TWI826097B - Wearable ring-shaped penile hardness measuring device and method for measureing penile erection hardness - Google Patents

Abstract

A wearable ring-shaped penile hardness measuring device and a method for measuring penile erection hardness are provided. The wearable ring-shaped penile hardness measuring device for measuring an erection hardness of a penile to be tested, the wearable ring-shaped penile hardness measuring device including: a C-shaped body having a first end and a second end, wherein the first end is opposite to the second end; a pinch arm having a third end and the fourth end, wherein the third end is pivotally connected to the first end, the fourth end abuts to the second end , and the C-shaped body and the pinch arm surround the penile to be tested; a motor disposed in the pinch arm, the motor configured to rotate the C-shaped body and the pinch arm relative to each other; and a current measuring unit disposed in the C-shaped body, and the current measuring unit configured to measure a plurality of force impedance values of the motor and a plurality of operating current values of the motor, during the pinch arm clamps the penile to be tested.

Description

Wearable ring-shaped penis hardness measuring device and penile erection hardness measuring method

The present invention relates to a measuring device for physical characteristics, in particular to a wearable ring-shaped penis hardness measuring device and a method for measuring penile erection hardness.

Erectile dysfunction is one of the types of male sexual dysfunction, which is characterized by the inability of the male penis to erect or maintain the hardness of an erection during sexual intercourse. Such erectile dysfunction may lead to depression, anxiety, and lack of self-esteem, and may even lead to emotional discord between couples.

In the existing technology, a measuring device is mostly used to measure the erect penis hardness during sleep at night. However, penis hardness during sleep is very different from the atmosphere and situation during real sex, and such measurement results cannot reflect the actual hardness of the penis during real sex. In addition, the penis hardness measuring devices currently on the market use metal rings to measure the expansion (volume change) of the penis. The degree of expansion varies with the size of the penis of the subject. Therefore, when measuring During the measurement process, a metal ring of inappropriate size often causes discomfort to the subject. In addition, the prior art only represents the degree of expansion of the penis and does not exactly represent the hardness of the penis.

The existing technology also uses a hand-held device to stimulate the penis (such as applying force) to measure the penis hardness. However, such a measurement method may cause measurement errors due to different hand-holding positions, and such a measurement method cannot measure the actual sexual behavior. The actual hardness of the penis.

Therefore, it is necessary to provide a wearable ring-shaped penis hardness measuring device and a penile erection hardness measuring method to solve the problems of conventional technologies.

An object of the present invention is to provide a wearable ring-shaped penis hardness measuring device, particularly a hardness measuring device that is light and small in size and can measure the hardness value of the penis during real sex. In addition, the present invention can also stimulate the root of the penis during authentic sexual intercourse, which helps increase the hardness of the penis head and improve male performance during authentic sexual intercourse.

Another object of the present invention is to provide a method for measuring penile erection hardness, which can be compared with a standard (for example, homogeneous silicone dildos with various Shore hardnesses), thereby accurately presenting the hardness of the male penis.

In order to achieve the above object, the present invention provides a wearable ring-shaped penis hardness measuring device for measuring a hardness value of a penis to be measured, which includes: a C-shaped body with a first end and a second end. , the first end is opposite to the second end; a clamping arm has a third end and a fourth end, the third end is pivotally connected to the first end, and the fourth end abuts the second end, And the C-shaped body and the clamping arm surround the penis to be measured; a motor is provided in the clamping arm, and the motor is used to rotate the C-shaped body and the clamping arm relative to each other; and a current measurement unit is provided In this C-shaped body, the The current measuring unit is used to measure a plurality of force resistance values and a plurality of working current values that the motor bears when the clamping arm clamps the penis to be measured, wherein the force resistance values and the working current values are calculated to obtain the hardness value.

In an embodiment of the present invention, the C-shaped body further includes: a blocking plate disposed at the second end of the C-shaped body, and the blocking plate is used to resist the fourth end of the pinching arm.

In an embodiment of the present invention, the C-shaped body further includes: a protective plate adjacent to the first end of the C-shaped body, and the protective plate is used to resist the pinch arm.

In an embodiment of the invention, the C-shaped body has a body thickness, the first end has a first thickness, the blocking plate has a second thickness, the protection plate has a third thickness, and the body thickness Greater than the first thickness, the body thickness is greater than the second thickness, and the body thickness is greater than the third thickness.

In one embodiment of the invention, the motor is adjacent to the third end of the clamping arm, and the motor has a transmission shaft connected to the first end of the C-shaped body.

In an embodiment of the present invention, the C-shaped body is further provided with: a motor control unit connected to the motor to control the rotation of the transmission shaft of the motor; a processing unit connected to the motor control unit and the a current measurement unit, the processing unit is used to transmit a control signal to the motor control unit and receive the force impedance and the operating current values from the current measurement unit; a data transmission unit is connected to the processing unit to transmit data with the processing unit; and a battery unit used to provide power required by the motor, the current measurement unit, the motor control unit, the processing unit and the data transmission unit.

In an embodiment of the present invention, the data transmission unit performs data transmission with an external device through a wired connection or a wireless connection to transmit data from the processing unit to the external device or from the external device. The data is transferred to the processing unit.

In an embodiment of the present invention, when the blocking plate abuts the fourth end of the clamping arm and the operating current value of the motor is greater than a first threshold, the processing unit transmits a first stop signal to the motor. The control unit stops the drive shaft from continuing to rotate.

In an embodiment of the present invention, when the protective plate abuts the pinch arm and the operating current value of the motor is greater than a second threshold, the processing unit transmits a second stop signal to the motor control unit to stop. The drive shaft continues to rotate.

The present invention also provides a penis erection hardness measuring method for measuring a hardness value of a penis to be measured, which includes: fitting a wearable ring-shaped penis hardness measuring device to a plurality of simulated penises to measure When the clamping arm clamps the virtual penises, the motor withstands a plurality of simulated force impedance values and a plurality of simulated working current values, wherein the virtual penises each have a different Shore hardness value; calculate each A simulated slope relationship between the simulated force impedance values and the simulated working current values of the simulated penis, and forms a simulated curve, wherein in the simulated curve, the simulated slope relationships Corresponding to the Shore hardness values; measure the penis to be tested to obtain the force impedance values and operating current values that the motor bears when the clamping arm clamps the penis to be tested, and calculate the force impedance values and A slope relationship between the working current values; and comparing the slope relationship with the simulated curve, wherein the Shore hardness value corresponding to the slope relationship is the hardness value of the penis to be measured.

As mentioned above, the present invention uses a C-shaped body and a clamping arm to surround the penis to be measured, so the wearable ring-shaped penis hardness measuring device is light in weight and small in size and is suitable for use during real sexual behavior. The motor installed in the clamping arm drives the clamping arm to rotate relative to the C-shaped body and clamp the penis to be measured, and the current measurement The measuring unit measures the force resistance value and working current value of the motor when the clamping arm clamps the penis to be tested, and then obtains the hardness value of the penis to be tested. In this way, the present invention can measure the hardness value of the penis to be tested during actual sexual behavior. In addition, the motor can drive the clamping arm to stimulate the penis to be tested during real sex to improve men's performance during real sex.

10: Penis to be tested

20:External device

100: Wearable ring-shaped penis hardness measuring device

110:C-shaped body

112:First end

114:Second end

116:Blocking plate

118:Protective board

120:Pinch arm

122:Third end

124:Fourth end

130: Motor

132: Drive shaft

140:Current measurement unit

150: Motor control unit

160: Processing unit

170:Data transmission unit

180:Battery unit

200: Method for measuring penile erection hardness

D1: first direction

D2: second direction

T: body thickness

T1: first thickness

T2: second thickness

T3: The third thickness

S210~S240: steps

Figure 1 is a schematic front view of a wearable ring-shaped penis hardness measuring device according to an embodiment of the present invention.

Figure 2 is a schematic diagram of the operation of the embodiment of Figure 1.

Figure 3 is a schematic side view of the embodiment of Figure 1.

Figure 4 is a schematic diagram of device connection in the embodiment of Figure 1.

Figure 5 is a one-step flow chart of a method for measuring penile erection hardness according to an embodiment of the present invention.

In order to make the above and other objects, features, and advantages of the present invention more apparent and understandable, preferred embodiments of the present invention will be described in detail below along with the accompanying drawings.

Please refer to Figures 1 to 4. Figure 1 is a schematic front view of a wearable ring-shaped penis hardness measuring device according to an embodiment of the present invention. Figure 2 is a schematic diagram of the operation of the embodiment of Figure 1. Figure 3 is a schematic side view of the embodiment of Figure 1. Figure 3 is a schematic side view of the embodiment of Figure 1. Figure 4 is a schematic diagram of device connection in the embodiment of Figure 1. This embodiment provides a wearable ring-shaped penis hardness measuring device 100 for measuring a hardness value of a penis 10 to be measured, which includes: a C-shaped The main body 110, a clamping arm 120, a motor 130, a current measurement unit 140, a motor control unit 150, a processing unit 160, a data transmission unit 170 and a battery unit 180.

The C-shaped body 110 has a first end 112 and a second end 114. The first end 112 is opposite to the second end 114. The clamping arm 120 has a third end 122 and a fourth end 124. The third end 122 is pivotally connected to the first end 112, the fourth end 124 abuts the second end 114, and the C-shaped body 110 The clamping arm 120 surrounds the penis 10 to be measured. In addition, the C-shaped body 110 may also include a blocking plate 116 and a protection plate 118 . The blocking plate 116 is disposed on the second end 114 of the C-shaped body 110 , and the blocking plate 116 is used to resist the fourth end 124 of the clipping arm 120 . The protective plate 118 is adjacent to the first end 112 of the C-shaped body 110, and the protective plate 118 is used to resist the pinch arm 120. In this embodiment, the C-shaped body 110 may have a body thickness T, the first end may have a first thickness T1, the blocking plate 116 may have a second thickness T2, and the protection plate 118 may have a third thickness T3. , and the body thickness T is greater than the first thickness T1, the body thickness T is greater than the second thickness T2, and the body thickness T is greater than the third thickness T3. Through such a design, the blocking plate 116 can have sufficient ability to resist the fourth end 124 of the pinching arm 120 , and the protective plate 118 can have sufficient ability to resist the pinching arm 120 .

The motor 130 is disposed in the clamping arm 120, and the motor 130 is used to rotate the C-shaped body 110 and the clamping arm 120 relative to each other. The motor 130 may be adjacent to the third end 122 of the clamping arm 120, and the motor 130 may have a transmission shaft 132 connected to the first end 112 of the C-shaped body 110. Since the motor 130 is fixed in the clamping arm 120 and the transmission shaft 132 is connected to the first end 112 of the C-shaped body 110, the rotation of the transmission shaft 132 can drive the C-shaped body 110 and the clamping arm 120 relative to each other. To rotate with each other, for example, the transmission shaft 132 can drive the clamping arm 120 to rotate in a first direction D1 or a second direction D2.

The current measurement unit 140 is disposed in the C-shaped body 110 . The current measurement unit 140 is used to measure a plurality of force impedance values and a plurality of operating currents that the motor 130 bears when the clamping arm 120 clamps the penis 10 to be measured. value, wherein the force resistance values and the operating current values are calculated to obtain the hardness value.

The motor control unit 150 is connected to the motor 130 and used to control the rotation of the transmission shaft 132 of the motor 130 . That is, the motor control unit 150 can control the start rotation, stop rotation and rotation direction of the transmission shaft 132 .

The processing unit 160 is connected to the motor control unit 150 and the current measurement unit 140. The processing unit 160 is used to transmit a control signal to the motor control unit 150 and receive the force impedances and the force impedances from the current measurement unit 140. Working current value.

The data transmission unit 170 is connected to the processing unit 160 for transmitting data with the processing unit 160 . Specifically, the data transmission unit 170 can perform data transmission with an external device 20 through a wired connection (for example, a transmission line) or a wireless connection (for example, Bluetooth, WIFI or other feasible wireless transmission technologies) to transfer the data to the external device 20 . The data from the processing unit 160 is transmitted to the external device 20 or the data from the external device 20 is transmitted to the processing unit 160 .

The battery unit 180 is connected to the motor 130, the current measurement unit 140, the motor control unit 150, the processing unit 160 and the data transmission unit 170 respectively. The battery unit 180 is used to provide power required by the motor 130 , the current measurement unit 140 , the motor control unit 150 , the processing unit 160 and the data transmission unit 170 . It should be understood that the battery unit 180 may include one or more batteries or elements that store electrical power.

In addition, during the measurement process, when the blocking plate 116 abuts the fourth end 124 of the pinch arm 120 and the operating current value of the motor 130 is greater than a first threshold, the processing unit 160 transmits A first stop signal is sent to the motor control unit 150 to stop the transmission shaft 132 from continuing to rotate. In this way, the blocking plate 116 can be restored to the initial position, leaving enough space between the clamping arm 120 and the C-shaped body 110, so that the wearable ring-shaped penis hardness measuring device 100 can be easily installed. on the penis 10 to be tested. When the protection plate 118 abuts the pinch arm 120 and the operating current value of the motor 130 is greater than a second threshold, the processing unit 160 transmits a second stop signal to the motor control unit 150 to stop the transmission shaft 132 Keep turning. In this way, the wearable ring-shaped penis hardness measuring device 100 can be prevented from exerting excessive force on the penis to be measured 10 and causing damage to the penis to be measured 10 .

During the actual measurement in this embodiment, the wearable ring-shaped penis hardness measuring device 100 is first put on the penis 10 to be measured, and the transmission shaft 132 of the motor 130 is activated and drives the clamping arm 120 according to the first Rotate in direction D1 to clamp the penis 10 to be tested. During the measurement process, the operating current values measured by the current measurement unit 140 and the force impedance values borne by the motor 130 are transmitted to the processing unit 160. The processing unit 160 calculates the force impedance values and the force impedance values. The hardness value of the penis to be tested 10 can be obtained by comparing a slope relationship between the working current values with a standard product (for example, a simulated penis with different specific Shore hardness values). In addition, the transmission shaft 132 of the motor 130 can also drive the pinch arm 120 to rotate in the second direction D2. For example, the pinch arm 120 is driven back to the original position contacting the blocking plate 116 . The data processed by the processing unit 160 (for example, the force resistance values, the operating current values, the slope relationship, the hardness value, etc.) can be transmitted to the external device 20 through the data transmission unit 170 . In addition, the external device 20 can also transmit data (such as instructions) to the processing unit 160. The processing unit 160 sends signals to the motor control unit 150 with instructions, and then controls the transmission shaft 132 of the motor 130 to make the pinch arm 120 Rotate in the first or second direction. That is to say, the wearable ring-shaped penis hardness measuring device 100 can stimulate the penis to be measured 10 according to the instructions from the external device 20, which helps to increase the hardness of the penis head and improve the male's sexual performance during real sex. table now. In addition, the external device 20 may be a monitor, a personal computer, a laptop, a mobile device (eg, a smartphone), or other devices with the same functions.

Please refer to Figure 5. Figure 5 is a one-step flow chart of a method for measuring penile erection hardness according to an embodiment of the present invention. This embodiment provides a penis erection hardness measurement method 200 for measuring a hardness value of a penis to be measured, which includes the following steps:

Step S210, the aforementioned wearable ring-shaped penis hardness measuring device is set on a plurality of virtual penises to measure a plurality of simulated force impedance values and resistance values borne by the motor when the clamping arm clamps the virtual penises. A plurality of simulated working current values, wherein each of the simulated penises has a different Shore hardness value.

Step S220: Calculate a simulated slope relationship between the simulated force impedance values and the simulated working current values of the virtual penis, and form a simulated curve, wherein in the simulated curve, the These simulated slope relationships correspond to these Shore hardness values.

Step S230, measure the penis to be tested to obtain the force impedance values and the working current values that the motor bears when the clamping arm clamps the penis to be tested, and calculate the force impedance values and the working current values. a slope relationship between.

Step S240: Compare the slope relationship with the simulated curve, wherein the Shore hardness value corresponding to the slope relationship is the hardness value of the penis to be measured.

This embodiment uses a wearable ring-shaped penis hardness measuring device to measure multiple simulated male penises with different Shore hardness values. During the measurement process, the simulated force impedance values of the simulated male penises with different Shore hardness values are measured. , the relationship between the simulated operating current value and the simulated slope will form a simulated curve. Then, measure the penis to be tested to obtain the force impedance value, working current value and slope relationship. Compare the slope relationship with the simulated curve. The Shore hardness value corresponding to the slope relationship is the hardness value of the penis to be tested.

As mentioned above, the present invention uses a C-shaped body and a clamping arm to surround the penis to be measured, so the wearable ring-shaped penis hardness measuring device is light in weight and small in size and is suitable for use during real sexual behavior. The motor set in the clamping arm drives the clamping arm to rotate relative to the C-shaped body to clamp the penis to be measured. The current measuring unit measures the force impedance value and working current value of the motor when the clamping arm clamps the penis to be measured, and then obtains the value of the penis to be measured. Penis hardness value. In this way, the present invention can measure the hardness value of the penis to be tested during actual sexual behavior. In addition, the motor can drive the clamping arm to stimulate the penis to be tested during real sex to improve men's performance during real sex.

Although the present invention has been disclosed in preferred embodiments, they are not intended to limit the present invention. Any person skilled in the art can make various changes and modifications without departing from the spirit and scope of the present invention. Therefore, the present invention The scope of protection shall be subject to the scope of the patent application attached.

10: Penis to be tested

100: Wearable ring-shaped penis hardness measuring device

110:C-shaped body

112:First end

114:Second end

116:Blocking plate

118:Protective board

120:Pinch arm

122:Third end

124:Fourth end

130: Motor

132: Drive shaft

140:Current measurement unit

150: Motor control unit

160: Processing unit

170:Data transmission unit

180:Battery unit

Claims (10)

A wearable ring-shaped penis hardness measuring device used to measure a hardness value of a penis to be measured, which includes: A C-shaped body having a first end and a second end, the first end being opposite to the second end; A pinching arm has a third end and a fourth end, the third end is pivotally connected to the first end, the fourth end abuts the second end, and the C-shaped body and the pinching arm surround the waiting penis measurement; A motor is provided in the clamping arm, the motor is used to rotate the C-shaped body and the clamping arm relative to each other; and A current measuring unit is provided in the C-shaped body. The current measuring unit is used to measure a plurality of force impedance values and a plurality of working current values that the motor bears when the clamping arm clamps the penis to be measured, wherein the calculation of the These force impedance values and these operating current values are used to obtain the hardness value. The wearable ring-shaped penis hardness measuring device as claimed in claim 1, wherein the C-shaped body further includes: a blocking plate disposed at the second end of the C-shaped body, the blocking plate being used to withstand the pinch impact This fourth end of the arm. The wearable ring-shaped penis hardness measuring device as claimed in claim 2, wherein the C-shaped body further includes: a protective plate adjacent to the first end of the C-shaped body, the protective plate being used to resist the pinching arm . The wearable ring-shaped penis hardness measuring device as claimed in claim 3, wherein the C-shaped body has a body thickness, the first end has a first thickness, the blocking plate has a second thickness, and the protective plate has A third thickness, and the thickness of the body is greater than the first thickness, the thickness of the body is greater than the second thickness, and the thickness of the body is greater than the third thickness. The wearable ring-shaped penis hardness measuring device as claimed in claim 3, wherein the motor is adjacent to the third end of the clamping arm, and the motor has a transmission shaft connected to the first part of the C-shaped body end. The wearable ring-shaped penis hardness measuring device as described in claim 5, wherein the C-shaped body is also provided with: A motor control unit, connected to the motor, for controlling the rotation of the transmission shaft of the motor; A processing unit connected to the motor control unit and the current measurement unit, the processing unit is used to transmit a control signal to the motor control unit and receive the force impedance and the operating current values from the current measurement unit; a data transmission unit connected to the processing unit for transmitting data with the processing unit; and A battery unit is used to provide power required by the motor, the current measurement unit, the motor control unit, the processing unit and the data transmission unit. The wearable ring-shaped penis hardness measuring device as claimed in claim 6, wherein the data transmission unit performs data transmission with an external device through a wired connection or a wireless connection to transmit data from the processing unit to the The external device may transmit data from the external device to the processing unit. The wearable ring-shaped penis hardness measuring device as claimed in claim 6, wherein when the blocking plate abuts the fourth end of the pinching arm and the operating current value of the motor is greater than a first threshold, the processing unit A first stop signal is transmitted to the motor control unit to stop the transmission shaft from continuing to rotate. The wearable ring-shaped penis hardness measuring device as claimed in claim 6, wherein when the protective plate abuts the pinching arm and the operating current value of the motor is greater than a second threshold, the processing unit transmits a second A stop signal is sent to the motor control unit to stop the transmission shaft from continuing to rotate. A method for measuring penile erection hardness, used to measure a hardness value of a penis to be measured, which includes: Put the wearable ring-shaped penis hardness measuring device as described in any one of claims 1 to 9 on a plurality of virtual penises to measure the force endured by the motor when the clamping arms clamp the virtual penises. A plurality of simulated force impedance values and a plurality of simulated working current values, wherein each of the simulated penises has a different Shore hardness value; Calculate a simulated slope relationship between the simulated force impedance values and the simulated operating current values of each of the virtual penis, and form a simulated curve, wherein in the simulated curve, the simulated penis The slope relationship corresponds to these Shore hardness values; Measure the penis to be tested to obtain the force impedance values and the working current values that the motor bears when the clamping arm clamps the penis to be tested, and calculate the relationship between the force impedance values and the working current values. a slope relationship; and The slope relationship is compared with the simulated curve, wherein the Shore hardness value corresponding to the slope relationship is the hardness value of the penis to be measured.