KR102439073B1 - Massage method for vagina contraction using vibration wave - Google Patents

Abstract

The present invention is a vibration device and method for vaginal contraction exercise in women, and it is possible to experience and perform its role just by sitting comfortably in various chair shapes or cushion shapes. It is a stable and hygienic invention that overcomes the shortcomings of not being able to lead a normal daily life after a gynecological procedure. It has been demonstrated that the present invention exhibits excellent effects through vibration and frequency analysis techniques that have not been attempted before.

Description

Female vagina contraction massage method through vibration wave {Massage method for vagina contraction using vibration wave}

The present invention relates to a female vaginal contraction method through vibrational waves. Specifically, the present invention relates to a massage method for improving female health function. More specifically, the present invention relates to a massage method for improving women's health functions, which is designed to effectively improve a woman's vaginal contractile function, thereby increasing her health function and sustaining a healthy life.

As shown in FIGS. 18a and 18b in Utility Model Registration Application No. 20-2019-0004367 entitled "Prostate and perineal massage cushion" filed on October 29, 2019, the applicant has a cushion part (2') and, A massage cushion (1') comprising a massager (4') detachably coupled along the longitudinal centerline of the cushion part (2') has been proposed. The user sits on the massage cushion 1 ′ with the legs facing the left side in FIG. 18A , that is, the front side.

The cushion part 2' includes a rectangular base 22' molded in a gentle curved shape so that the buttocks are comfortable. A cradle 24' protruding upward is formed near the front center of the cushion part 2', and the coupling groove 24a is continuous along the entire longitudinal direction of the center of the cradle 24' and the rear of the base 22'. ') is formed and the massager 4' is attached to the coupling groove 24a'.

The massager 4' has a rectangular column-shaped body 40' that can be held by hand, and a small circular column-shaped inclined part ( 42'), a bridge 46' in the shape of a thin cable extending integrally in the horizontal direction from the rear of the inclined portion 42', and a smooth oval or bowl shape at the rear end of the bridge 46' It includes a contact portion 44' manufactured in a three-dimensional streamline shape. The parts that come into direct contact with the user's body are the inclined portion 42', the bridge 46', and the contact portion 44'. A first vibrating part (A') for massaging the perineum is installed on a lower part or a substantial part of the inclined part 42', and the upper surface of the contact part 44, that is, a portion in contact with the user's body, for massaging the prostate. A second vibrating unit B' is installed. When the user sits while wrapping the holder 24' with his/her thigh, the first vibrating part (A') formed long over a relatively high position is close to the perineum, and the second vibrating part ( B') is the position closest to the prostate.

Although the present invention uses the above massage cushion, it relates to a vibration massage cushion and a massage method for vaginal contraction exercise in women from a different point of view.

As a device for vaginal contraction in women, Korean Patent No. 10-2043455 discloses a focused ultrasound device in which a cartridge having a high-intensity focused transducer is inserted into the operator's vagina and thermal lesions caused by ultrasound are spaced apart from the inner wall of the vagina by a certain distance. are doing In addition to the surgical instrument, Korean Patent No. 10-1879680 discloses an insertion device that is inserted into a woman's vagina, senses the pressure according to contraction of the pelvic floor muscles in the vagina, and provides vibration motion to massage the muscles in the vagina, and the insertion device sensed by the insertion device. Disclosed are a vaginal contraction training system and method including a muscle strengthening unit that receives pressure data information and transmits command information back to an insertion device. Chinese Patent Laid-Open No. CN 105213091 discloses a multifunctional vaginal contraction exercise device for postpartum women comprising a hard rod and a cheek pouch.

However, what is presented in these documents is that all medical or exercise equipment is inserted into a woman's vagina, and objective data cannot be presented as simply to contract the muscles by giving massage or vibration.

Korean Utility Model No. 20-2000-2800 includes a first vibrating means vibrating to massage the clitoris of a woman, a second vibrating means vibrating to train the male sphincter, and a massage part with one side touching the clitoris of a woman; , Disclosed is a sphincter training and clitoris massage device that is integrated with a silicone material having a sphincter training part to be inserted into a male's anus. This device is intended to be used by both men and women at the same time and is intended to promote a healthy sexual life as disclosed in the specification. It does not provide objective data or empirical effects other than that.

Although Korean Utility Model Registration No. 20-0345288 provides a massager that stimulates the perineum and anus, the massage cushion of the present invention and different. In addition, Korean Utility Model Registration No. 20-0329961 is a device for massaging the male perineum, that is, the area between the external genitalia and the anus. Because it is not a three-dimensional shape, there is a limit that it cannot give vibration to the clitoris of a woman structurally.

Also, as is known, a certain degree of vaginal contraction effect can be expected through anus tightening of Kekel exercise. However, a massage cushion and a massage method designed to improve a woman's vaginal contraction function to increase a healthy function and maintain a healthy life have not yet been presented.

The present invention is quite different from a tool for sexual life or sexual function. For example, there is a vibrator for masturbation sold in online shops such as Amazon or offline shops such as adult goods stores. Adult products are for pleasure or pleasure only, and their use is obvious from their appearance. On the other hand, the device of the present invention is for the recovery and improvement of health functions, focusing on the part of the human body where nerve cells are most concentrated, and applying vibration to this part to utilize the reflexes, starting from a technical point of view and completed. It should be noted that The device of the present invention is not for the pleasure of the human body and is not secret, and anyone can use the device of the present invention publicly in their usual state in their usual clothes.

In addition, the vibrator is simply a way to change the pattern by adjusting the strength and rotation speed of the motor in order to stimulate the human body. will be. However, in the present invention, since the vibrating part is always directed toward the clitoris, the Kekel exercise can be optimally performed through the vibration wavelength, and the vaginal contraction exercise is performed through the reflex nerve by directly stimulating the clitoris connected with more than 8,000 nerve lines. It is to be able to do this, to give strength to the sphincter, and to exert an excellent effect that helps in the treatment of urinary incontinence, bowel movement, and constipation.

The present invention has been devised in consideration of the above circumstances, and has been completed through many tests by the inventor based on Utility Model Registration Application No. 20-2019-0004367.

Therefore, it is an object of the present invention to provide a vibration type massage method for vaginal contraction exercise in women, which is different from the existing method of giving vibration around the perineum or anus.

An object of the present invention is to provide a massage method capable of strongly repeating (relaxing, contracting) a vaginal contraction movement through a reflex nerve by transmitting a vibrational wavelength to the clitoris.

In order to achieve the above object, the present invention provides a vaginal contraction device for a woman through a vibration wavelength, wherein the contraction device includes a first motor for imparting vibration to the clitoris of a woman, and a vibration pattern applied by the first motor. The maximum vibration value is 0.1475 g to 0.40311 g in units of acceleration (g).

In addition, the present invention is a vaginal contraction device for women through a vibration wavelength, the contraction device including a first motor for imparting vibration to the clitoris of the woman, the time-vibration curve of the vibration pattern applied by the first motor In a frequency-vibration curve performed by fast fourier transform (FFT), an effective frequency range showing a peak oscillation value is 83.75 Hz to 425.9 Hz, providing a female vaginal contraction apparatus and method.

The vibration pattern is a plurality of vibration patterns, (a) a first vibration pattern having a peak vibration value in the bands of 83 ~ 107Hz, 167 ~ 213Hz, 251 ~ 320Hz, and 335 ~ 429Hz, (b) 105 ~ 107Hz, 211 ~ As a second vibration pattern having a peak vibration value in the bands of 213 Hz, 317 to 319 Hz, and 423 to 425 Hz, the maximum vibration value of the vibration pattern applied by the first motor is about 0.4 g in acceleration unit (g). Vibration pattern, (c) A third vibration pattern having peak vibration values in the bands of 105 to 107 Hz, 211 to 213 Hz, 317 to 319 Hz, and 423 to 425 Hz. The maximum vibration value of the vibration pattern applied by the first motor is the acceleration. The third vibration pattern with a unit (g) of about 0.15, (d) the fourth vibration pattern having a peak vibration value in the band of 71 Hz to 75 Hz, (e) 105 to 107 Hz, 210 to 213 Hz, 316 to 320 Hz, and 401 to 421 Hz A fifth vibration pattern having a peak vibration value in the band of (f) a sixth vibration pattern having a peak vibration value in the bands of 105 ~ 107Hz, 210 ~ 213Hz, 316 ~ 319Hz, and 421 ~ 426Hz, and (g) 83 ~ and at least one of the seventh vibration patterns having peak vibration values in the bands of 84 Hz, 167 to 168 Hz, 250 to 252 Hz, 334 to 336, and 418 to 419 Hz.

The present invention also provides a massage cushion in which the above vaginal contraction device is installed in the first vibrating unit.

The present invention also includes a motor for imparting vibration, the maximum vibration value of the vibration pattern applied by the motor is 0.1475 g to 0.40311 g in acceleration unit (g), the time of the vibration pattern applied by the motor - A frequency-vibration curve obtained by performing fast fourier transform (FFT) of a vibration curve provides an effective frequency range showing a peak vibration value in the range of 83.75 Hz to 425.9 Hz, a vibration device, an electronic device including the same, and a massage method.

In addition, the present invention is a massage cushion, wherein the massage cushion includes a vaginal contraction device in the first vibration unit,

The vaginal contraction device includes a first motor that applies vibration to the clitoris of a woman as a female vaginal contraction device through a vibration wavelength, and the time-vibration curve of the vibration pattern applied by the first motor is measured by a fast fourier (FFT) vibration curve. transformed) in the frequency-vibration curve, the effective frequency range showing the peak vibration value is 83.75 Hz to 425.9 Hz, the vibration pattern is a plurality of vibration patterns, and the plurality of vibration patterns are (a) 167 to 213 Hz, 251 A first vibration pattern having peak vibration values in bands of ~ 320 Hz and 335 ~ 429 Hz (b) A second vibration pattern having peak vibration values in bands of 211 ~ 213 Hz, 317 ~ 319 Hz, and 423 ~ 425 Hz, The maximum vibration value of the vibration pattern applied by the motor is about 0.4 g in acceleration unit (g). As the vibration pattern, the maximum vibration value of the vibration pattern applied by the first motor is about 0.15 in acceleration unit (g). (e) Peak vibration in the bands of 210 to 213Hz, 316 to 320Hz and 401 to 421Hz. 5th vibration pattern having values (f) 6th vibration pattern having peak vibration values in the bands of 210 ~ 213Hz, 316 ~ 319Hz, and 421 ~ 426Hz (g) 167 ~ 168Hz, 250 ~ 252Hz, 334 ~ 336, 418 5 or more of the seventh vibration pattern having a peak vibration value in a band of ~ 419 Hz, wherein the massage cushion consists of a cushion part and a massage device detachably coupled along a longitudinal centerline of the cushion part, and the massage device is a cushion It is attached to a coupling groove formed continuously along the entire longitudinal direction of the center and a part of the rear of the base under the cushion, and the massage device has a cross-sectional area greater than that of the main body, which extends from the rear of the main body to a sharp inclination downward and curved inclination. A small column-shaped inclined portion and the rear portion of the inclined portion are integrated in the horizontal direction. It includes a bridge in the shape of an extended thin cable, and the first vibrating part provides a massage cushion and a massage method installed under the inclined part.

The vibrating device for vaginal contraction exercise according to an embodiment of the present invention can experience and perform its role even when sitting comfortably in the form of a sitting chair or cushion.

The 14 vibration wavelengths according to the present invention can stimulate the endopelvic semi-muscular beat responsible for vaginal contraction through the reflex nerve by direct stimulation to the clitoris, so it is suitable for the existing laser device that could not lead a normal daily life after invasive gynecological procedure. is more stable than

In the case of men, the present invention is closely attached to the lower part of the scrotum and stimulates the penile canal with a direct vibration wavelength, thereby helping to enlarge the prostate through reflex nerves. The present invention is designed to give vibration to the penile canal and the anus protruding out of the perineum, and has the effect of shaking the prostate more strongly.

The present invention is designed to optimally perform Kekel exercise through vibrational wavelengths, which directly stimulates the clitoris connected with more than 8,000 nerve lines to make vaginal contraction movements, while generating strength in the sphincter. It is effective in treating urinary incontinence, bowel movement, and constipation.

1 is an overall perspective view of a massage cushion according to an embodiment of the present invention;
Figure 2 is a view showing the reformation of the vibration pattern applied to the first vibration unit of the present invention;
3(a) is a time-vibration value function of the first vibration pattern of the present invention in strong mode, FIG. 3(b) is an enlarged view of FIG. 3(a) in a specific time period, and FIG. 3(c) is FIG. 3 Frequency-vibration value function graph corresponding to (a);
4(a) is a time-vibration value function of the second vibration pattern of the present invention in strong mode, FIG. 4(b) is an enlarged view of FIG. 4(a) in a specific time period, and FIG. 4(c) is FIG. 4 Frequency-vibration value function graph corresponding to (a);
5(a) is a time-vibration value function of the third vibration pattern of the present invention in strong mode, FIG. 5(b) is an enlarged view of FIG. 5(a) in a specific time period, and FIG. 5(c) is FIG. 5 Frequency-vibration value function graph corresponding to (a);
6(a) is a time-vibration value function of the fourth vibration pattern of the present invention in strong mode, FIG. 6(b) is an enlarged view of FIG. 6(a) in a specific time period, and FIG. 6(c) is FIG. 6 Frequency-vibration value function graph corresponding to (a);
7(a) is a time-vibration value function of the fifth vibration pattern of the present invention in strong mode, FIG. 5(b) is an enlarged view of FIG. 7(a) in a specific time period, and FIG. 7(c) is FIG. 7 Frequency-vibration value function graph corresponding to (a);
8(a) is a time-vibration value function of the sixth vibration pattern of the present invention in strong mode, FIG. 8(b) is an enlarged view of FIG. 8(a) in a specific time period, and FIG. 8(c) is FIG. 8 Frequency-vibration value function graph corresponding to (a);
9(a) is a time-vibration value function of the seventh vibration pattern of the present invention in strong mode, FIG. 9(b) is an enlarged view of FIG. 9(a) in a specific time period, and FIG. 9(c) is FIG. 9 Frequency-vibration value function graph corresponding to (a);
10(a) is a time-vibration value function of the first vibration pattern of the present invention in weak mode, FIG. 10(b) is an enlarged view of FIG. 10(a) in a specific time period, and FIG. 10(c) is FIG. Frequency-vibration value function graph corresponding to (a);
11(a) is a time-vibration value function of the second vibration pattern of the present invention in weak mode, FIG. 11(b) is an enlarged view of FIG. 11(a) in a specific time period, and FIG. 11(c) is FIG. 11 Frequency-vibration value function graph corresponding to (a);
12(a) is a time-vibration value function of the third vibration pattern of the present invention in weak mode, FIG. 12(b) is an enlarged view of FIG. 12(a) in a specific time period, and FIG. 12(c) is FIG. Frequency-vibration value function graph corresponding to (a);
13(a) is a time-vibration value function of the fourth vibration pattern of the present invention in weak mode, FIG. 13(b) is an enlarged view of FIG. 13(a) in a specific time period, and FIG. 13(c) is FIG. 13 Frequency-vibration value function graph corresponding to (a);
14(a) is a time-vibration value function of the fifth vibration pattern of the present invention in weak mode, FIG. 14(b) is an enlarged view of FIG. 14(a) in a specific time period, and FIG. 14(c) is FIG. 14 Frequency-vibration value function graph corresponding to (a);
15(a) is a time-vibration value function of the sixth vibration pattern of the present invention in weak mode, FIG. 15(b) is an enlarged view of FIG. 15(a) in a specific time period, and FIG. 15(c) is FIG. 15 Frequency-vibration value function graph corresponding to (a);
16(a) is a time-vibration value function of the seventh vibration pattern of the present invention in weak mode, FIG. 16(b) is an enlarged view of FIG. 16(a) in a specific time period, and FIG. 16(c) is FIG. 9 Frequency-vibration value function graph corresponding to (a);
Figure 17 (a) is a view showing the test of the vaginal contraction device of the present invention;
Fig. 17 (b) is a view showing that the vaginal pressure increased from 0 Pa to 20 Pa;
Fig. 17(c) is a view showing that the vaginal pressure increased from 0 Pa to 30 Pa;
Figure 18 (a) is an overall perspective view of a massage cushion that is an earlier application of the present invention;
Figure 18 (b) is a perspective view showing in detail the massager in the massage cushion of Figure 18 (a).

Each embodiment according to the present invention is merely an example for helping understanding of the present invention, and the present invention is not limited to these embodiments. The present invention may be composed of a combination of at least any one or more of individual components and individual functions included in each embodiment.

The present invention is characterized in that it defines an effective vibration range that contributes to vaginal contraction by stimulating the clitoris with a vibration pattern. These features of the present invention are novel and not known at all in the prior art.

1 is a perspective view showing a massage cushion (1) as an example of a female vaginal contraction device through a vibration wavelength. The massage cushion (1) is the same as disclosed in the above-mentioned utility model registration application No. 20-2019-0004367. However, of course, the massage cushion 1 of the present invention is not limited thereto, and the shape, size and material may be variously changed as appropriate.

A first motor (M1), which is a vibration source, was installed inside the first vibrating part (A) of the massage cushion (1), and a second motor (M2) was installed inside the second vibrating part (B). The vibration sensor (C) was installed at an intermediate position aligned in the longitudinal direction with the first vibrating unit (A) and the second vibrating unit (B) on the rear part of the flat body 40 as shown. As the vibration sensor (C), an acceleration sensor was used.

The degree of vaginal contraction was measured while sequentially giving seven vibration patterns to the case where the first motor (M1), which came into contact with the clitoris and applied vibration, was driven in the strong mode (S) and the weak mode (W), respectively. The first motor (M1) is a vibration motor with a maximum rpm of 10,000, and an eccentric body (weight) of 2.5 g, maximum amplitude of rotational vibration of 11 mm, maximum current of 200 mA, and minimum current of 100 mA was used.

In this range, the mode in which a high current flows and the internal weight vibrates greatly is divided into a strong mode (S), and a mode in which a low current flows and the internal weight vibrates small is divided into a weak mode (W). As the vibration pattern, 7 types of vibration patterns as shown in FIG. 2 were used. The first vibration pattern P1 is a thick continuous solid line, the second vibration pattern P2 is a thick discrete solid line, the third vibration pattern P3 is a thin discrete solid line, and the fourth vibration pattern P4 is a toothed solid line. , the fifth vibration pattern P5 and the sixth vibration pattern show a pattern in which a long solid line and a short solid line are combined, and the seventh vibration pattern P7 shows a continuous solid line thinner than that of the first vibration pattern P1. The horizontal axis represents time and the vertical axis represents vibration (vibration acceleration), and each vibration pattern is schematically represented as a characteristic shape, and the details are the same as in the embodiment to be described later.

IO Tech's "640u" was used as the vibration data collection device, and the "393B31" model of PCB, which is an acceleration sensor, was used as the vibration sensor (C). Vibration analysis S/W was performed using IO Tech's "Ez-Analyst" program, and data recording was performed using LG Electronics' laptop computer.

To quantify the data received from the sensor, the measurement block size (16,384 size) is sampled at 1280 samples per second for 12.8 seconds and vibration is measured in real time. analyzed. During the measurement, data were collected at least twice to select good ones. In the following, frequency is in Hz (hertz) and acceleration is in g (1g = 9.8m/sec ² ).

1. Strong Mode (S)

1-1. When the first vibration pattern (P1) is applied

3A is a time-acceleration (vibration acceleration) graph of the first vibration pattern P1 when the first motor M1 is driven in the strong mode S. Referring to FIG. It is a graph of a smooth continuous rectangular shape in which a constant period and amplitude are indistinguishable in appearance. The maximum vibration value is about 0.1714 g (=1.6797 m/sec ² ). The minimum vibration value is -0.1714g, which means that the displacement direction is different compared to the maximum vibration value. Although FIG. 3(a) is shown as a continuous spectrum or band, as can be seen from the enlarged view of FIG. 3(b), and as is well known to those skilled in the art, in reality, a periodic oscillation signal of the same type is a continuous graph to be. In the present invention, the meaning of "band" or "spectrum" is a term representing an apparent section that is tightly packed in FIG.

FIG. 3(c) is a frequency-acceleration graph shown by FFT transformation in order to understand the time-acceleration graph of FIG. 3(a) in terms of frequency. In FIG. 3(c) , four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a(106.5Hz, 0.1552g), the coordinate b(213Hz, 0.0113g), the coordinate c(319.5Hz, 0.00406g) the coordinate d(425.9Hz, 0.00037g) to be. The maximum acceleration value of 0.1714g is an instantaneous value exceeding 0.1552g at 106.5Hz, and 0.1552g is interpreted to correspond to the maximum smoothing value (a') in FIG. 2( a ).

"Peak" means a characteristic of a frequency that has a peak compared with other surrounding vibration values, increases with a steep slope, and falls again with a steep slope based on the peak.

24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 with the strong mode of the present invention, which is given the first vibration pattern (S, P1), as shown in Fig. 17a, and insert a vaginal pressure gauge into the vagina measured. As a result, as shown in FIG. 17b , it was confirmed that the vaginal pressure rose from 0 Pa (Pascal) to an average of 20 Pa compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups. The measured value 20Pa here refers to the pressure rise value before and after the application of the present invention.

1-2. When the second vibration pattern (P2) is applied

FIG. 4(a) is a time-acceleration graph of the case where the second vibration pattern P2 is applied while the first motor M1 is driven in the strong mode S. Referring to FIG. The maximum average vibration value is about 0.40311 g (=3.95 m/sec ² ). The difference from the first vibration pattern P1 is that a rest period is set for about 1 second while generating a spectrum or band-type vibration for 4 seconds. In the present invention, "resting period" refers to a state in which the vibration value is "0", that is, there is no change in height.

Although it appears as several band sections in FIG. 4(a), as can be seen from the enlarged view of FIG. 4(b), the band section is actually a graph in which periodic vibration signals of the same type are continuous, and the first vibration pattern is The cycle is rather large compared to the applied one.

FIG. 4(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 4(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 4( c ), four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (105.9 Hz, 0.44083 g), the coordinate b (211.9 Hz, 0.0089 g), the coordinate c (317.8 Hz, 0.00745 g), the coordinate d (423.8 Hz, 0.00046 g) )to be.

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) to which the strong mode of the present invention is given, the second vibration pattern (S, P2), and insert the vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups. Here, and in the following examples, the measured value of 30 Pa refers to the pressure rise value before and after the application of the present invention.

1-3. When the third vibration pattern (P3) is applied

FIG. 5(a) is a time-acceleration graph showing a case in which the third vibration pattern P3 is applied while driving the first motor M1 in the strong mode S. Referring to FIG. The maximum vibration value is about 0.1475g (=1.4455m/sec ² ).

The difference from the first vibration pattern P1 is that a spectral or band-type vibration is generated for about 1 second and a rest period is set for about 1 second.

Although it appears as 7 band sections in FIG. 5 ( a ), as can be seen from the enlarged view of FIG. 5 ( b ), the band section is actually a graph in which periodic vibration signals of the same type are continuous, first and second The period is rather large compared to the vibration pattern.

FIG. 5(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 5(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 5(c) , four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (105.2 Hz, 0.1074 g), the coordinate b (212.7 Hz, 0.00146), the coordinate c (315.5 Hz, 0.00047 g), the coordinate d (420.6 Hz, 2.03E-) 5 g). The maximum acceleration value of 0.1475g is interpreted as an instantaneous value and there is no corresponding effective frequency.

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) to which the strong mode of the present invention is given, the third vibration pattern (S, P3), and insert a vaginal pressure measuring device into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30 pa (Pascal) compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

1-4. When the fourth vibration pattern (P4) is applied

6(a) is a time-acceleration graph of the case where the fourth vibration pattern P4 is applied while driving the first motor M1 in the strong mode S. Referring to FIG. The maximum vibration value is about 0.3801 g (=3.725 m/sec ² ), and the (+) minimum vibration value is 0.1208 g (= 1.184 m/sec ² ). In the fourth vibration pattern P4, a long spherical vibration with a period of 4 seconds is generated without a rest period. As can be seen from the enlarged view of FIG. 6( b ), for example, the period is the same in the interval of 3 to 3.5 sec, but the amplitude increases and then smooths out.

FIG. 6(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 6(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 6(c) , the significant peak frequency is not clearly highlighted as before, but data of (74.3Hz, 0.0415g) is shown at the coordinate a where the vibration peak is the highest.

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) with the strong mode of the present invention, the fourth vibration pattern (S, P4), and insert the vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30 pa (Pascal) compared to before the massage cushion 1 was used.

1-5. When the fifth vibration pattern (P5) is applied

7(a) is a time-acceleration graph of the case where the fifth vibration pattern P5 is applied while driving the first motor M1 in the strong mode S. Referring to FIG. In the fifth vibration pattern P5, after a rest period of about 1 second in the square band in units of 4 seconds, the vibration of the square band with a period of 1 second occurs three times with a rest period of 1 second, and after a rest period of about 1 second, again in units of 4 seconds It is a pattern in which a square band vibration occurs. In the graph, the left and right sides are cut off to show a bandwidth of 3 seconds, but as can be seen by referring to the weak mode to be described later, the actual period is about 4 seconds. The maximum vibration value is about 0.1556g (=1.525m/sec ² ). As can be seen from FIG. 7(b) , which is an enlarged view of a section of 4.1 to 4.6sec shown as a continuous spectrum or band in FIG.

FIG. 7(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 7(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 7(c) , four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (106.3 Hz, 0.1223 g), the coordinate b (212.7 Hz, 0.00246 g), the coordinate c (319 Hz, 0.00125 g), the coordinate d (420.6 Hz, 1.22E) -5 g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 to which the strong mode of the present invention is given, the fifth vibration pattern (S, P5), and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30 pa (Pascal) compared to before the massage cushion 1 was used.

1-6. When the sixth vibration pattern (P6) is applied

8(a) is a time-acceleration graph of the case where the sixth vibration pattern P6 is applied while the first motor M1 is driven in the strong mode S. Referring to FIG. The maximum vibration value is about 0.1559 g (=1.528 m/sec ² ).

The sixth vibration pattern (P6) is the same as the previous embodiment in that the square band vibration of 2 seconds appears three times with a pause of 0.5 seconds, and then the square band vibration of a period of 0.5 seconds appears three times with a pause of 0.5 seconds. different. As can be seen from FIG. 8(b) , which is an enlarged view of a 6.5 to 7sec section shown as a continuous spectrum or band in FIG.

FIG. 8(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 8(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 8( c ), four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, the coordinate a(106.3Hz, 0.1438g), the coordinate b(212.7Hz, 0.00204g), the coordinate c(319Hz, 0.00015g) the coordinate d(425.3Hz, 2.35E- 5 g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) with the strong mode of the present invention, the 6th vibration pattern (S, P6), and insert the vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30 pa (Pascal) compared to before the massage cushion 1 was used.

1-7. When the 7th vibration pattern (P7) is applied

9( a ) is a time-acceleration graph of the case where the seventh vibration pattern P7 is applied while driving the first motor M1 in the strong mode S. The seventh vibration pattern (P1) is a smooth continuous square-shaped vibration in which a constant period and amplitude are indistinguishable in appearance. ² ) is different. Although FIG. 9(a) is shown as a continuous spectrum or band, as can be seen from the enlarged view of FIG. 9(b), it is actually a graph in which periodic vibration signals of the same type are continuous.

FIG. 9(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 9(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 9( c ), five coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (83.75 Hz, 0.3939 g), the coordinate b (167.5 Hz, 0.00624 g), the coordinate c (251.3 Hz, 0.00034 g), the coordinate d (335.0 Hz, 0.00011) g), coordinate e (418.8Hz, 4.28E-5g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) embodying the strong mode of the present invention, the 7th vibration pattern (S, P7), and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

2. Weak Mode (W)

In the weak mode (W), the same first to seventh vibration patterns as those used in the previous strong mode (S) were used. Comparing the weak mode (W) with the strong mode (S) is different in that the maximum vibration value and a slight time lag occur. However, it shows the same properties as the strong mode (S) as a whole.

2-1. When the first vibration pattern (P1) is applied

10( a ) is a time-acceleration (vibration acceleration) graph when the first motor M1 is driven in the weak mode W and the first vibration pattern P1 is applied. Comparing the weak mode (W) with the strong mode (S), the same vibration pattern is given to generate a smooth continuous square-shaped vibration with a constant period and amplitude indistinguishable in appearance, but the maximum vibration value is about 0.223 g (= 2.1854m/sec ² ) is different. Although FIG. 10 ( a ) is shown as a continuous spectrum or band, as can be seen from the enlarged view of FIG. 10 ( b ), and as is well known to those skilled in the art, in reality, the periodic oscillation signal of the same type is a continuous graph to be.

FIG. 10(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 10(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 10( c ), five coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a(83.75Hz, 0.3849g), the coordinate b(167.5Hz, 0.00603g), the coordinate c(251.3Hz, 0.00013g) the coordinate d(335Hz, 2.27E- 5g) and coordinates e (418.8Hz, 2.76E-05g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) embodying the weak mode of the present invention, the first vibration pattern (W, P1), and insert a vaginal pressure gauge into the vagina. and measured. As a result, as shown in FIG. 17b , it was confirmed that the average vaginal pressure increased by 20pa (Pascal) compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

2-2. When the second vibration pattern (P2) is applied

11( a ) is a time-acceleration graph of the case where the second vibration pattern P2 is applied while the first motor M1 is driven in the weak mode W. As shown in FIG. The maximum average vibration value is about 0.158 g (=1.5484 m/sec ² ). The difference from the first vibration pattern P1 is that there is a pause for about 1 second while exhibiting a spectrum or band-type vibration for 4 seconds. Compared to the strong mode of 1-2., it can be said that the maximum vibration value is different and overall it is the same except for a slight time delay.

Although it appears as several band sections in Fig. 11 (a), as can be seen from the enlarged view of Fig. 11 (b), the band section is actually a graph in which periodic vibration signals of the same type are continuous, and the first vibration pattern The cycle is rather large.

FIG. 11(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 11(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 11( c ), four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a(106.1Hz, 0.2124g), the coordinate b(212.Hz, 0.00518g), the coordinate c(318.3Hz, 0.00318g) the coordinate d(424.4Hz, 0.00015) g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 that implements the weak mode, second vibration pattern (W, P2) of the present invention, and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

2-3. When the third vibration pattern (P3) is applied

12(a) is a time-acceleration graph of the case where the third vibration pattern P3 is applied while driving the first motor M1 in the weak mode W. Referring to FIG. The maximum vibration value is about 0.1517g (=1.5455m/sec ² ). There is a rest period of about 1 second with spectral or band-like vibration for about 1 second.

Although 7 band sections are shown in FIG. 12( a ), as can be seen from the enlarged view of FIG. 12( b ), the band section is actually a graph in which periodic vibration signals of the same type are continuous.

FIG. 12(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 12(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 12( c ), four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (105.8 Hz, 0.1267 g), the coordinate b (211.6 Hz, 0.00297 g), the coordinate c (317.3 Hz, 0.00270 g), the coordinate d (423.1 Hz, 5.73) E-5g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) embodying the weak mode, third vibration pattern (W, P3) of the present invention, and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 16c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

2-4. When the fourth vibration pattern (P4) is applied

13(a) is a time-acceleration graph of the case where the fourth vibration pattern P4 is applied while driving the first motor M1 in the weak mode W. Referring to FIG. The maximum vibration value is about 0.3818g (=3.742m/sec ² ), and the (+) minimum vibration value is 0.1008g (=0.988m/sec ² ). The fourth vibration pattern P4 is a long-spherical vibration with a period of 4 seconds. As can be seen from the enlarged view of FIG. 13( b ), for example, the period is the same over a period of 5.5 to 6 sec, but the amplitude increases and then decreases, showing an open shape that is smoothed with a low amplitude.

FIG. 13(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 13(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 13(c) , the peak frequency is not clearly highlighted, but data of (71.09Hz, 0.0462g) is shown in coordinate a.

24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 embodying the weak mode of the present invention, the fourth vibration pattern (W, P4), as shown in Fig. 17a, and a vaginal pressure measuring instrument is inserted into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used.

2-5. When the fifth vibration pattern (P5) is applied

14A is a time-acceleration graph when the fifth vibration pattern P5 is applied while driving the first motor M1 in the weak mode W. FIG. In the fifth vibration pattern P5, following the square band vibration in units of 4 seconds, after a rest period of about 1 second, the square band vibration of a period of 1 second occurs three times with a rest period of 1 second, and again after a rest period of about 1 second It shows a square band vibration every 4 seconds. The maximum vibration value is about 0.1477g (=1.4475m/sec ² ). As can be seen from FIG. 14(b) , which is an enlarged view of a section of 5 to 5.5sec shown as a continuous spectrum or band in FIG.

FIG. 14(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 14(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 14(c) , four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a(105.4Hz, 0.1171g), the coordinate b(210.8Hz, 0.0008g), the coordinate c(316.2Hz, 0.000245g), the coordinate d(401.6Hz, 7.24) E-6g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 that implements the weak mode, fifth vibration pattern (W, P5) of the present invention, and inserts a vaginal pressure measuring device into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used.

2-6. When the sixth vibration pattern (P6) is applied

15A is a time-acceleration graph when the sixth vibration pattern P6 is applied while driving the first motor M1 in the weak mode S. Referring to FIG. The maximum vibration value is about 0.1481 g (=1.4514 m/sec ² ).

The sixth vibration pattern P6 is a pattern in which square band vibrations in units of 2 seconds are generated three times with a rest period of 0.5 seconds, and then square band vibrations in a period of 0.5 seconds have a rest period of 0.5 seconds and are generated three times. As can be seen from FIG. 15(b) , which is an enlarged view of a section of 3.5 to 4sec shown in a continuous spectrum or band in FIG.

FIG. 15(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 15(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 15(c) , four coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (105.5 Hz, 0.1915 g), the coordinate b (210.9 Hz, 0.00373 g), the coordinate c (316.4 Hz, 0.00275 g), the coordinate d (421.9 Hz, 2.441) E-5g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion 1 embodying the weak mode of the present invention, the sixth vibration pattern (W, P6), and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used.

2-7. When the 7th vibration pattern (P7) is applied

16( a ) is a time-acceleration graph when the seventh vibration pattern P7 is applied while driving the first motor M1 in the weak mode W . The seventh vibration pattern P7 is a smooth continuous square-shaped vibration in which a constant period and amplitude are not visually distinguished, and the maximum vibration value is about 0.2135 g (=2.092 m/sec ² ). Although FIG. 16(a) is shown as a continuous spectrum or band, as can be seen from the enlarged view of FIG. 16(b), it is actually a continuous graph of periodic vibration signals of the same type.

FIG. 16(c) is a frequency-acceleration graph showing the time-acceleration graph of FIG. 16(a) by FFT transformation in order to understand it in terms of frequency. In FIG. 16( c ), five coordinates showing a significant peak frequency can be found. If the frequency and acceleration of each coordinate are expressed as an ordered pair, then the coordinate a (83.75 Hz, 0.4171 g), the coordinate b (167.5 Hz, 0.0081 g), the coordinate c (251.3 Hz, 0.00053 g), the coordinate d (335 Hz, 0.0004 g) ), coordinate e (418.8Hz, 0.00046g).

As shown in Fig. 17a, 24 women (weight 45 ~ 80 kg) directly use the massage cushion (1) embodying the weak mode of the present invention, the 7th vibration pattern (W, P7), and insert a vaginal pressure gauge into the vagina. As a result of the measurement, as shown in FIG. 17c , it was confirmed that the average vaginal pressure increased by 30pa (Pascal) compared to before the massage cushion 1 was used. There was a difference in the degree of vaginal contraction according to the weight of the control group, but it was confirmed that vaginal contraction occurred in all the control groups.

As a result of the above experiment, the maximum vibration values in both modes for each pattern are shown in Table 1 below.

pattern form Strong mode (unit: g) Weak mode (unit: g) first vibration pattern (P1) 0.1714 0.2230 Second vibration pattern (P2) 0.40311 0.1580 3rd vibration pattern (P3) 0.1475 0.1517 4th vibration pattern (P4) 0.3801 0.3818 5th vibration pattern (P5) 0.1556 0.1477 6th vibration pattern (P6) 0.1559 0.1481 7th vibration pattern (P7) 0.2199 0.2135

The maximum vibration value is in the range of 0.1475g to 0.40311g. In addition, the effective frequency having the highest vibration value peak as a result of FFT analysis for each pattern is shown in Table 2 below.

pattern form strong mode (g) Frequency (Hz) Weak mode (g) Frequency (Hz) first vibration pattern (P1) 0.1552 106.5 0.3849 83.75 0.0113 213 0.00603 167.5 0.00406 319.5 0.00013 251.3 0.00037 425.9 2.27E-5 335 - 2.76E-5 418.8 Second vibration pattern (P2) 0.44083 105.9 0.2124 106.1 0.0089 211.9 0.00518 212.2 0.00745 317.8 0.00318 318.3 0.00046 423.8 0.00015 424.4 3rd vibration pattern (P3) 0.1074 105.2 0.1267 105.8 0.00146 212.7 0.00297 211.6 0.00047 315.5 0.0027 317.3 2.03E-5 420.6 5.73E-5 423.1 4th vibration pattern (P4) 0.0415 74.3 0.0462 71.09 5th vibration pattern (P5) 0.1223 106.3 0.1171 105.4 0.00246 212.7 0.0008 210.8 0.00125 319 0.00024 316.2 1.22E-5 420.6 7.24E-6 401.6 6th vibration pattern (P6) 0.1438 106.3 0.1915 105.5 0.00204 212.7 0.00373 210.9 0.00015 319 0.00275 316.4 2.35E-5 425.3 2.44E-5 421.9 7th vibration pattern (P7) 0.3939 83.75 0.4171 83.75 0.000624 167.5 0.00808 167.5 0.00034 251.3 0.00053 251.3 0.00011 335 0.0004 335 4.28E-5 418.8 0.00046 418.8

From Table 2, it can be seen that the effective frequency range showing the peak vibration value is 71.09Hz to 425.9Hz.

It was confirmed that there is a technical significance in the fact that the effective frequency showing the peak vibration value frequency and its band are approximate regardless of the mode rather than the strong mode (S) or the weak mode (W). Specifically, considering the essential tolerance of the equipment or measuring device based on Table 2, the first vibration pattern P1 has peak vibration values in the bands of 83 to 107 Hz, 167 to 213 Hz, 251 to 320 Hz, and 335 to 429 Hz. . The second vibration pattern P2 has peak vibration values in the bands of 105 to 107 Hz, 211 to 213 Hz, 317 to 319 Hz, and 423 to 425 Hz. The third vibration pattern P3 is also the same as the second vibration pattern P2, but the maximum vibration value of the second vibration pattern P2 applied by the first motor based on the strong mode is about 0.4 g, and the third vibration pattern P3 is The maximum vibration value of the vibration pattern P3 is different in that it is about 0.15. The fourth vibration pattern P4 has a peak vibration value in a band of 71 to 75 Hz. The fifth vibration pattern P5 has peak vibration values in the bands of 105 to 107 Hz, 210 to 213 Hz, 316 to 320 Hz, and 401 to 421 Hz. The sixth vibration pattern P6 has peak vibration values in the bands of 105 to 107 Hz, 210 to 213 Hz, 316 to 319 Hz, and 421 to 426 Hz. The seventh vibration pattern P7 has peak vibration values in bands of 83 to 84 Hz, 167 to 168 Hz, 250 to 252 Hz, 334 to 336, and 418 to 419 Hz.

When the effective frequencies from the second vibration pattern (P1) to the seventh vibration pattern (P7) are compared in the strong mode and the weak mode, it can be seen that they are the same or very close to each other, and the deviation value does not exceed the maximum of 10 Hz in any case. have. In the case of the first vibration pattern P1, a deviation value of 20 Hz to 90 Hz is shown between the strong mode and the weak mode. Due to the relatively large deviation value, the results of vaginal contraction (see 1-1. and 2-1.) are lower than in other examples. estimated to be somewhat low. However, it is clear that this fact does not reduce the utility of the first vibration pattern P1 of the present invention.

As described above, the present invention can be effectively applied to a female vaginal contraction device and method using a reflex nerve through a vibration wavelength. However, it can be designed to be closely attached to the lower part of the scrotum in men and to stimulate the penile canal with a direct vibration wavelength to help with prostate enlargement through reflex nerves. In the case of a general product, if it focuses on massage of the perineum, the present invention is designed to give vibration to the penile canal protruding out of the perineum and around the anus, so the effect of shaking the prostate more strongly through the reflex nerve can be expected. In the case of men, the sphincter and the male penile canal are stimulated separately or simultaneously with different vibration patterns to facilitate blood circulation and hormonal circulation, which can help improve prostate function and enhance sexual function.

As a result of experimentation by applying the present invention to an actual human body, it is verified one after another that there is an effect of greatly improving the digestive and endocrine functions as well as the back, waist, and head as well as the massage part. This means applying vibrations to the human body to improve the overall function of the human body. In addition, it has been confirmed that the part of the human body directly massaged and contacted using the massage cushion of the present invention serves as a kind of entrance or gate through which nerves spread throughout the body.

So far, the device for vaginal contraction exercise according to the present invention has been described based on the embodiment, but it is natural that various changes are possible without departing from the technical spirit of the present invention.

For example, the present invention can be applied to various seating devices such as chairs or cushions in various forms. In addition, the present invention is not limited to the vaginal contraction device, and can be provided in various modern vibrating devices and medical devices or electronic products.

The scope of the present invention is not limited to the above-described embodiments, and extends to the same or equivalent scope as the claims to be described later. The above-described embodiments are to be understood as illustrative in all respects and not restrictive, and all changes or modifications derived from the meaning, scope, and equivalent concept of the claims are interpreted as being included in the scope of the present invention. should be

Claims (10)

delete delete delete delete delete delete delete delete (a) preparing a massage device that generates a vibration pattern through vibration;
(b) a woman sitting on the massage device; and
(c) In the frequency-vibration curve obtained by FFT (fast Fourier transform) of the time-vibration curve of the vibration pattern to contract the vagina of a woman using the massage device, the effective frequency range showing the peak vibration value is 200Hz to 350Hz, , applying the following vibration pattern;
(A) First vibration pattern having peak vibration values in the bands of 200 ~ 213Hz, 251 ~ 320Hz, and 335 ~ 350Hz
(B) Second vibration pattern having peak vibration values in the bands of 211 ~ 213Hz and 317 ~ 319Hz
(C) 5th vibration pattern having peak vibration values in the bands of 210 ~ 213Hz and 316 ~ 320Hz
A method of massage consisting of 10. The method of claim 9, wherein the vibration pattern is
A massage method further comprising a seventh vibration pattern having a peak vibration value in the bands of 250 to 252 Hz and 334 to 336 Hz.

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