b, 212b, 312b: Bottom end

[0223] 113, 213, 313: Top flange 113a, 213a, 313a: Top through hole

[0224] 114, 214, 314: Intermediate flange 114a, 214a, 314a: Intermediate through hole

[0225] 116, 216: Blocking member 120, 220, 320: Vibrating structure

[0226] 121: First motor 121a: First support

[0227] 122: Vibration connecting member 123, 323: Elastic member

[0228] 124: Second motor 125: Support member

[0229] 126: Housing 127, 327: Vibrator

[0230] 130: Closing member 160, 290, 390: Control device

[0231] 140, 240, 391: Control panel

[0232] 141: Vibration switch 142: Laser switch

[0233] 143: Control switch 150, 250, 350: Laser light emitting device

[0234] 160: Power supply 221: Elastic body

[0235] 222: Elastic bonding member 223: First vibration body

[0236] 223a: First motor 223b: Motor support member

[0237] 224: Second vibration body 224a: Motor protection member

[0238] 224b: Second motor 225: Vibration body coupling member

[0239] 225c: Vibrating body joint member 230: Vibrating structure joint member

[0240] 231: Joint base 232: Vibration connection

[0241] 312c: Light source support 312d: Light source hole

[0242] 330: Equipment protection member 340: Separating member

[0243] 392: Display 393: Battery charging terminal

Claims

1. In the equipment for stimulating the surface of the skin and restoring muscles, Long body (110); A vibration structure (120) provided in the main body (110) and having an end protruding toward the bottom of the main body (110); and A muscle restoration device characterized by comprising a control device (160) for controlling the operation of the above-mentioned vibration structure (120).

2. In paragraph 1, The above main body (110) is designed so that the bottom surface faces the human body, A muscle restoration device characterized in that the vibrating body (127) of the vibrating structure (120) is positioned so as to protrude in the direction of the bottom end (112b) of the main body (110).

3. In paragraph 2, The above vibration structure (120): A muscle restoration device characterized in that a plurality of devices are arranged at intervals along the outer surface of the main body (110).

4. In paragraph 2, The above main body (110): Includes a longitudinal body cylinder (111); A muscle restoration device characterized in that the above main body cylinder (111) has a main body cavity (111a) with an empty interior.

5. In paragraph 4, The above main body cylinder (111) has a flange formed to protrude outward, A muscle restoration device characterized in that the above vibration structure (120) is positioned and supported through the flange.

6. In paragraph 5, The above flange: A bottom flange (112) arranged close to the bottom side of the main body cylinder (111); and A muscle restoration device characterized by comprising an upper flange (113) arranged close to the upper surface of the main body cylinder (111).

7. In paragraph 3, Muscle restoration equipment characterized in that a laser light emitting device (150) is provided at the lower end (112b) of the main body (110).

8. In paragraph 2, The above vibration structure (120): A vibrating body (127) that generates vibrations by the operation of the motor, including a motor; and A muscle restoration device characterized by comprising a vibration connecting member (122) connected to the above vibrating body (127).

9. In paragraph 8, Muscle restoration equipment characterized in that the above vibrating body (127) is supported on the bottom end (112b) of the main body (110).

10. In paragraph 8, It is further configured to include an elastic member (123) supported on the lower end (112b) of the main body (110); Muscle restoration equipment characterized in that the upper part of the above vibrating body (127) is supported by the above elastic member (123).

11. In paragraph 9 or 10, The above vibrating body (127) includes a first motor (121), The above vibrating body (127) is: A muscle restoration device characterized by further comprising a second motor (124) coupled to the lower part of the first motor (121).

12. In paragraph 1, The above control device (160): A vibration switch (141) for determining the power supply of the vibrator (127); or, A laser switch (142) for determining the power supply of the laser light emitting device (150); or, A muscle restoration device characterized by including an input unit (140) including at least one of a vibration amount of a vibrating body and a control switch (143) for controlling the light emission amount of a laser light emitting device.

13. In a muscle restoration device for stimulating the surface of the skin to restore muscles, Long body (210); A double vibrating vibration structure (220) having at least one end of the main body (210) and including at least one protrusion protruding to contact the surface of the skin; A vibration structure coupling member (230) configured between the main body (210) and the vibration structure (220) to couple the main body and the vibration structure (220); and A muscle restoration device characterized in that it comprises a control device (290) configured in the main body (210) and connected to the vibration structure (220) through the vibration structure coupling member (230) to control the operation of the vibration structure (220).

14. In paragraph 13, The above vibration structure (220) is composed of two or more, The above vibration structure connecting member (230) is A coupling base (231) in which a plurality of the above vibration structures (220) are coupled in the bottom direction; and A muscle restoration device characterized by including a vibration connecting part (232) connecting the main body (210) and the coupling base (231).

15. In paragraph 14, The above main body (210) is It includes a sphere coupling groove (217) configured to be inserted and coupled inwardly and rotated at one end. The above vibration connection part (232) is, A muscle restoration device characterized in that the opposite part of the part to be joined to the above-mentioned joining base (231) is formed into a sphere and configured to be joined to the sphere joining groove (217).

16. In paragraph 14, The above vibration structure (220) is A hollow portion is formed, and an elastic body (221) that contacts one side of the lower surface of the above-mentioned joining base (231) to provide elasticity according to vibration; An elastic coupling member (222) coupled to the coupling base (231) through the hollow portion of the elastic body (221); A first vibration body (223) connected to the other end of the elastic coupling member (222) and configured to contact the elastic body (221) to generate a first vibration; and A muscle restoration device characterized by including at least two second vibration bodies (224) formed on the lower part of the outer surface of the first vibration body and having the protrusion formed therein to generate a second vibration.

17. In paragraph 16, The above first vibration body (223) is A first motor (223a) connected to the other end of the elastic coupling member (222) and configured to contact the elastic body (221) and generate a first vibration under the control of the control device; and A muscle restoration device characterized by including a motor support member (223b) that wraps around a part of the first motor (223a) and the elastic body (221) and supports the first motor (223a) and the elastic body (221).

18. In paragraph 17, The above second vibration body (224) is A motor protection member configured in a hollow tube shape and coupled to the lower part of the outer surface of the first vibrating body; and A muscle restoration device characterized by including a second motor that is inserted and fixed into the hollow space of the motor protection member and generates a second vibration under the control of the control device.

19. In paragraph 18, The rotation speed of the second motor (224b) is greater than the rotation speed of the first motor (223a), or Muscle restoration equipment characterized in that the rotational torque of the first motor (223a) is greater than the rotational torque of the second motor (224b).

20. In paragraph 18, The above vibration structure is, A muscle restoration device characterized in that it further includes a vibration body coupling member (225) that wraps around and supports the lower part of the first vibration body and the entire motor protection member of the second vibration body.

21. In a device for stimulating the surface of the skin to restore muscles, A main body (310) including a long main body cylinder (311) in which a short end is formed by a grasshopper shape and an internally hollow main body cavity (311a) is formed; A vibration structure (320) provided in the main body (310) and having an end protruding toward the bottom of the main body (310); and A muscle restoration device characterized by comprising a control device (390) for controlling the operation of the above-mentioned vibration structure (320).

22. In paragraph 21, A muscle restoration device characterized in that it further includes an equipment protection member (330) that surrounds the long body (310) and the vibration structure (320) by forming an end in the shape of a grasshopper corresponding to the shape of the main body (310), but wraps the end of the vibration structure (320) so that it is exposed.

23. In paragraph 22, The above main body cylinder (311) is It has two or more flanges that protrude outwardly, The above vibration structure (320) is It is placed and supported through the above flange, A muscle restoration device characterized by further including a separation member (340) configured vertically to the flange to separate the main body (310) and the equipment protection member (330) by a certain distance.

24. In paragraph 23, The above equipment protection member (330) is An aluminum body having a locust-shaped end; and A muscle restoration device characterized by including silicone covering the exterior of the aluminum body.

25. In paragraph 24, The above main body cavity (311a) is It is formed in a grasshopper shape identical to the shape of the end of the above main body (310), The above main body (310) is It further includes a light source support part (312c) configured to cross the locust-shaped waist part of the bottom surface of the main body cylinder (311) facing the human body of the main body (310) and having a light source hole (312d) formed in the center. The above muscle restoration equipment is, A muscle restoration device characterized in that it further includes a laser light emitting device (350) that is inserted into the light source hole (312d) and irradiates a light source under the control of the control device.

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