KR20080084330A - Movement generator and a body incentive apparatus using movement generator and control method of a body incentive apparatus - Google Patents

Abstract

A vibration generating device, a body stimulating device and a control method of a body stimulating device are provided to obtain a new vibration generating mechanism and to maximize the stimulation of a body through the provided vibration generating mechanism. A vibration generating device includes a first vibration generating unit(11), a second vibration generating unit(12), a microprocessor(14) and a power supply unit(15). The first vibration generating unit generates vibrating power for stimulating parts of a human body according to input signals. When a control signal is input through an input unit(13) that receives an action control signal, the microprocessor controls the action of the first and second vibration generating devices by performing the routine that corresponds to the control signal among the program routines that are previously stored.

Description

MOVEMENT GENERATOR AND A BODY INCENTIVE APPARATUS USING MOVEMENT GENERATOR AND CONTROL METHOD OF A BODY INCENTIVE APPARATUS}

Figure 1 is a schematic block diagram of the configuration of the vibration generating device of the present invention.

Figure 2 is a block diagram showing in more detail the configuration of the vibration generating device of the present invention.

Figure 3 is a block diagram showing another configuration of the vibration generating device of the present invention.

Figure 4 is a perspective view of a body stimulation device using a vibration generating device of the present invention.

Figure 5 is a cross-sectional view of the body stimulation device using a vibration generating device of the present invention.

Figure 6 is a block diagram showing the progress of the body stimulation apparatus of the present invention.

7 is a schematic diagram showing the same direction vibration generating state of the present invention.

8 is a schematic diagram showing an opposite direction vibration generating state of the present invention.

Figure 9 is a vibration generating state by the rotation and linear vibration of the present invention.

* Symbol description for main part of drawing *

10: vibration generating device 11,11 ': first vibration generating means

11a: Motor 11b: Rotor

11c: power carrier 11d: magnetic force generator

11e: magnetic reactant 11f: case

12: second vibration generating means 12a: pad

12b: heater 12c: heat sink

13 input means 14 microprocessor

15: power supply means 20: output means

30: vibration transmission means 40: support means

The present invention relates to a vibration generating device, a body stimulation device using the vibration generating device and a method of controlling the body stimulation device, in particular, by using the stimulus generated from the vibration generating device skin, blood vessels, bones, nerves around the desired body The present invention relates to a vibration generating device for stimulating a back, a body stimulating device using the vibration generating device, and a control method of the body stimulating device.

In general, as a device for performing body stimulation, a device for performing a shaking function and a device having a tapping function by embedding a vibrator in a close contact surface are used. Since the conventional belt performs only one function by shaking or tapping certain parts of the body such as the abdomen, the user may experience only a simple massage.

Therefore, to compensate for this, a belt surrounding the abdomen, the waist, and the like has a vibrating unit capable of simultaneously performing the function of kneading and tapping, and the vibrating unit is composed of a vibrating body connected by a motor and a timing belt so that the massage effect during massage operation and An electric massage belt that can achieve a diet effect together is proposed as Republic of Korea Utility Model Registration No. 0345251.

Looking at the technology of the electric massage belt through the contents disclosed in the Republic of Korea Utility Model Registration No. 0345251, the belt body having a fastening means such as a magic tape at both ends so that the abdomen, etc. can be wound and fixed tightly, and the belt A vibrating part which is built in the center of the body to massage the close contact portion by vibration induced by the eccentric rotational force generated when the power is applied; A power supply unit supplying external power to supply driving power to the vibration unit; A key operation unit provided at one side of the belt body to control a power supply applied from the power supply unit to control on / off and strength of vibration of the vibration unit; It is separated from the belt body separately from the key control unit and connected to the vibration unit in a wired manner, and controls a power supply applied from the power supply unit to control on / off and vibration intensity of the vibration unit and heating temperature of the heating wire. A controller; A heater including a bio-ceramic and a heating wire which generate heating heat and are located at both sides of the vibrating unit, and generate far-infrared rays inside the contact surface in close contact with the body part to be massaged when the power is supplied from the power supply unit; Is made of.

This conventional electric massage belt operates to vibrate and rotate the two eccentric rotating bodies integrally and simultaneously through the timing belt with one driving motor which generates vibration.

Accordingly, the two eccentric rotors are rotated by the one drive motor to maintain the same rotational speed. In this case, the vibration unit is worn in the forward or reverse direction while the massage belt is worn on the body part. It operates to show a continuous rotational motion trajectory. At this time, there was a monotonous problem in the function of exerting a monotonous feeling of use and a simple massage effect from repeatedly drawing a simple trajectory in the forward or reverse direction when the movement of the body was massaged.

The present invention for solving the above problems provides a new vibration generating mechanism for the body stimulation, while maximizing the body stimulation through the provided vibration generating mechanism, while improving the ease of use situation and operability, vibration generating device And it aims to provide a method for controlling the body stimulation device and the body stimulation device using the vibration generating device.

Vibration generating apparatus of the present invention for achieving this object, in one embodiment, the first vibration generating means for generating a vibration force for stimulation of the body part in accordance with the input signal; Second vibration generating means for generating heat for stimulation of a body part according to an input signal; When a control signal is input through an input means for receiving an operation control signal, a routine corresponding to a control signal is executed from a preset stored program routine to control or irregularly control the operation of the first and second vibration generating apparatuses. Microprocessor; Power supply means for supplying operation power of each means; It may be prepared to include.

The vibration generating apparatus of the present invention which can be configured as described above has a microprocessor when an input signal for implementing a control operation of the microprocessor is input through the input apparatus in a state in which operating power is input to each means through the power supply means. A control signal for activating a corresponding command routine among the program routines stored in advance is output, and the corresponding vibration generating device among the first and second vibration generating devices is operated by the output control signal.

At this time, the operation of each vibration generating device is also performed by the control signal according to the command routine, it is possible to appropriately perform the operation desired by the user as needed.

On the other hand, the body stimulation device using the vibration generating device of the present invention, each of the independent first vibration generating means for generating a vibration force for stimulation of the body part according to the input signal, and the first vibration generation A second vibration generating means provided between the means and generating heat for stimulation of the body part according to the input signal and a signal for controlling the motion is input in advance if the signal for motion control is input through the input means for receiving the motion control signal. In the program routine, a command routine corresponding to a control signal is input to the first and second vibration generating means to supply a microprocessor for controlling the operation of the first and second vibration generating means regularly or irregularly, and the operating power of each means. Power supply means; Vibration generating device comprising a; Output means for outputting and expressing an operation state of the vibration generating device in letters, numbers, and voices; A vibration transmitting device mounted with the vibration generating device to transfer energy generated from the vibration generating device to the body in contact with the body; Support means for positioning the vibration transmitting means to a desired body part; It may be configured to include.

Body stimulation apparatus using the vibration generating device of the present invention can be configured as described above by using the support means to fix the vibration transmission means to the desired body part. Subsequently, when an input signal for implementing a control operation of the microprocessor is input through the input device in a state in which operating power is input to each means through the power supply means of the vibration generating device mounted on the vibration transmitting means, the microprocessor A control signal for activating a corresponding command routine is output from a preset stored program routine, and the corresponding vibration generating device of the first and second vibration generating devices is operated by the output control signal to stimulate a body part.

On the other hand, the control method of the body stimulation apparatus of the present invention in one embodiment, the input step of inputting the control signal through the input means for receiving the operation control signal; A co-directional vibration generating step of, when a control signal is input through the input means, the microprocessor controls the vibration force of each of the independent first vibration generating means to generate the vibration force for stimulation of the body part in the same direction; A reverse direction vibration generating step of controlling the microprocessor to generate the vibration force of each of the independent first vibration generating means in the opposite direction when another control signal is input through the input means; An irregular vibration generating step of controlling the microprocessor to generate the vibration force of each of the independent first vibration generating means irregularly according to a predetermined cycle when another control signal is input through the input means; A heat generating step of controlling, by the microprocessor, irregularly or irregularly the heat generation cycle of the second vibration generating means according to a predetermined cycle when another control signal is input through the input means; A selective vibration generating step of controlling a microprocessor to control the respective vibration generating steps in a predetermined order or to proceed only the selected vibration generating step through the input when another control signal is input through the input means; And an output step of outputting a text, a number, and a voice through the output means.

As described above, when the control signal is input through the input means for receiving the operation control signal, the microprocessor may control the microprocessor to generate the vibration force of each of the independent first vibration generating means in the same direction. In addition, the vibration force may be controlled to be generated in the opposite direction, and the vibration force may be controlled to be irregularly generated according to a predetermined cycle. In the process, the heat generation cycle of the second vibration generating means may be set in advance. By regular or irregular control according to the cycle, mechanical body friction stimulation and heat body stimulation can be simultaneously performed.

At this time, each vibration generating step may be controlled to proceed in the order set in advance, or only the vibration generating step selected through the input may be progressed, the process for each progress step is expressed in letters, numbers and voice through the output means Therefore, the user can easily determine the progress and can also control manually.

Before describing the present invention in more detail, Figure 1 is a schematic block diagram showing the configuration of the vibration generating apparatus of the present invention for reference to the description of the present invention, Figure 2 is a vibration generating apparatus of the present invention Figure 3 is a block diagram showing the configuration of more specifically, Figure 3 is a block diagram showing another configuration of the vibration generating device of the present invention, Figure 4 shows the configuration of a body stimulation device using the vibration generating device of the present invention 5 is a schematic cross-sectional view showing the configuration of a body stimulation device using a vibration generating device of the present invention, Figure 6 is a block diagram showing the progress of the body stimulation device of the present invention, Figure 7 is Figure 8 is a schematic diagram showing the same direction vibration generating state of the present invention, Figure 8 is a schematic diagram showing the opposite direction vibration generating state of the present invention, Figure 9 is a vibration by the rotation and linear vibration of the present invention A schematic view showing a raw state, of which the reference numeral 10 is the inventors vibration generating unit, 100 is a body stimulator using the vibration generating device.

The present invention will be described below with reference to the accompanying drawings presented as above.

First, the vibration generating device 10 of the present invention, as shown in Figure 1 and 2, the first vibration generating means for generating a vibration force for stimulation of the body part in accordance with the input signal; Second vibration generating means (12) for generating heat for stimulation of a body part in accordance with an input signal; When the control signal is input through the input means 13 for receiving the operation control signal, the routine corresponding to the control signal is executed among the preset stored program routines, and the first and second vibration generating apparatuses 11 and 12 are executed. A microprocessor 14 which controls the operation of the rule or irregularly; Power supply means (15) for supplying operation power of each means; It may be prepared to include.

Here, in the present invention, the first vibration generating means 11 may be, for example, a rotating vibration structure in which the rotor is eccentrically rotated by a motor, and the solenoid operates while the vibration direction of the vibrator is switched according to a signal input to the coil. Although it may be a linear vibration structure, as an embodiment of the present invention will be described by applying a rotary vibration structure.

A motor (11a) for generating a rotational force when the first vibration means (11) has a rotational vibration structure; A rotor (11b) that receives power from the shaft of the motor (11a) and rotates eccentrically; It may be configured to include; a power transmission body (11c) for transmitting power by connecting the shaft of the motor (11a) and the shaft of the rotor (11b).

At this time, the rotor 11b is, for example, an eccentric rotating body, and as shown in FIG. 3, a magnetic force generating body 11d is further provided at a position at which the maximum rotating radius of the rotor 11b is drawn. For example, the insert of the rotor 11b may be fixed, or the rotor 11b itself may be made of a magnetic force generator.

In this case, between the rotor 11b portion and the motor 11a, a magnetic force difference member 11g may be provided, and the magnetic force difference member 11g may be a superconductor. For reference, the superconductor has an electrical resistance of 0 and has a magnetic shielding ability at the same time. The magnetic fields are offset in the opposite directions of the surrounding magnetic fields, that is, the magnetic fields of exactly the same size as the surrounding magnetic fields are made in the opposite direction. It is an object that prevents the magnetic field from penetrating into other parts.

The magnetic force generator 11d may be a permanent magnet or neodymium (Nd). For reference, the neodymium is one of the rare earth elements belonging to the third group of the periodic table, also called neodym, and the main minerals are celite, monazite, gadolinite, and the like. It is mineral having.

As described above, when the magnetic force is generated in the rotor 11b portion, the magnetic force is generated in the rotor 11b outside of the radius of rotation of the rotor 11b while being repulsed / sucked by the magnetic pole of the rotor 11b. A magnetic force reactant 11e that linearly reciprocates in a vertical direction may be further provided.

The components constituting the first vibration generating means 11 may be cased in the case 11f, which is a non-metal chain, and in this case, the case provides a vibration path for guiding the magnetic force reactant 11e.

On the other hand, the second vibration generating means 12 of the present invention, for example, a pad (12a) containing mineral particles that emit far infrared rays and anions when heat is applied; When the power is input from the power supply means 15 by the control signal of the microprocessor 14, a heater 12b for conducting heat to the pad 12a while generating heat.

The second vibration generating means 12 may be further provided with a heat sink 12c that protects the peripheral components from the heat of the heater 12b, the heat sink 12c may be enough to surround the heater 12b. It is preferable that the pad 12a is provided in all parts except the direction in which heat is dissipated.

In the present invention, the input means 13 may be, for example, a keypad including a group of step select input buttons for selecting a program routine stored in the microprocessor 14 in advance, or preset through frequency transmission and reception. It can also be a remote control that selects each stored program routine. In addition, in the present invention, the input means 13 may be, for example, a speech recognition processing device capable of selecting each of the program routines preset in the microprocessor 14.

On the other hand, in the present invention, the microprocessor 14, for example, the program routine for controlling the respective vibration generating means is stored in advance, through the input path of each of the input means 13 matching the routine When an operation signal is input, it may be a microcomputer that outputs a control signal to perform a command of the routine, a logic circuit, or an electric circuit in which a microcomputer and a logic circuit are combined.

In the present invention, the power supply means 15 may be, for example, an adapter and an adapter connection line for converting and supplying AC power to drive power, or a built-in DC battery, in particular, a rechargeable battery.

And, the body stimulation device 100 using the vibration generating device 10 of the present invention, as shown in Figure 4 and 5, each of the independent to generate a vibration force for stimulation of the body part in accordance with the input signal A second vibration provided between the first vibration generating means 11 and 11 'and the first vibration generating means 11 and 11' to generate heat for stimulation of the body part according to an input signal. When a signal for operation control is input through the generating means 12 and the input means 13 which receives the operation control signal, the first and second vibrations may be executed in a command routine corresponding to a control signal from a preset stored program routine. A microprocessor 14 which is inputted to the generating means 11 and 12 to control the operation of the first and second vibration generating means 11 and 2 regularly or irregularly, and a power supply for supplying the operating power of the respective means. Supply means 15; Vibration generating device 10 comprising a; Output means 20 outputting and expressing an operation state of the vibration generating device 10 in letters, numbers, and voices; A vibration transmitting device (30) mounted on the vibration generating device (10) to transfer energy generated from the vibration generating device (10) to the body in contact with the body; Support means for positioning the vibration transmitting means 30 on a desired body part; It may be configured to include. (The input means, the power supply means and the output means are not shown in FIG. 5)

Here, in the present invention, since the first and second vibration generating means 11 and 12 are the same as, for example, the vibration generating device 10, a detailed description thereof will be omitted, but the first vibration generating means 11 may be omitted. A motor 11a for generating a rotational force; A rotor (11b) that receives power from the shaft of the motor (11a) and rotates eccentrically; And a power transmission body 11c which transfers power by connecting the shaft of the motor 11a and the shaft of the rotor 11b, wherein the rotor 11b includes a permanent magnet at a portion drawing the maximum rotation radius. The same magnetic force generator 11d is further provided and is repulsed / sucked by the magnetic poles of the rotor 11b portion outside the rotation radius of the rotor 11b, in a direction perpendicular to the rotational direction of the rotor 11b. A magnetic force reactant 11e having a linear reciprocating oscillation is further provided, and further includes a non-metal case 11f casing each of the components while providing a vibration path of the magnetic force reactant 11e. The input means 13 and the output means 20 are drawn out to the vibration transmission means 30, may be provided in a separate operation block, such as a remote control, of the vibration transmission means 30 It may be provided on the outer surface. In the present invention will be described by adopting a structure to take out to the outside in consideration of the strength of the vibration.

On the other hand, in the present invention, the output means 20 is a microprocessor, for example, by receiving a signal from the input means 13 in which the comment is stored in advance so as to output the start and the progress time and the end of the operation by voice (14) proceeds to the control operation, and through this operation of each vibration generating means, the amplification circuit for amplifying and outputting the voice IC chip for outputting the corresponding signal and the signal output from the voice IC chip at an audible frequency and A voice output unit 21 including a speaker; The visual output unit 22 includes a power LED that is turned on when the power is supplied from the power supply unit 15, an operation LED indicating an operation state of each unit and a step, and a 7 segment display device displaying an operation time. It can be configured to include. In addition, the output means 20 may display the use state by letters or numbers using, for example, an LCD.

On the other hand, the vibration transmission means 30 of the present invention, for example, made of a cloth or synthetic resin material that is flexibly changed in shape to be in close contact according to the bending of the desired part of the body, such as the abdomen, waist, back, thighs, A pocket part 31 for receiving the vibration generating device 10; A through hole 32 formed on a surface of the pocket part 31 in contact with the body to dissipate heat; It may be configured to include; the back member 33 for forming a separate through portion in the longitudinal direction on the other side of the pocket portion 31, the through-hole 32 is formed. At this time, the pocket portion 31 may be fixed to the vibration generating device 10 by screw tightening, may be tightly fixed by sewing, may be a projection formed.

In addition, the vibration transmission means 30 may be, for example, a block in the form of a case accommodating the vibration generating device 10, the input means 13 and the output means 20 may be provided outside, An air discharge hole may be formed to discharge the air generated in relation to the operation of each vibration generating means or sucked into the outside from the outside to the outside.

On the other hand, the support means 40 of the present invention, for example, may be a belt fitted through the back member 33 of the vibration transmission means 30. At this time, the belt is provided with a straight tape on the surface, it is possible to adjust the degree of tightening according to the body part, in consideration of the average body size may be further provided with an extension belt adhesively connected to the magic tape.

And, the control method of the body stimulation device 100 of the present invention, as shown in Figure 6, the input step of inputting the control signal through the input means 13 for receiving the operation control signal (S10); When a control signal is input through the input means 13, the microprocessor 14 sets the vibration force of each of the independent first vibration generating means 11 (11)) to generate vibration force for stimulation of the body part. The same direction vibration generating step (S20) for controlling to occur in the direction; When another control signal is input through the input means 13, the opposite direction vibration generating step of controlling the microprocessor 14 to generate the vibration force of each of the independent first vibration generating means 11 (11)) in the opposite direction. (S30); When another control signal is input through the input means 13, the microprocessor 14 controls the vibration force of each of the independent first vibration generating means 11 (11 ＇) to be irregularly generated according to a predetermined cycle. Irregular vibration generating step (S40); When another control signal is input through the input means 13, the microprocessor 14 generates a heat generation step of controlling or irregularly controlling the heat generation cycle of the second vibration generating means 12 according to a predetermined cycle ( S50); When another control signal is input through the input means 13, the microprocessor 14 controls to control the respective vibration generating steps in a predetermined order or to control only the vibration generating step selected through the input. Vibration generating step (S60); The output step (S70) for outputting the process by each of the progress step by the output means 20 in letters, numbers, and voice; can be carried out.

Here, the input step (S10) may be made, for example, through a keypad consisting of a group of selection input button step by step, the input may be made through the frequency transmission and reception between the transmitter of the remote control and the receiver connected to the microprocessor 14. In addition, the voice recognition processing apparatus may compare the voice sample allocated to each control signal stored in the microprocessor 14 with the user's voice to perform an operation consistent with the voice sample.

In the present invention as described above, when the control signal for performing the same direction vibration generating step (S20) is input in the input step (S10), the microprocessor 14 is the first vibration generating means (11, 11 ') Each of the rotors 11b for driving the motor 11a and rotating by the motor 11a rotates in a clockwise or counterclockwise direction, as shown in FIG. 7, but rotates in opposite directions. While generating vibration by centrifugal force.

In addition, when a control signal for performing the opposite direction vibration generating step S30 is input in the input step S10, the microprocessor 14 causes the motor 11a of each of the first vibration generating means 11 and 11 '. Each rotor 11b which is driven by the motor 11a and rotates by the motor 11a rotates clockwise or counterclockwise as shown in FIG. 8, but rotates in opposite directions to each other. To generate vibration.

Further, when a control signal for performing the irregular vibration generating step S40 is input in the input step S10, the microprocessor 14 causes the motor 11a of each of the first vibration generating means 11 and 11k to be performed. While driving in different rotation cycles and directions, each rotor 11b rotating by the motor 11a rotates irregularly, generating vibration by centrifugal force.

The present invention is generated in the rotor 11b portion, that is, the rotor 11b itself or separately provided in the magnetic force generating body 11d as shown in FIG. While the magnetic force is reacted with the magnetic force of the magnetic reaction body (11e) provided outside the rotation radius, the attraction / repulsive action (for example, the polarity of the magnetic force generator 11d and the magnetic reaction body (11e) of the rotor 11b side is the same) The repulsive force acts on the lower surface and repulses, and when the polarity is reversed, the mutual attraction force acts on and absorbs the magnetic force reactant 11e to generate vibration force while linearly reciprocating on the vibration path of the case 11f. Rotational vibration force of) and the linear vibration force of the magnetic reactant (11e) is added to implement a strong vibration force even at low power consumption, such vibration force is transmitted to the body through the vibration transmission means 30 to be a stimulus is made do.

In addition, the magnetic force generated from the magnetic force generator 11d may form a magnetic field around the body, thereby obtaining a magnetic therapeutic effect of the body. For reference, the magnetic field has an absolute effect on hemoglobin, the study found. There are 4.5 to 5 million red blood cells per 1 mm ㅂ of blood in the human body. The components of red blood cells are almost hemoglobin except water, and these hemoglobins are combined with a protein called globin and a red pigment containing a magnetic iron called hemer. Four of them contain hammers. When the hemer passes through the heart, it becomes a ferromagnetic hemer under the influence of the current in the heart, and thus oxygen transport and carbon dioxide emission are fulfilling the original functions of hemoglobin, and iron components contained in hemoglobin are precisely arranged in NS. When the hemoglobin function is activated, oxygen transport, nutrition, and waste products are smoothed, but when the iron of hemoglomobin is a weak NS-magnetic component, it can't perform its original function. It causes tax incurable diseases. The question of why hemo, the nucleus of hemoglobin, should be made of ferromagnetic iron has not been answered by modern science. However, when the human body lacks self, the ionic ions in the blood become bad and the blood becomes acidic, The accumulation of cholesterol can cause diseases of the blood circulation system, but most importantly, it affects autonomic ataxia and endocrine disorders, which are the cause of modern diseases, and hemoglobin is not activated. Nakagawa, a well-known medical doctor in Japan, has a lack of self-deficiency in the human body, which causes pain in the back, shoulders, and nasal muscles. So-called (결핍) deficiency syndrome, such as no habitual constipation without it, the magnetic field and the magnetic field generated in the magnetic generator (11d) is to solve these parts will have a beneficial effect on the human body.

In addition, when a control signal for performing the heat generating step S50 is input in the input step S10, the microprocessor 14 heats the heater 12b constituting the second vibration generating means 12, By conducting heat to the pad 12a, heat, far infrared rays, and negative ions emitted from the pad 12a are transferred to the body through the through hole and the surface of the vibration transmitting means 30, thereby stimulating the body.

The anion increases the ionization rate of minerals and the like in the blood to alkalinize the blood, purifies the blood, promotes the exchange of electrical substances in the cell membrane, stimulates metabolism, and quickly discharges waste products from the body. It increases the resistance by increasing the amount of r-globulin, an immune component, and has the effect of activating the autonomic nervous system, blood and lymphatic fluid, and can be activated through heat.

In addition, far infrared rays have a wavelength of 15 µm or more, and in this region, angular vibrations of molecular skeletons such as C, N, and O, expansion and contraction vibrations involving heavy atoms, angular vibrations or coordination bonds, ionic bonds, and hydrogen bonds are involved. And intramolecular rotational vibrations, effectively canceling out electromagnetic waves generated by electrical devices.

Each of these step operations of the present invention, when the control signal for performing the selective vibration generation step (S60) in the input step (S10) is input, the respective vibrations so that the microprocessor 14 operates in a predetermined order The operation of the generating means is controlled, and only one operation of each vibration generating means may be selected and operated.

In addition, the present invention is output through the audio output unit 21 and the time output unit 22, the output of the progress of the operation in the output step (S70) output means 20, so that the user can easily determine the operation state .

For example, when a key button signal for selecting the same direction vibration generating step (S20) of each of the first vibration means (11) (11 ') is input from the input means (13), the audio output portion of the output means (20) 21) outputs the message "You have selected the same direction vibration of the first vibration means."

Then, when the microprocessor 14 operates the motor 11a of the first vibration generating means 11 and 11 ', and the rotor 11b and the magnetic force reactant 11e generate vibration force, voice output is performed. (21) "Vibration stimulation mode is in progress." And a time output section 22 displays the progress time.

While the invention has been described and illustrated in connection with a preferred embodiment for illustrating the principles of the invention, the invention is not limited to the configuration and operation as such is shown and described. Rather, those skilled in the art will appreciate that many modifications and variations of the present invention are possible without departing from the spirit and scope of the appended claims. Accordingly, all such suitable changes and modifications and equivalents should be considered to be within the scope of the present invention.

As described above, the present invention can implement rotational vibration and linear vibration only in the rotational power of the first vibration generating means, thereby maximizing the vibrational power even with low power consumption.

In addition, the present invention generates the vibration force under the control of the microprocessor in the same direction, the opposite direction or irregularly, by stimulating the body selectively or sequentially according to a predetermined program progress step, thereby increasing the stimulation force in multiple angles to the body Penetrates to maximize body stimulation.

In addition, the present invention obtains the vibration force by the rotation through the first vibration generating device, obtains far infrared rays, negative ions and heat through the second vibration generating device, by obtaining a magnetic field through the magnetic generator to transfer them to the body at the same time, Multi-stimulation is performed on the body to obtain the effect of improving the stimulation efficiency.

In addition, in the present invention, since the process for each step of the vibration generating device is represented by letters, numbers, and voice through the output means, the user can easily determine the progress and can also manually control the situation, easy use situation Get the effect of improving grasp and operability.

Claims (25)

First vibration generating means (11) for generating a vibration force for stimulation of the body part according to the input signal; Second vibration generating means (12) for generating heat for stimulation of a body part according to an input signal; When the control signal is input through the input means 13 for receiving the operation control signal, the routine corresponding to the control signal is executed among the preset stored program routines, and the first and second vibration generating apparatuses 11 and 12 are executed. A microprocessor 14 which controls the operation of the rule or irregularly; Vibration generating device comprising a; power supply means for supplying the operating power of the respective means (15). The vibration generating device according to claim 1, wherein the first vibration generating means (11) is a rotational vibration structure in which the rotor is eccentrically rotated by a motor. 3. The motor according to claim 2, wherein said first vibration generating means (11) comprises: a motor (11a) for generating a rotational force; A rotor (11b) that receives power from the shaft of the motor (11a) and rotates eccentrically; And a power transmission body (11c) for transmitting power by connecting the shaft of the motor (11a) and the shaft of the rotor (11b). The vibration generating device according to claim 3, wherein the rotor (11b) is an eccentric rotating body. The vibration generating device according to claim 3, wherein the rotor (11b) is further provided with a magnetic force generating body (11d) at a portion at which the maximum rotation radius is drawn. 6. The vibration generating device according to claim 5, wherein the magnetic force generating body (11d) is insert fixed to the rotor (11b). The vibration generating device according to claim 3, wherein the rotor (11b) is a magnetic force generator itself. The vibration generating device according to any one of claims 5 to 7, wherein the magnetic generator is a permanent magnet. The vibration generating device according to any one of claims 3 to 5, wherein a magnetic force difference member (11g) is further provided between the rotor (11b) and the motor (11a) to cancel the magnetic force. The vibration generating device according to any one of claims 1 to 3, wherein said first vibration generating means (11) (11 ') is casing in a case (11f) which is a non-metal body. 8. The rotation direction of the rotor 11b according to any one of claims 5 to 7, while being repelled / sucked by the magnetic pole of the rotor 11b portion outside the rotation radius of the rotor 11b. Vibration generating device further provided with a magnetic reaction body (11e) having a magnetic pole to reciprocate linearly in the vertical direction. The method of claim 1, wherein the second vibration generating means (12) comprises a pad (12a) containing mineral particles that emit far infrared rays and anions when heat is applied; And a heater (12b) which conducts heat to the pad (12a) while generating heat when power is input from the power supply means (15) by the control signal of the microprocessor (14). 13. The vibration generating device according to claim 12, wherein said second vibration generating means (12) is further provided with a heat sink (12c) for protecting peripheral components from heat of the heater (12b). The vibration generating device according to claim 1, wherein said input means (13) is a keypad consisting of a group of step select input buttons for selecting a program routine stored in advance in a microprocessor (14). The vibration generating device according to claim 1, wherein the input means (13) is a remote control for selecting a preset stored program routine through frequency transmission and reception. According to claim 1, wherein the microprocessor 14 is stored in advance in the program routine for controlling the respective vibration generating means, the operation signal through the input path of each of the input terminal 13 matched with each routine If is input, the microcomputer vibration generating device for outputting a control signal to perform a command of the routine. The vibration generating device according to claim 1, wherein the power supply means (15) is an adapter and an adapter connection line for converting and supplying AC power to drive power. The vibration generating device according to claim 1, wherein said power supply means (15) is a rechargeable battery. It is provided between each of the independent first vibration generating means (11) (11 ') and the first vibration generating means (11) (11') for generating a vibration force for stimulation of the body part according to the input signal, When a signal for operation control is input through the second vibration generating means 12 for generating heat for stimulation of the body part and the input means 13 for receiving an operation control signal according to the input signal, it is set in advance. An instruction routine corresponding to a control signal among the stored program routines is input to the first and second vibration generating means 11 and 12 to control the operation of the first and second vibration generating means 11 and 2 regularly or irregularly. A vibration generating device (10) including a microprocessor (14) for controlling and a power supply means (15) for supplying operating power of each means; Output means 20 outputting and expressing an operation state of the vibration generating device 10 in letters, numbers, and voices; A vibration transmitting device (30) mounted on the vibration generating device (10) to transfer energy generated from the vibration generating device (10) to the body in contact with the body; Body stimulation apparatus using a vibration generating device comprising a; support means for positioning the vibration transmission means 30 to a desired body part. 20. The method of claim 19, wherein the first vibration generating means (11) comprises a motor (11a) for generating a rotational force; A rotor (11b) that receives power from the shaft of the motor (11a) and rotates eccentrically; And a power transmission body 11c which transfers power by connecting the shaft of the motor 11a and the shaft of the rotor 11b, wherein the rotor 11b includes a permanent magnet at a portion drawing the maximum rotation radius. The same magnetic force generator 11d is further provided and is repulsed / sucked by the magnetic poles of the rotor 11b portion outside the rotation radius of the rotor 11b, in a direction perpendicular to the rotational direction of the rotor 11b. A magnetic force reactant 11e having a linear reciprocating oscillation is further provided, and further includes a non-metal case 11f casing each of the components while providing a vibration path of the magnetic force reactant 11e. Body stimulation device using a vibration generating device. The microprocessor of claim 19, wherein the output means 20 receives a signal from the input means 13 in which a comment is stored in advance so as to output a start, a progress time, and an end of a corresponding operation by voice. 14) proceeds to the control operation, the operation of each of the vibration generating means, the amplification circuit and speaker for amplifying and outputting the audio IC chip for outputting the corresponding signal and the signal output from the voice IC chip at an audible frequency Voice output unit 21 including; The visual output unit 22 includes a power LED that is turned on when the power is supplied from the power supply unit 15, an operation LED indicating an operation state of each unit and a step, and a seven segment display device displaying an operation time. Body stimulation device using a vibration generating device comprising a. 20. The pocket part according to claim 19, wherein the vibration transmitting means (30) is made of a cloth or a synthetic resin material which is flexibly changed in shape so as to be in close contact with the bending of a desired part of the body. (31); A through hole 32 formed on a surface of the pocket part 31 in contact with the body to dissipate heat; Body stimulation device using a vibration generating device comprising a; the back member (33) to form a separate through portion in the longitudinal direction on the other side of the pocket portion 31, the through-hole 32 is formed. 20. The body stimulation apparatus according to claim 19, wherein the support means (40) is a belt provided with a magic tape on a surface fitted between the back members (33) of the vibration transmission means (30). 24. The body stimulation apparatus according to claim 23, wherein the support means (40) further includes an extension belt that is adhesively connected with a magic tape in consideration of an average body size. The method of claim 1, further comprising: an input step (S10) of inputting a control signal through an input means (13) receiving the operation control signal; When a control signal is input through the input means 13, the microprocessor 14 equals the vibration force of each of the independent first vibration generating means 11 (11 ＇) to generate vibration force for stimulation of the body part. The same direction vibration generating step (S20) for controlling to occur in the direction; When another control signal is input through the input means 13, the opposite direction vibration generating step of controlling the microprocessor 14 to generate the vibration force of each of the independent first vibration generating means 11 (11)) in the opposite direction. (S30); When another control signal is input through the input means 13, the microprocessor 14 controls the vibration force of each of the independent first vibration generating means 11 (11 ＇) to be irregularly generated according to a predetermined cycle. Irregular vibration generating step (S40); When another control signal is input through the input means 13, the microprocessor 14 generates a heat generation step of controlling or irregularly controlling the heat generation cycle of the second vibration generating means 12 according to a predetermined cycle ( S50); When another control signal is input through the input means 13, the microprocessor 14 controls to control the respective vibration generating steps in a predetermined order or to control only the vibration generating step selected through the input. Vibration generating step (S60); And outputting the texts, numbers, and voices through the output means (20) for each process step by step (S70).

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