A method and system for monitoring male sexual performance and behavior training control

Abstract

The present application provides a kind of male sexual function monitoring and behavior training control method and system, monitor the penile root, glans penis pressure value in sexual behavior training, calculate ejaculation latency;Penile tumescence degree value and glans penis tumescence degree value are calculated;Real-time current unit time sexual excitement degree value Ls is calculated, and according to the change of Ls, corresponding control mode is adopted, ejaculation time point, ejaculation latency and ejaculation latency number are extended.The present application can feed back the sexual excitement degree data of training to the trainer in real time, and according to the change of sexual excitement degree in training, the sexual excitement degree is promoted and controlled, and the ejaculation is controlled, for male sexual behavior training, extend the penile erection and ejaculation latency length, so as to continuously improve the ejaculation control of trainer, improve the brain ejaculation threshold, improve the penile blood vessel blood supply time, treat premature ejaculation, erectile dysfunction and other male sexual dysfunction.

Description

Technical Field

[0001] This invention belongs to the field of clinical medical sexual function behavior training, and in particular relates to a method and system for monitoring and controlling male sexual function and behavior training. Background Technology

[0002] Male sexual health is crucial for both men and their families. Sexual dysfunction is one of the most common male health problems. Male sexual function training is gaining increasing attention due to its safety, lack of side effects, ease of implementation, and positive effects on male sexual function and health. Male sexual function is characterized by penile erection and ejaculation. Erectile function is generally assessed by the degree and rigidity of penile erection, while ejaculation function is assessed by ejaculatory latency and the number of penetrations. The male sexual response cycle includes sexual arousal, excitement, orgasm, and resolution. Figure 1 The diagram illustrates the male sexual response cycle. During this cycle, as sexual arousal increases with continued behavioral input, the degree of penile erection and the length of the glans penis change, reflecting variations in male sexual arousal. Therefore, in male sexual function training, real-time monitoring of the male's sexual arousal status and relevant parameters such as penile erection and ejaculation time is crucial, and training should be conducted based on these parameters.

[0003] Monitoring male sexual response primarily involves collecting data on penile changes using monitoring devices (mainly pressure sensors). However, current technologies mainly monitor and detect penile erectile function, reflecting changes in blood flow to the corpora cavernosa. Because the corpora cavernosa, bound by the tunica albuginea, eventually form a venous closure mechanism, the intra-erectile pressure rises to a maximum of level four rigidity. After this point, the venous closure mechanism prevents further changes, thus maintaining an erection for a prolonged period. Therefore, penile erection monitoring can only represent arousal and sexual excitement, but cannot distinguish changes in the degree of sexual arousal or the state at the moment of ejaculation.

[0004] The penis is composed of the corpus cavernosum and the corpus spongiosum, and the enlarged end of the corpus spongiosum is the glans penis. The corpus spongiosum of the glans penis is not bound by the tunica albuginea and the venous occlusion mechanism, and its degree of expansion changes with the degree of excitation, reaching the maximum degree of expansion during ejaculation. Therefore, monitoring the degree of expansion of the glans penis can more accurately describe the degree of sexual excitation of a male to reflect the entire process of male sexual response. As described above, to detect the degree of sexual excitation, it is necessary to monitor the changes in the corpus cavernosum at the root of the penis and the changes in the enlarged end of the corpus spongiosum at the glans penis. There is no monitoring device or structure suitable for monitoring the root of the penis and the glans penis in the prior art, and most of the existing devices only use sensors to monitor the changes in the corpus cavernosum for clinical evaluation of penile erectile function, lacking monitoring of the degree of expansion of the glans penis in the degree of sexual excitation.

[0005] In summary, the prior art cannot reflect the degree of sexual excitation of a trainee in real time and completely. There is also no method for intelligent or self-regulation based on feedback of the degree of sexual excitation data, so that the training of sexual function behavior is not easy to achieve the training purpose desired by the trainee. SUMMARY

[0006] The purpose of the present application is to provide a method and system for monitoring and controlling the behavior of male sexual function, which can feed back the degree of sexual excitation data in training to the trainee in real time, and make corresponding adjustments according to the changes in the degree of sexual excitation in training.

[0007] To achieve the above purpose, the technical solution of the present application is as follows:

[0008] A method for monitoring and controlling the behavior of male sexual function, comprising:

[0009] S1, monitoring the pressure values of the root of the penis and the glans penis in the training of sexual function behavior, and calculating the ejaculation time point T 射精 , the first insertion time point T 插入 , the ejaculation latency time IELT and the ejaculation latency frequency IELTF;

[0010] S2, calculating the degree of expansion of the penis cDe and the change value △cDe of the previous unit of time in the current unit of time in the training of sexual function behavior, and the degree of expansion of the glans penis uDe and the change value △uDe of the previous unit of time;

[0011] S3, calculating the degree of sexual excitation Ls in the current unit of time in the training of sexual function behavior, and the calculation method is: Ls = Ls t + a × △uDe + b × △cDe + c × F + d × S 提升 - e × T 停顿 - f × F 控精 ;

[0012] Wherein: F is the number of thrusts; S 提升 is the strength value of the progressive degree of sexual arousal; T 停顿 is the length of time for controlling the ejaculation pause; F 控精 is the value of the degree of sexual arousal caused by other ejaculation control methods in unit time; a, b, c, d, e, f are coefficients;

[0013] Ls t is the value of the degree of sexual arousal in the previous unit time, and t represents the previous unit time;

[0014] The initial unit time t=0 when the initial insertion is performed; then the value of the degree of sexual arousal Ls0=a×uDe0+b×cDe0; uDe0is the value of the degree of glans swelling at the initial insertion; and cDe0is the value of the degree of penis swelling at the initial insertion;

[0015] S4, controlling the decrease or increase of Ls according to the value of Ls, thereby prolonging the ejaculation time point T 射精 , the ejaculation latency time IELT, and increasing the ejaculation latency frequency IELTF; the control includes adjusting one or more of S 提升 , T 停顿 , F 控精 .

[0016] Further, the monitoring structure of the ring-shaped air bag and the sensor is used in step S2 to respectively monitor the pressure values of the penis root and the glans in real time during the sexual function behavior training; then the calculation formula for calculating the degree of penis swelling and the degree of glans swelling is:

[0017] ;

[0018] ;

[0019] Wherein, cDe is the value of the degree of penis swelling; uDe is the value of the degree of glans swelling; cP is the value of the penis root sensor; uP is the value of the glans sensor; cR0is the inner diameter of the ring-shaped air bag of the penis root; cR1is the outer diameter of the ring-shaped air bag of the penis root; cP0is the initial air pressure value of the ring-shaped air bag of the penis root; uR0is the inner diameter of the ring-shaped air bag of the glans; uR1is the outer diameter of the ring-shaped air bag of the glans; and uP0is the initial air pressure value of the ring-shaped air bag of the glans.

[0020] Further, the calculation method of the thrust frequency F in step S3 is to use the value of the penis root sensor to make a value curve, and take the number of the peak values of the value curve as the thrust frequency F.

[0021] Further, the calculation method of the thrust frequency F in step S3 is to use the value of the penis root sensor to make a value curve, and take the number of the peak values of the value curve as the thrust frequency F. 提升This includes the intensity of increase from a single behavior that enhances sexual arousal, or the intensity of increase from a combination of multiple behaviors. These behaviors can include vibration, negative pressure attraction, friction, electrical pulses, temperature changes, visual stimulation, auditory stimulation, and interaction. The F... 控精 The reduction in sexual arousal level per unit time achieved by implementing a single method of ejaculation control, or the combined reduction in sexual arousal level per unit time achieved by implementing multiple methods of ejaculation control, can be methods other than the ejaculation control pause (movement-stop method), such as the squeezing method, breathing regulation method, and attention diversion method.

[0022] In another aspect, this invention also proposes a male sexual function monitoring and behavioral training control system, comprising:

[0023] Ejaculation latency calculation module: Monitors the pressure values ​​at the base of the penis and glans during sexual function training, and calculates the ejaculation time point T. 射精 The first insertion point T 插入 And ejaculation latency time (IELT) and ejaculation latency number (IELTF);

[0024] Penis swelling degree calculation module: Real-time calculation of the penile swelling degree value cDe and the change value △cDe from the previous unit of time in the current unit of time during sexual function behavior training, and the glans swelling degree value uDe and the change value △uDe from the previous unit of time;

[0025] The sexual arousal level calculation and control module calculates the sexual arousal level value Ls in real time during sexual function behavior training. The calculation method is: Ls = Ls t +a×△uDe+b×△cDe+c×F+d×S 提升 -e×T 停顿 -f×F 控精 ;

[0026] Where: F is the number of thrusts; S 提升 T is a numerical value representing the intensity of increased sexual arousal. 停顿 To control the duration of the pause in ejaculation; F 控精 The reduction in sexual arousal level per unit time resulting from implementing other ejaculation control methods; a, b, c, d, e, and f are coefficients;

[0027] Ls t The value of sexual arousal in the previous unit of time, where t represents the previous unit of time;

[0028] The initial unit time t=0 at the initial insertion; then the sexual arousal level value Ls0= a×uDe0+b×cDe0; uDe0 is the glans swelling value at the initial insertion; cDe0 is the penile swelling value at the initial insertion;

[0029] Control module: Controls the value of Ls to decrease or increase it, thereby prolonging the ejaculation time point T. 射精 Ejaculation latency time (IELT) and ejaculation latency frequency (IELTF) are controlled; the control includes S 提升 T 停顿 F 控精 One or more of them may be adjusted.

[0030] Furthermore, the penile swelling degree calculation module includes an airbag monitoring submodule. This submodule employs a monitoring structure combining a ring-shaped airbag and sensors to monitor the pressure values ​​at the base of the penis and the glans penis in real time during sexual function training. The formulas for calculating the penile swelling degree and the glans penis swelling degree are as follows:

[0031] ;

[0032] ;

[0033] Wherein, cDe is the penile swelling degree value; uDe is the glans swelling degree value; cP is the value of the sensor at the base of the penis; uP is the value of the sensor at the glans; cR0 is the inner diameter of the annular air sac at the base of the penis; cR1 is the outer diameter of the annular air sac at the base of the penis; cP0 is the initial air pressure value of the annular air sac at the base of the penis; uR0 is the inner diameter of the annular air sac at the glans; uR1 is the outer diameter of the annular air sac at the glans; uP0 is the initial air pressure value of the annular air sac at the glans.

[0034] Furthermore, in the sexual arousal level calculation and control module, the number of thrusts F is calculated as follows: a numerical curve is generated using the values ​​from the penile root sensor, and the number of peak values ​​of the numerical curve is taken as the number of thrusts F.

[0035] Furthermore, in the sexual arousal level calculation and control module, the S 提升 This includes the intensity of increase from a single behavior that enhances sexual arousal, or the intensity of increase from a combination of multiple behaviors. These behaviors can include vibration, negative pressure attraction, friction, electrical pulses, temperature changes, visual stimulation, auditory stimulation, and interaction. The F... 控精 The reduction in sexual arousal level per unit time achieved by implementing a single method of ejaculation control, or the combined reduction in sexual arousal level per unit time achieved by implementing multiple methods of ejaculation control, can be methods other than the ejaculation control pause (movement-stop method), such as the squeezing method, breathing regulation method, and attention diversion method.

[0036] The present invention also proposes the above-described method for monitoring and controlling male sexual function and the control system for monitoring and controlling male sexual function, and their application in the treatment of male sexual dysfunction.

[0037] Compared with the prior art, the present invention has the following beneficial effects:

[0038] This invention monitors the degree of penile and glans swelling in real time during sexual function training. Based on changes in sensor parameter values, it can calculate penile erection level, number of insertions, insertion duration, and sexual arousal level. The data is fed back to the trainee in real time. Based on changes in sexual arousal level during training, it can regulate and control sexual arousal and ejaculation. When used in male sexual function training, it prolongs the duration of penile erection and ejaculation latency, thereby continuously improving the trainee's ejaculation control, raising the brain's ejaculation threshold, increasing penile blood supply duration, and treating male sexual dysfunction diseases such as premature ejaculation and erectile dysfunction. Attached Figure Description

[0039] Figure 1 This is a schematic diagram of the male sexual response cycle.

[0040] Figure 2 This is a schematic diagram illustrating the change in the Ls value of sexual arousal level under sexual behavior training control according to an embodiment of the present invention;

[0041] Figure 3 This is a schematic diagram of the airbag monitoring structure according to an embodiment of the present invention. Detailed Implementation

[0042] It should be noted that, unless otherwise specified, the embodiments and features described in the present invention can be combined with each other.

[0043] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0044] The design concept of this invention is to monitor the degree of swelling of the penis and glans in real time during sexual function training through sensors, and to calculate the degree of penile erection, number of insertions, insertion duration, and degree of sexual arousal based on changes in sensor parameter values. The data is then fed back to the trainee in real time, and the degree of sexual arousal is adjusted to increase or control ejaculation based on changes in the degree of sexual arousal during training.

[0045] In embodiments of the present invention, the following measures are taken: Figure 3 The airbag monitoring structure shown consists of a glans ring-shaped airbag 4 and a penile root ring-shaped airbag 5. Figure 3 To illustrate the internal structure, only half of the glans annular air sac 4 and the penile root annular air sac 5 are shown.

[0046] The ring-shaped air sac 5 at the base of the penis is a ring-shaped air sac that can be fitted onto the base of the penis to monitor the degree of swelling at the base of the penis. The main structure at the base of the penis is the corpora cavernosa, which become engorged with blood and erect during sexual arousal. The outer layer of the corpora cavernosa is covered by a tough tunica albuginea, which restricts further expansion of the corpora cavernosa, forming a venous occlusion mechanism. This ensures that once the degree of swelling of the corpora cavernosa reaches its peak during sexual arousal, it will not change further. By monitoring the changes in the swelling pressure at the base of the penis, data on the changes in gas pressure within the air sac caused by the expansion of the corpora cavernosa during penile erection during sexual arousal can be obtained. This pressure change data can then be used to calculate data such as the degree of penile swelling, which can be used to calculate the level of sexual arousal.

[0047] The glans annular air sac 4, also an annular air sac, is positioned corresponding to the glans penis and is used to monitor the degree of glans swelling. The glans penis is the swollen terminal portion of the corpus spongiosum. Since the outer layer of the corpus spongiosum is not bound by a tough tunica albuginea, the higher the level of sexual arousal, the greater the swelling of the glans penis. At the moment of orgasm and ejaculation, the level of sexual arousal reaches its maximum, and the degree of glans swelling reaches its maximum. By monitoring the changes in gas pressure within the air sac caused by the swelling of the glans penis during sexual arousal, data such as the degree of glans swelling can be obtained from the pressure change data, which can then be used to calculate the level of sexual arousal.

[0048] Figure 3 The diagram illustrates the internal structure of the penile root annular air sac 5 and the glans annular air sac 4. Both sacs consist of a soft gel inner wall and a plastic outer ring, with air vents 6 located on the outer plastic ring. The soft gel inner wall is made of a soft medical-grade silicone or TPE material, with a thin wall thickness of 0.1-1 mm, high elasticity, and adheres tightly to the skin of the penis or glans, changing shape with penile / glans expansion. The plastic outer ring is made of medical-grade plastic, rigid and non-deformable, forming the internal space of the air sac with the soft gel inner wall. When the penile root or glans expands, the soft gel inner wall is compressed, causing outward deformation, while the plastic outer ring remains fixed. The gas inside the air sac is compressed, causing pressure changes. This pressure change data can be collected by a pressure sensor to calculate the inner wall deformation, and thus, the size and degree of penile or glans expansion.

[0049] The annular air sac at the base of the penis 5 has an inner wall 52 and an outer ring 51 forming the internal space of the annular air sac at the base of the penis. The outer ring 51 is a straight outer ring, meaning its surface is flat. The inner wall 52 is a convex arc-shaped inner wall, meaning its convexity is directed towards the annular center of the annular air sac at the base of the penis. The reason for this convex arc-shaped inner wall is that the annular air sac at the base of the penis is fixed in position and the arc-shaped inner wall is more susceptible to changes in the expansion of the penis root.

[0050] The inner wall 42 and outer ring 41 of the glans annular air sac 4 form the internal space of the glans annular air sac; the outer ring 41 of the glans annular air sac is also a straight outer ring; the inner wall 42 of the glans annular air sac is an outwardly convex elliptical inner wall, the outward convexity meaning that the direction of the convexity is the direction of the annular center of the glans annular air sac 4; the upper and lower ends of the elliptical inner wall are arc surfaces, and the middle is a straight surface; the reason for designing the outwardly convex elliptical inner wall is that everyone's penis length, glans erection swelling degree, etc. are different, and the structure with arc surfaces at the upper and lower ends and a straight surface in the middle can ensure the monitoring range.

[0051] Both the penile root ring-shaped airbag 5 and the glans ring-shaped airbag 4 are equipped with air guide holes 6. The air guide holes 6 are connected to a pressure sensor via a tube. A conventional digital pressure sensor can be used. The air guide holes 6 can also be used to inflate the airbags.

[0052] In this embodiment of the invention, the following is used: Figure 3 The airbag monitoring structure shown is used in devices for monitoring male sexual function and controlling behavioral training. Its principle and working process are explained in detail below:

[0053] I. Basic Data Acquisition in Embodiments of the Invention:

[0054] 1. The ring-shaped airbag 5 at the base of the penis and the corresponding air pressure sensor in the airbag monitoring structure can record in real time the pressure changes caused by the swelling of the penis due to the engorgement of the corpora cavernosa at the base of the penis during the penile behavior training process. The real-time monitoring value of the penile root sensor is recorded as cP.

[0055] 2. The annular airbag 4 for monitoring the glans penis and the corresponding air pressure sensor in the airbag monitoring structure can record in real time the pressure changes caused by the swelling of the glans penis due to the engorgement of the corpus spongiosum during behavioral training. The real-time monitoring value of the glans penis sensor is recorded as uP.

[0056] 3. During the repeated insertion and withdrawal of the penis in behavioral training, numerical curves of sensor pressure fluctuations can be obtained, showing peak values ​​P. max And the trough value P min (For the air pressure sensor at the base of the penis, it is the peak value cP) max And trough value cP min For the pressure sensor on the glans penis, the peak value is uP. max And the trough value uP min ;

[0057] 4. The sensor acquires values ​​with a minimum unit time T0. Based on the number of values ​​within the calculation interval, the corresponding interval time value T can be calculated. x ;

[0058] 5. The basic value of the sensor under no external force is recorded as P0, which is also the initial air pressure value of the airbag; cP0 is the initial air pressure value of the annular airbag at the base of the penis; uP0 is the initial air pressure value of the annular airbag at the glans.

[0059] 6. cR0 is the inner diameter of the annular air sac at the base of the penis; cR1 is the outer diameter of the annular air sac at the base of the penis; uR0 is the inner diameter of the annular air sac on the glans penis; uR1 is the outer diameter of the annular air sac on the glans penis.

[0060] 7. During training, the trainee's level of sexual arousal will continuously increase with the thrusting movements and the methods used to enhance sexual arousal, and will also decrease with the progress of ejaculation control. Therefore, the level of sexual arousal is a dynamic cumulative value; in this algorithm, the trainee's current level of sexual arousal is evaluated, and its value is denoted as Ls.

[0061] II. Calculation of thrusting motion:

[0062] 1. Number of insertions: Each insertion compresses the air bladder, increasing the pressure on the pressure sensor. After withdrawal, the pressure decreases back to its initial value. Therefore, each pressure spike in the pressure sensor data represents one insertion. The effective spikes P within the recorded data range are then analyzed. max The number of times (using Q(P)) max () represents the number of insertions within a range, denoted as F, F=Q(P) max );

[0063] 2. Insertion / Retraction Time: Each time the barometric pressure sensor acquires a value, there is a minimum unit time T0. Based on the number of values ​​Q within the interval, the corresponding interval time value T can be calculated. x =T0×Q;

[0064] 3. Insertion Frequency: Insertion frequency measures the speed of thrusting, and is equal to the total number of insertions per unit time. The faster the insertion speed, the higher the level of sexual arousal. Its value is denoted as RF, then RF = F x / T x F x For T x The number of insertions within the interval.

[0065] III. Calculation of ejaculation latency period:

[0066] The ejaculation latency period includes two values: ejaculation latency time and the number of ejaculation latencies.

[0067] When sexual arousal builds to its peak, culminating in orgasm, ejaculation occurs. At this moment, the glans penis reaches its maximum swelling level, and the pressure readings on the glans penis sensor reach μP. max Simultaneously, under the intense contraction of the bulbospongiosus and ischiocavernosus muscles, the penis and glans penis will experience small-amplitude twitching swelling, which is reflected in the numerical curve, uP max The value will fluctuate slightly, which can be used to accurately identify the timing of ejaculation.

[0068] 1. Ejaculation latency time: Based on the pressure value uP of the head sensor caused by the maximum swelling of the glans penis. max Ejaculation time point T 射精 Subtract the first insertion time point T 插入 This allows us to determine the total ejaculation latency time during training, denoted as IELT = T. 射精 -T 插入 .

[0069] 2. Number of ejaculation latency periods: Calculate the first time point T. 插入 and ejaculation time T 射精 By counting the number of peaks recorded by the sensor at the base of the penis, the total number of insertions during the period from penetration to ejaculation can be calculated. The ejaculatory latency count is denoted as IELTF, where IELTF = Q(T). 射精 -T 插入 Q represents the insertion count.

[0070] IELT and IELTF, two important indicators for measuring the diagnostic criteria of premature ejaculation, will become scientific, accurate, and quantitative evaluation indicators for training effectiveness.

[0071] IV. Calculation of penile and glans erection degree (De):

[0072] The degree of swelling (De) measures the percentage increase in the diameter of the penis or glans penis after erection compared to the flaccid diameter. De = (Erected diameter / Flint-free diameter) - 1. Therefore, the formulas for the penile and glans penis swelling values ​​are:

[0073] ; ;

[0074] Because the penis is highly elastic when flaccid, its diameter cannot be accurately obtained. In this system, the diameter of the aforementioned airbag monitoring structure is used as a basic reference value, i.e., De = (diameter after erection R) / (diameter of airbag monitoring structure R). 通道 -1;

[0075] After penile insertion, the pressure on the air bladder causes deformation of the inner ring, resulting in a change in gas pressure inside the bladder. The relationship between gas pressure and volume is expressed by the formula pV=nRT, where V is volume, p is pressure, T is temperature, n is the amount of substance, and R represents the gas constant. Since the gas is sealed inside the air bladder, the temperature remains almost constant during training; therefore, n, P, and T can be considered constants.

[0076] Both the base and head air sacs are annular. The inner ring is elastic, serving as a channel to accommodate penile insertion, while the outer ring is rigid, limiting the air sac's deformation. Given an inner ring diameter of R0, an outer ring diameter of R1, an air sac length of B, and an initial air pressure of P0, the annular area of ​​the air sac's cross-section is ΠR1. 2 / 4-ΠR0 2 / 4; If the cross-section of the penis is considered as a circle with diameter R, then the cross-sectional area is ΠR. 2 / 4; then the part of the penis diameter larger than the airbag diameter that deforms when the airbag is compressed is the portion with an area of ​​ΠR. 2 / 4-ΠR0 2 / 4; The length of the airbag section is also B, and the pressure value of the air pressure sensor after insertion is P. r ,but: The derivation yields: Based on this, the diameter of the penis after erection and expansion during training can be calculated: The circumference can be obtained from the diameter.

[0077] Based on the above, the formula for calculating the degree of expansion can be obtained: ;

[0078] As can be seen from the formula above, the pressure value P of the air pressure sensor is recorded after penile insertion. r This allows for the calculation of the degree of swelling of the penis or glans; and P r The larger the value, the greater the degree of expansion (De); when P r A value equal to P0 indicates no degree of expansion. The validity of the De value requires that the diameter R of the penis after expansion be between R0 and R1.

[0079] V. The relationship between penile swelling and sexual arousal:

[0080] During male sexual arousal, the corpora cavernosa of the penis swell and become engorged with blood, resulting in a significant increase in both the diameter and length of the penis. The increase in diameter in the lower half of the penis indicates the degree of blood engorgement in the corpora cavernosa. Therefore, it can be considered that the degree of penile swelling is positively correlated with the level of sexual arousal.

[0081] Under the constraint of the tough tunica albuginea of ​​the corpora cavernosa, the penis reaches its maximum expansion when the internal pressure reaches 100 mmHg. Due to the venous occlusion mechanism of the corpora cavernosa, it will stop expanding and maintain a firm erection for a relatively long time, at which point the rigidity level is 4. At this point, the peak value of the sensor pressure will remain stable, without significant increase or decrease; this pressure value is recorded as cP. max ;

[0082] The glans penis is the enlarged structure of the corpus spongiosum at the head of the penis. During male sexual arousal, the corpus spongiosum also becomes engorged with blood and expands, significantly increasing the diameter and length of the glans penis, and the peak value of the penile glans pressure sensor (uP) gradually increases. Because the corpus spongiosum lacks a strong tunica albuginea to restrain it and a venous closure mechanism, the degree of glans penis expansion is greater when the level of sexual arousal is high, and less when the length of sexual arousal is low. Therefore, it can be considered that the degree of glans penis expansion is positively correlated with the length of sexual arousal.

[0083] During male ejaculation, the glans penis reaches its maximum swelling level; the pressure value at this point is recorded as uP. max .

[0084] Based on the formula for the degree of swelling mentioned above, the calculation methods for the penile swelling degree value and the glans swelling degree value can be obtained as follows:

[0085] ;

[0086] ;

[0087] Wherein, cDe is the penile swelling degree value; uDe is the glans swelling degree value; cP is the sensor value at the base of the penis; uP is the sensor value at the glans; cR0 is the inner diameter of the annular air sac at the base of the penis; cR1 is the outer diameter of the annular air sac at the base of the penis; cP0 is the initial air pressure value of the annular air sac at the base of the penis; uR0 is the inner diameter of the annular air sac at the glans; uR1 is the outer diameter of the annular air sac at the glans; uP0 is the initial air pressure value of the annular air sac at the glans.

[0088] cDe and uDe are positively correlated with the level of sexual arousal.

[0089] VI. The relationship between thrusting motions and the level of sexual arousal:

[0090] The number of insertions (F-value) is positively correlated with the level of sexual arousal (Ls-value); the Ls-value will increase with each additional insertion.

[0091] The more times a person thrusts in and out per unit of time, i.e., the faster the frequency RF, the faster the sexual arousal value Ls increases.

[0092] VII. Other behaviors that increase sexual arousal:

[0093] In real intercourse or sexual behavior training, in addition to the increased sexual arousal brought about by the thrusting motion, additional ways to enhance sexual arousal can be provided, such as vibration, negative pressure suction, mechanical reciprocating friction of the cup, mechanical rotational friction, and electrical pulses. The intensity of the enhancement is positively correlated with the intensity and duration of the aforementioned enhancement behaviors.

[0094] At the same time, playing pictures, videos, or sounds to trainees also enhances sexual arousal through the brain. Therefore, behaviors that enhance sexual arousal also include enhancing sexual arousal through visual, auditory, and interactive means.

[0095] The intensity of the increase in sexual arousal is set as S. 提升 Then the increase of Ls per unit time is related to S 提升 Positive correlation.

[0096] Based on the different types of feelings associated with different uplifting behaviors, different types of uplifting behaviors can also be artificially defined as S. 提升 Numerical value.

[0097] VIII. The Relationship Between Methods of Ejaculation Control and the Level of Sexual Arousal:

[0098] The duration of the pause is negatively correlated with the level of sexual arousal (Ls value). The decrease in Ls value caused by controlled ejaculation per unit time is denoted as T. 停顿 .

[0099] Methods of controlling ejaculation include the squeezing method, breathing regulation method, and attention diversion method. The squeezing method sends signals to the penis by squeezing the dorsal and ventral frenulum of the glans, thereby reducing sexual arousal. The breathing regulation method involves using deep breathing when arousal is high to reduce the excitability of the central nervous system, which causes accelerated heart rate and nervous tension. Attention diversion involves directing the trainee to observe other non-sexually related objects to distract the highly tense and focused nerve attention during sexual activity, thereby reducing the level of sexual arousal in the brain.

[0100] The above-mentioned methods of controlling ejaculation can effectively reduce the sexual arousal level value Ls, and there is a negative correlation between the implementation of ejaculation control and the Ls value. The reduction in sexual arousal caused by implementing ejaculation control methods per unit time is denoted as F. 控精 .

[0101] IX. Calculation of Sexual Arousal Level:

[0102] In summary, the sexual arousal value Ls is directly correlated with the degree of glans swelling (uDe) and the degree of penile swelling (cDe), and the change in the sexual arousal value Ls is based on the previous unit of Ls. t Based on the value, Ls t The initial value Ls0 is determined by the glans swelling value uDe and the penile swelling value cDe obtained by the air pressure sensor during the first insertion.

[0103] The subsequent sexual arousal level value Ls needs to be compared with the changes in the glans swelling degree uDe and penile swelling degree cDe values ​​△uDe and △cDe compared with the previous unit of time.

[0104] In addition, the change in the sexual arousal level value Ls is related to the number of penetrations F and the intensity of the increase in sexual arousal value S. 提升 These parameters are positively correlated with the control pause T. 停顿 Implement other methods of sperm control F 控精 It is negatively correlated; if the intervention had not been taken at the time, it would have had no effect on the Ls value.

[0105] Multiplying different positive and negative correlation parameters by their importance coefficients yields the following formula for measuring sexual arousal level Ls per unit time.

[0106] Ls = Ls t +a×△uDe+b×△cDe+c×F+d×S 提升 -e×T 停顿 -f×F 控精 ;

[0107] Ls0 = a×uDe0+b×cDe0;

[0108] In the formula, uDe0 represents the degree of glans swelling at initial insertion; cDe0 represents the degree of penile swelling at initial insertion; the coefficients a, b, c, d, e, and f of each parameter can be determined through extensive data experiments and continuously optimized based on feedback from trainees. Figure 2 The diagram shown illustrates the change in the Ls value of sexual arousal level under sexual behavior training control according to an embodiment of the present invention.

[0109] Additionally, S in the formula 提升 This includes the intensity of increase from a single behavior that enhances sexual arousal, or the intensity of increase from a combination of multiple behaviors; wherein the behaviors that enhance sexual arousal can be vibration, negative pressure attraction, friction, electrical pulses, temperature changes, visual, auditory, interactive, etc.; the F 控精 The reduction in sexual arousal level per unit time achieved by implementing a single ejaculation control method or the combined reduction in sexual arousal level per unit time achieved by implementing multiple ejaculation control methods, where the ejaculation control method can be the squeezing method, breathing regulation method, attention diversion method, etc.

[0110] Specifically, when the sexual arousal level (Ls) is low, it can be increased over a period of time through stronger and longer vibrations, negative pressure suction, friction, electrical pulses, or by regulating visual, auditory, and interactive outputs. 提升The numerical value, and interventions in patient behavior through graphic prompts, voice interaction, etc., guiding patients to lower T values ​​through methods such as the stop-start maneuver, the squeeze maneuver, breathing regulation, and attention diversion. 停顿 or F 控精 The value of Ls is used to increase the level of sexual arousal.

[0111] When the sexual arousal level (Ls) is high, it can be reduced by outputting less, weaker, and shorter durations of vibration, negative pressure suction, friction, electrical pulses, or by decreasing or even completely stopping visual, auditory, and interactive outputs. 提升 The numerical values, and interventions in patient behavior through graphic prompts, voice interaction, etc., guiding patients to improve T through methods such as the stop-start maneuver, squeeze maneuver, breathing regulation maneuver, and attention diversion. 停顿 or F 控精 The value is used to reduce the sexual arousal level Ls.

[0112] By adjusting the parameters using the methods described above, the Ls value can be effectively maintained at Ls. 下限 To Ls 临界点 Interval.

[0113] Ls 下限 To Ls 临界点 The explanation is as follows: Through repeated training, the point at which irreversible ejaculation occurs, and the ejaculation time cannot be delayed by ejaculation control methods, is identified and defined as the ejaculation threshold. The value of Ls at this point is recorded as Ls. 临界点 During training, timely ejaculation control is used to prevent sexual arousal from reaching Ls. 临界点 .

[0114] Training will begin until the penis reaches its maximum erection (cP). max The level of sexual arousal in a state is defined as Ls. 下限 During training, the level of sexual arousal is generally maintained at Ls. 下限 To Ls 临界点 This allows trainees to maintain sufficient erectile arousal without ejaculating, enabling them to perform delayed ejaculation and erectile function training, thereby improving sexual performance.

[0115] 10. This invention sets a training time target (TT) for multiple training sessions within a cycle based on the trainee's initial LELT (ejaculation latency time). Each training time target increases by a certain percentage compared to the previous one, and is adjusted based on the actual ejaculation latency time (IELT) in the previous training session. The aim is to achieve a predetermined maximum value (TT) through gradual training. max .

[0116] Based on each goal, a planned curve for the level of sexual arousal (Ls) is set, and the mode and intensity of improvement are planned in sequence. Then, adjustments and controls are made according to the actual level of sexual arousal (Ls) of the trainee during training, and interactive guidance is provided to the trainee's self-regulation methods so that the actual Ls is controlled to approach the target Ls value, and finally the training time target (TT) of each training session is achieved, thereby continuously improving the trainee's ejaculation latency time.

[0117] This invention also provides training plan control in its embodiments:

[0118] The training plan includes the target duration of each training session, the planning of the sexual arousal level curve, and a gradual, multi-stage training process.

[0119] The training program aims to help trainees maintain a sufficiently long ejaculation latency time (IELT), a sufficient number of ejaculation latency times (IELTF), and a sufficiently long erection duration. Through the aforementioned mechanism of regulating sexual arousal levels (Ls), this system can effectively intervene to achieve the goal of regulating ejaculation latency time and erection duration. Furthermore, this effect can be quantitatively assessed using data recorded by the program each time.

[0120] Meanwhile, during training, feedback through charts, adjustment of ejaculation control methods, and interactive methods such as text, images, and voice help trainees become familiar with and master the ejaculation control methods used in the training. Through repeated and gradual training, trainees can master the ejaculation control methods themselves, gradually helping the penis and brain adapt, increasing tolerance, and ultimately raising the ejaculation threshold of the trainee's brain to achieve the goal of treating premature ejaculation and other ejaculation disorders.

[0121] At the same time, during training, by maintaining an effective erection for a sufficient period of time, the penile blood vessels remain dilated and congested, achieving a greater degree of expansion, thereby delivering more nutrients to the penis, glans, and corpora cavernosa, improving the penile microvascular environment, enhancing penile and vascular vitality, and treating erectile dysfunction.

[0122] At the same time, during training, the duration of effective arousal is prolonged, thereby improving the trainee's sexual desire and treating sexual dysfunctions such as low libido.

[0123] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A male sexual function monitoring and behavioral training control system, characterized in that, include: Ejaculation latency calculation module: Monitors the pressure values ​​at the base of the penis and glans during sexual function training, and calculates the ejaculation time point T. 射精 The first insertion point T 插入 And ejaculation latency time (IELT) and ejaculation latency number (IELTF); Penis swelling degree calculation module: Real-time calculation of the penile swelling degree value cDe and the change value △cDe from the previous unit of time in the current unit of time during sexual function behavior training, and the glans swelling degree value uDe and the change value △uDe from the previous unit of time; The sexual arousal level calculation and control module calculates the sexual arousal level value Ls in real time during sexual function behavior training. The calculation method is: Ls = Ls t +a×△uDe+b×△cDe+c×F+d×S 提升 -e×T 停顿 -f×F 控精 ; Where: F is the number of thrusts; S 提升 T is a numerical value representing the intensity of increased sexual arousal. 停顿 To control the duration of the pause in ejaculation; F 控精 The reduction in the level of sexual arousal Ls per unit time resulting from implementing other ejaculation control methods; a, b, c, d, e, and f are coefficients; Ls t The value of sexual arousal in the previous unit of time, where t represents the previous unit of time; The initial unit time t=0 at the initial insertion; then the sexual arousal level value Ls0= a×uDe0+b×cDe0; uDe0 is the glans swelling value at the initial insertion; cDe0 is the penile swelling value at the initial insertion; Control module: Controls the value of Ls to decrease or increase it, thereby prolonging the ejaculation time point T. 射精 Ejaculation latency time (IELT) and ejaculation latency frequency (IELTF) are controlled; the control includes S 提升 T 停顿 F 控精 One or more of them may be adjusted; The formulas for the penile swelling degree value and the glans swelling degree value in the penile swelling degree calculation module are as follows: ； ； S in the sexual arousal level calculation and control module 提升 The acquisition of numerical values ​​includes: defining different types of S values ​​for different types of enhancement behaviors based on the different perceptual experiences associated with those behaviors. 提升 Numerical value.

2. The male sexual function monitoring and behavioral training control system according to claim 1, characterized in that, The penile swelling degree calculation module includes an airbag monitoring submodule. This submodule employs a monitoring structure combining a ring-shaped airbag and sensors to monitor the pressure values ​​at the base of the penis and the glans penis in real time during sexual function training. The formulas for calculating the penile swelling degree and the glans penis swelling degree are as follows: ； ； Wherein, cDe is the penile swelling degree value; uDe is the glans swelling degree value; cP is the value of the sensor at the base of the penis; uP is the value of the sensor at the glans; cR0 is the inner diameter of the annular air sac at the base of the penis; cR1 is the outer diameter of the annular air sac at the base of the penis; cP0 is the initial air pressure value of the annular air sac at the base of the penis; uR0 is the inner diameter of the annular air sac at the glans; uR1 is the outer diameter of the annular air sac at the glans; uP0 is the initial air pressure value of the annular air sac at the glans.

3. The male sexual function monitoring and behavioral training control system according to claim 1, characterized in that, In the sexual arousal level calculation and control module, the number of thrusts F is calculated as follows: a numerical curve is generated using the values ​​from the penile root sensor, and the number of peak values ​​of the numerical curve is taken as the number of thrusts F.

4. The male sexual function monitoring and behavioral training control system according to claim 1, characterized in that, In the sexual arousal level calculation and control module, the S 提升 This includes the intensity of increase from a single behavior that enhances sexual arousal, or the intensity of increase from a combination of multiple behaviors that enhance sexual arousal; the F 控精 The reduction in sexual arousal level per unit time resulting from implementing one method of ejaculation control, or the combined reduction in sexual arousal level per unit time resulting from implementing multiple methods of ejaculation control.

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