KR101030572B1 - breast massage apparatus - Google Patents

Abstract

The present invention relates to a massage device for breast shaping, the drive unit for receiving and driving the vibration generator, low frequency generator and the vibration generator and low frequency generator for transmitting the control signal from the outside in a housing formed detachably to the charger And a remote controller for outputting a control signal for remotely controlling the massage unit corresponding to the operation of the operation key. The massage unit has a power supply from the internal power source in the massage unit to the drive unit when the massage unit is seated on the charger. It is provided with a power supply control unit for interrupting the supply and supplying power from the internal power source to the drive unit so as to receive a signal received from the remote controller when the massage unit is separated from the charger. According to such a massage device for breast shaping, when the massage unit is seated on the charger, the power supply is cut off so that the massage unit does not operate in a reception standby mode for receiving a wireless control signal, thereby reducing unnecessary power consumption. do.

Chest massage, standby power, remote control

Description

Breast massage apparatus

The present invention relates to a massage apparatus for breast shaping, and more particularly, to a massage apparatus for breast shaping formed to stimulate the chest.

Recently, with increasing interest in women's beauty and health, various massage devices have been developed for stimulating the breast to facilitate blood circulation in the breast and to obtain metabolic and acupressure effects.

In addition to the blood circulation effect, these massage devices are also used as devices for transforming small breasts, sagging breasts, and unbalanced breasts into pretty and elastic breasts.

Korean Patent Laid-Open Publication No. 2005-0103084 discloses a breast massage device operated by a wireless remote control and a driving method thereof.

However, the massage device has a problem in that power consumption occurs even when not in use, since power must be supplied from the battery to maintain the reception standby state so that the wireless remote control signal can be received.

The present invention has been made to solve the above problems, and an object of the present invention is to provide a massage device for breast molding that can suppress unnecessary standby power consumption when not in use.

Massage device for breast molding according to the present invention to achieve the above object and the charger; A massage unit having a vibration generator for breast shaping, a low frequency generator, and a driving unit configured to receive and drive a control signal transmitted from an outside of the vibration generator and the low frequency generator in a housing detachably formed with respect to the charger; And a remote controller for outputting the control signal for remotely controlling the massage unit corresponding to an operation of an operation key, wherein when the massage unit is seated in the charger, the control unit is connected to the driving unit from an internal power source in the massage unit. And a power control unit which cuts power supply and supplies power from the internal power source to the driving unit so that the massage unit can receive a signal received from the remote controller when the massage unit is separated from the charger.

Preferably, the power control unit includes a Hall sensor installed to intercept a power supply path from the internal power source to the driving unit in response to a magnetic force of a magnet mounted to the charger.

In addition, the housing is further provided with a planar heating element for dissipating heat, the surface of the planar heating element is formed with a ceramic coating layer for emitting far infrared rays.

According to an aspect of the present invention, the vibration generator is for vibrating the housing up and down, the first coupled to the motor, the drive shaft of the motor and the first eccentric rotation body is installed eccentrically at the shaft center on one side And a second gear having a gear and a second eccentric rotating body which is meshed with the first gear in a horizontal direction and eccentrically installed at a position corresponding to the first eccentric rotating body on one side thereof.

In addition, the frequency generated from the low frequency generator is selected from 18.7 to 28.7 Hz to tap the muscle, 65 to 126 Hz to release the muscle, 548.7 to 568.7 Hz to rub the muscle, 635.2 to 655.2 Hz to tighten the muscle It is constructed so that either can be applied.

According to the massage device for breast shaping according to the present invention, when the massage unit is seated in the charger, the power supply is cut off so that the massage unit is not operated in the standby mode for receiving the wireless control signal, thereby reducing unnecessary power consumption. Provide advantages.

Hereinafter, with reference to the accompanying drawings will be described in more detail the massage device for breast molding according to a preferred embodiment of the present invention.

1 is a perspective view illustrating a massage unit and a charger of a massage device for breast molding according to the present invention, Figure 2 is a cross-sectional view showing the interior of the massage unit of Figure 1, Figure 3 is an internal power source of the massage unit of Figure 2 Is a circuit diagram showing an example of a power supply control unit for controlling a power supply system from the control unit to the driving unit.

1 to 3, the massage device 100 for breast shaping includes a massage unit 110, a charger 200, and a remote controller 300.

The massage unit 110 includes a housing 120, a vibration generator 130 installed inside the housing 120, a low frequency generator 140, and a driving unit 150.

The housing 120 is detachably formed with respect to the charger 200.

The housing 120 is formed in a streamlined shape in which the center portion is more convex than the edge portion. The contact portion 125, which is positioned below the housing 120 and contacts the chest, is formed to have a gentle curve to be in close contact with the chest without feeling discomfort.

Since the material of the housing 120 is in contact with the human body, it is preferable to use a soft material that is harmless to the human body such as silicone resin. The housing 120 may be integrally formed, but the upper side of the housing 120 may be formed to be coupled to and separated from the contact portion 125 of the housing for ease of repair and management.

The vibration generator 130 is capable of vibrating the housing 120, and a detailed structure thereof will be described with reference to FIGS. 5 and 6 together.

The vibration generator 130 includes a motor 131, a first gear 134 axially coupled to the shaft 133 of the motor 131, and a second gear 136 horizontally engaged with the first gear 134. Has

In addition, the eccentric rotating bodies 135 and 139 are installed on the first and second gears 134 and 136 so that the first and second gears 134 and 136 rotate together with each other. It is. The first eccentric rotating body 135 is provided on the side surface of the first gear 134 which is eccentric to one side from the center of the shaft 133 of the first gear 134. The second eccentric rotating body 139 is provided on the side of the second gear 136 eccentrically centered on the axis 137 of the second gear 136.

In this case, the second eccentric rotating body 139 is eccentric in a direction corresponding to the direction in which the first eccentric rotating body 135 is eccentric. Thus, the first and second eccentric rotating bodies 135 and 139 are located between the two axes 133 and 137 of the first and second gears 134 and 136 or the two axes 133 and 137 of the first and second eccentric rotating bodies. Located outside

Therefore, when the power is supplied to the motor 131 and the first gear 134 and the second gear 136 are rotated at a constant speed, as shown in FIG. 5, the positions between the two shafts 133 and 137 are shown. While the first and second eccentric rotating body 135 and 137 rotate upward, vibration is generated upward. As shown in FIG. 6, the first and second eccentric rotors 135 and 139 are positioned outside the two shafts 133 and 137 during rotation, and then the first and second eccentric rotors 135 ( When 139 is located at the bottom while rotating, the vibration is generated downward.

In addition, when the first and second eccentric rotating bodies 135 and 139 are rotated and positioned on the left or right side, vibrations are generated in opposite directions, respectively, and the generated vibrations cancel each other so that left and right vibrations do not occur.

The vibration generator 130 prevents the vibration in the left and right directions and generates vibration only up and down. This up and down vibration causes the housing 120 to be worn on the lower part of the chest to vibrate up and down to raise the struck chest upward as well as the massage effect, thereby bringing about a breast forming effect.

The low frequency generator 140 includes a low frequency generator 141 and an electrode pad 143 that transmits the low frequency current generated by the low frequency generator 41 to the chest.

The low frequency generator 141 is installed inside the housing 120, and the electrode pad 143 is electrically connected to the low frequency generator 141.

The electrode pad 143 is formed of a soft electrically conductive silicon material and is installed on the bottom surface of the contact portion 125. The electrically conductive silicone material is made by mixing an electrically conductive material such as carbon powder when molding a silicone resin.

The frequency generated from the low frequency generator 141 is selected from 18.7 to 28.7 Hz to tap the muscle, 65 to 126 Hz to release the muscle, 548.7 to 568.7 Hz to rub the muscle, and 635.2 to 655.2 Hz to tighten the muscle. It is preferable that it is either.

It is more preferable that the low frequency is divided into a fifth step to sequentially generate the respective frequencies.

The first stage generates a frequency of 18.7 to 28.7 Hz so that you can tap your chest lightly. 23. For 7Hz, set the energization time to 260㎳ and the rest time to 20.7㎳.

In the second stage, a frequency of 548.7 to 568.7 Hz is generated to rub the chest. In case of 558.7Hz, the energization time is set to 260㎲ and the rest time is set to 1.25㎳.

In the third step, a frequency of 97.9 to 107.9 Hz is generated so that the muscles of the chest can be released. For 102.9Hz, the energization time is set to 268㎳ and the rest time to 9.4㎳.

In the fourth stage, a frequency of 18.6 to 28.6 Hz is generated to have an effect of pulling the muscles of the chest. In the case of 23.6Hz, the energization time is set to 164㎲ and the rest time to 20.9㎳.

In the fifth step, in order to have the effect of tightening and compressing the muscles of the chest, a frequency of 635.2 to 655.2 Hz is generated. In case of 645.2Hz, the energization time is set to 156 휴지 and the rest time is set to 1.23㎳.

Each step set as described above may maximize the massage effect by the low frequency by repeatedly operating in sequence.

In addition, as another pattern of the low frequency generator, the first step generates a frequency of 65.4 Hz, and the energization time is set to 312 Hz and the rest time is set to 7.32 Hz. In the second step, a frequency of 125 Hz is generated. In this case, the energization time is set to 308㎲ and the rest time to 7.64㎳. In the third stage, a frequency of 125.6 Hz is generated. At this time, the energization time is set to 312㎲ and the rest time is set to 7.64㎳. In the fourth step, a frequency of 125.6 Hz is generated. In this case, the energization time is set to 312㎲ and the rest time is set to 7.6㎳. In the fifth step, a frequency of 65.4 Hz is generated. In this case, the energization time is set to 312㎲ and the rest time is set to 7.32㎳.

The massage effect by the low-frequency current is to control the intensity and speed of the appropriate amount to flow to the chest to give a rhythmic and gentle stimulation to the chest to bring more therapeutic effects, such as improving blood circulation and metabolism.

The planar heating element 160 is installed in the housing 120.

On the surface of the planar heating element 160, a ceramic coating layer (not shown) that emits far infrared rays is formed.

The planar heating element 160 is used by forming an electrode layer on a film such as PET or PEN, or a base member such as pulp or cotton cloth. The electrode layer forms a conductive material including tungsten, tin, copper by metallization technique. In addition, a conventional planar heating element 160 may be used.

In addition, a lower portion of the planar heating element 160 forms a ceramic coating layer that emits far infrared rays.

Far infrared rays penetrate deep into the skin to 4 ~ 5cm when radiated to the human body, and activate the tissue through vibrations that vibrate the cells more than 2000 times in 60 seconds. Wastewater and toxic substances are discharged by the effect obtained by releasing thermal energy through such cellular action, and blood purification is performed by decomposing thrombi and promoting blood circulation.

As far-infrared ceramics, silica minerals such as diatomaceous earth and silica sand, clays of kaolinite, germanium, monazite, higerion, elvan, loess and the like can be used. Far-infrared ceramics may be used alone or in combination of two or more.

The far-infrared ceramic is pulverized to a powder, and then mixed into a bonding agent such as a chromium coating solution to form a coating layer on the lower surface of the planar heating element 160. In this case, since the thermal expansion coefficients of the electrode layer and the ceramic coating layer of the planar heating element 160 are different from each other, there is a risk of cracking due to shrinkage and expansion. Therefore, the ceramic powder may be pulverized to have a particle size of 200 to 300 mesh.

In addition, zeolite or silver nano powder particles having an antimicrobial function may be further mixed with the far-infrared radiation ceramic powder to further enhance functionality.

In addition, in addition to the far-infrared radiation ceramics may be used by using a ceramic that emits negative ions or by mixing a far-infrared radiation ceramic and an anion radiation ceramic.

Negative ions increase the ionization rate of minerals and the like in the blood to alkalinize the blood, purify the blood, promote the exchange of electrical substances in the cell membrane, activate the metabolism, and quickly discharge the waste products in the body. In addition, by increasing the amount of immune components in the serum to increase resistance and activate the autonomic nervous system, blood and lymphatic fluid.

Examples of ceramics that emit such anions include tourmaline, guinea pigs, higerions, loess, elvan, gansumite, germanium, and the like. You can also use charcoal.

On the other hand, unlike forming a separate ceramic coating layer on the planar heating element 160 can be used as the planar heating element 160 by coating the electrode layer on the flat ceramic body. The planar heating element 160 may be constructed so as to receive power from an internal power source built in the housing 120. Planar heating element 160 is made in the minimum size in consideration of the capacity of the internal power source to increase the available time. The temperature of the planar heating element 160 is constructed to attach the bimetal or to be controlled by the driving unit 150 to be described later.

The massage device 100 may promote the blood circulation by allowing the user to emit heat and far infrared rays to the chest of the user in addition to the massage function by vibration. In particular, the heat function is more effective because in the autumn or winter when the external temperature is cold wear on the chest in the state in which the massage device 100 is heated.

The power controller controls the power supply to the driving unit 150 from the battery 155 applied as the internal power in the massage unit 110 when the massage unit 110 is seated on the charger 200, and the massage unit 110. Is formed on the circuit board 170 so that power is supplied from the battery 155 to the driving unit 150 so that the signal received from the remote controller 300 can be received from the charger 200.

An example of a configuration circuit of such a power supply control unit will be described with reference to FIG. 3.

The housing 120 is provided with a battery 155 to receive power from the charging terminal 181 provided to be connected to the supply terminal 210 provided in the charger 200.

In addition, the power control unit 180 may switch the first switch element 183 on the power supply path from the battery 155 to the driving unit 150 so that the power supply unit 180 may supply and cut off the power charged in the battery 155 to the driving unit 150. The in transistor can be turned on / off according to the output signal of the hall sensor 185.

Here, the hall sensor 185 is a sensor capable of outputting a low or high signal in response to the magnetic force of the magnet 220 mounted on the charger 200. Thus, when the housing 120 is mounted to the charger 200, when the Hall sensor 185 outputs a low signal in response to magnetic force, the first switch element 183 is turned off to supply power to the driving unit 150. When the path is blocked and the housing 120 is separated from the charger 200 and the magnetic sensitivity of the hall sensor 185 is reduced and outputs a high signal, the first switch element 183 is turned on, leading to the driving unit 150. The power supply path is connected.

Therefore, when the massage unit 110 is seated on the charger 200, the power supply to the driving unit 150 is cut off so that the receiving unit 151 of the driving unit 150, which will be described later, receives a signal transmitted from the remote controller 300. Since it is not necessary to maintain the reception standby state to prevent unnecessary power consumption.

In the drawing, reference numeral 186 denotes a voltage adjusting regulator applied when the charging voltage of the battery 155 and the voltage required by the driving unit 150 are different.

As shown in FIG. 4, the driver 150 includes a receiver 151 and a controller 153.

The receiver 151 processes the signal received from the remote controller 300 and outputs the signal to the controller 153.

The controller 153 controls the driving of the vibration generator 130 and the low frequency generator 140 according to the signal received from the receiver 151.

Reference numeral 159 is a manual switch for user operation that is installed in the housing 120 to manually turn on / off power supply from the battery 155 to the driving unit 150.

The manual switch 159 may be omitted.

The driving unit 150 stops the power supply from the battery 155 when the unit 110 is mounted on the charger 200, and the power supply is resumed when the power supply is resumed from the charger 200. The signal received from 300 may be processed.

The remote controller 300 outputs a control signal for remotely controlling the massage unit 110 corresponding to the operation of the operation key.

The remote controller 300 includes an operation unit 181 provided with an operation key for selecting an operation mode of an operating element including the vibration generator 130 and the low frequency generator 140, and a transmission unit according to an operation signal of the operation unit 181. Remote control unit for transmitting a wireless signal through the (183).

The signal transmitted from the transmitter 183 may be a wireless RF signal RF, and the receiver 151 of the massage utin 110 may be configured to receive an RF signal.

As shown in FIG. 7, the remote controller 300 may remotely control the operation by using the remote controller 300 while the massage unit 110 is worn on the chest.

1 is a perspective view showing a massage unit and a charger of a massage device for breast molding according to the present invention,

2 is a cross-sectional view showing the interior of the massage unit of Figure 1,

3 is a circuit diagram illustrating an example of a power control unit for controlling a power supply system from an internal power supply of the massage unit of FIG. 2 to a driving unit;

4 is a block diagram illustrating a circuit configuration of the driving unit of FIG. 3.

5 and 6 are views showing a state in which the vibration generator of the massage unit of Figure 1 generates vibration up and down,

FIG. 7 is a view illustrating a state in which the massage unit of FIG. 1 is worn on a chest and operated by a remote controller.

Claims (5)

In the massage device for breast shaping, With charger; A massage unit having a vibration generator for breast shaping, a low frequency generator, and a driving unit configured to receive and drive a control signal transmitted from an outside of the vibration generator and the low frequency generator in a housing detachably formed with respect to the charger; And a remote controller for outputting the control signal for remotely controlling the massage unit corresponding to the operation of the operation key. When the massage unit is seated on the charger, the power supply to the driving unit is cut off from the internal power source in the massage unit, and when the massage unit is separated from the charger, the signal received from the remote controller cannot be received. And a power control unit for supplying electric power from the internal power source to the driving unit so that the power can be supplied. The method of claim 1, wherein the power control unit And a Hall sensor installed to intercept a power supply path leading from the internal power source to the driving unit in response to a magnetic force of the magnet mounted to the charger. According to claim 2, The housing is further provided with a planar heating element for dissipating heat, the surface of the planar heating element is a massage device for breast molding, characterized in that the ceramic coating layer for emitting far infrared rays is formed. According to claim 3, wherein the vibration generator is for vibrating the housing up and down, and the motor, the first gear axially coupled to the drive shaft of the motor and the first eccentric rotating body is installed eccentrically at the center of the shaft and And a second gear having a second eccentric rotation body which is engaged with the first gear in a horizontal direction and eccentrically installed at a position corresponding to the first eccentric rotation body on one side thereof. Massage device. The frequency generated by the low frequency generator according to claim 4, wherein the frequency generated from the low frequency generator is 18.7 to 28.7 Hz to tap the muscle, 65 to 126 Hz to release the muscle, 548.7 to 568.7 Hz to rub the muscle, 635.2 to 655.2 to tighten the muscle Massage device for breast shaping, characterized in that any one selected in Hz.

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