Intelligent underpants

Abstract

The invention relates to the technical field of nursing underpants, and particularly discloses intelligent underpants which comprise an underpants body, a waistband is arranged on the waist of the underpants body, a power supply controller module and a drainage and cleaning mechanism are fixed on the waistband, and the cleaning mechanism is provided with a detachable upper cover A, a water storage shell and a micro pump A; the drainage mechanism comprises a detachable upper cover B, a waste liquid shell and a micro pump B. The trouser body is connected with the urethral orifice empty box, provided with a flushing hole set and connected with the micro pump A through a thin pipe set, and the catheter and the drainage thin pipe are connected with the micro pump B through connectors. According to the device, urine is actively collected through the catheter and the drainage mechanism, the female urethral orifice and anus are flushed through the combination of the cleaning mechanism and the flushing hole set, waste liquid is collected to the waste liquid shell through the water absorption layer, and urination and sanitation cleaning are achieved. The water storage shell and the waste liquid shell are of a fast detachable structure, and water supplementing and waste liquid treatment are facilitated. Electric energy of the pump body is supplied by the power supply controller module, a micro solid-state battery is selected as a battery, the energy density is high, long endurance can be provided for equipment, and stable operation of functions is guaranteed.

Description

Technical Field

[0001] The present invention relates to the technical field of nursing underwear, in particular to smart underwear. Background Art

[0002] In modern society, women's demand for personal hygiene is growing, but traditional feminine hygiene products have certain functional limitations. Traditional underwear often only provides basic coverage for daily urination and hygiene, but cannot actively collect and drain urine. When women face mobility issues, special physiological conditions (such as postpartum or postoperative), or are unable to use the toilet for extended periods, timely urine disposal becomes a major challenge, easily leading to discomfort and even hygiene issues. Furthermore, traditional methods for cleaning the female urethra and anus often rely on manual washing, which is not only inconvenient but also difficult to achieve timely and effective cleaning in certain situations, increasing the risk of bacterial infection. While some existing nursing devices have urine collection or cleaning functions, their structural design is not sound, and the water storage and waste collection devices are difficult to remove, making refilling clean water and waste disposal cumbersome, impacting the user experience. Given this current situation, the development of smart women's underwear that can actively collect and drain urine, effectively flush the female urethra and anus, and offer convenient operation and long battery life is of great practical significance. Summary of the Invention

[0003] In response to the above technical problems in the related art, the present invention provides smart underwear that can solve the above problems.

[0004] To achieve the above technical objectives, the technical solution of the present invention is implemented as follows: The smart underwear includes a trouser body, a waistband, and a mecha belt arranged on the outside of the waistband. A power controller module, a drainage mechanism, and a cleaning mechanism are fixedly arranged on the outside of the mecha belt. The cleaning mechanism includes a detachable upper cover A, a water storage shell, and a micro pump A. The drainage mechanism includes a detachable upper cover B, a waste liquid shell, and a micro pump B. An empty box is attached to the urethral opening of the trouser body. A flushing hole group A and a flushing hole group B are opened on the surface of the empty box. A thin tube group connected to the flushing hole group A and the flushing hole group B is provided on the top of the empty box. The input ends of the thin tube groups are connected to the output ends of the connector. The connector is connected to the micro pump A through two water inlet pipes. A urinary catheter is provided on the surface of the empty box. The bottom of the empty box is connected to the drainage connector through several drainage thin tubes. The drainage connector is connected to the micro pump B through the drainage tube.

[0005] Furthermore, the power controller module includes a micro solid-state battery, a switch module, a Bluetooth module and a micro controller, and the micro solid-state battery is a lithium ceramic battery.

[0006] Furthermore, a water absorbing layer is provided on the surface of the hollow box, and an independent waste liquid storage bin is provided at the bottom of the water absorbing layer. The independent waste liquid storage bin is connected to the drainage joint through a drainage capillary.

[0007] Furthermore, both the upper cover A and the upper cover B are provided with matching holes, and the tops of the water storage shell and the waste liquid shell are integrally formed with plug rods that are interference-fitted with the matching holes.

[0008] Furthermore, the water pumping end of the micro pump A is connected and installed with a U-shaped water pumping pipe, which passes through the water storage shell and extends to the inside of the water storage shell. The water delivery end of the micro pump A is connected and installed with a U-shaped water delivery pipe. The two pipe heads of the U-shaped water delivery pipe are fixed with cleaning joints, and the two water inlet pipes are respectively connected to the two cleaning joints.

[0009] Furthermore, the urinary catheter is a hydrogel ring tube connected to the urethra opening.

[0010] Furthermore, the flushing hole group A is distributed above the urinary catheter, and the flushing hole group B is distributed below the water absorption layer.

[0011] Furthermore, the outer periphery of the hollow box is integrally formed with a convex sealing edge.

[0012] Beneficial effects of the present invention: The device of the present application adopts a urinary catheter and a drainage mechanism, which can actively collect and discharge urine. Combined with the cleaning mechanism and the flushing hole group, it can flush the female urethra and anus. The waste liquid is uniformly collected and transported to the waste liquid housing through the water absorption layer, thereby realizing the functions of urination and sanitary cleaning. The water storage shell and waste liquid shell both adopt a quick detachable structure, which is convenient for timely replenishment of clean water and disposal of waste liquid, ensuring the normal operation of urination and sanitary cleaning functions; The power for the pump body is provided by the power controller module. The battery uses a micro solid-state battery with high energy density, ensuring a long battery life. BRIEF DESCRIPTION OF THE DRAWINGS

[0013] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0014] The present invention will be described in further detail below with reference to the accompanying drawings.

[0015] Figure 1 This is a schematic diagram of the structure of smart underwear; Figure 2 It is a structural diagram of an empty box; Figure 3 This is a schematic diagram of the structure on the back of the mecha belt; Figure 4 is a cross-sectional view of the cleaning mechanism; Figure 5 It is a cross-sectional view of the discharge mechanism.

[0016] In the picture: 1. Trouser body; 2. Mecha belt; 3. Trouser waist; 4. Hollow box; 401. Catheter; 402. Convex sealing edge; 403. Water absorption layer; 5. Water inlet pipe; 6. Drainage pipe; 7. Cleaning mechanism; 701. Upper cover A; 702. Water storage shell; 703. Micro pump A; 704. U-shaped water delivery pipe; 705. U-shaped water suction pipe; 706. Matching hole; 707. Insert rod; 8. Drainage mechanism; 801. Upper cover B; 802. Waste liquid shell; 803. Micro pump B; 9. Power controller module; 10. Connector; 11. Thin tube group; 1101. Flushing hole group A; 1102. Flushing hole group B; 12. Drainage connector; 1201. Thin drainage tube. DETAILED DESCRIPTION

[0017] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention are within the scope of protection of the present invention.

[0018] like Figure 1-5 As shown, according to the present invention, smart underwear is disclosed, including a pants body 1, a pants waist 3, and a mecha belt 2 arranged on the outside of the pants waist 3. The outside of the mecha belt 2 is fixedly provided with a power controller module 9, a drainage mechanism 8 and a cleaning mechanism 7. The cleaning mechanism 7 includes a detachable upper cover A701, a water storage shell 702 and a micro pump A703. The drainage mechanism 8 includes a detachable upper cover B801, a waste liquid shell 802 and a micro pump B803. The urethral opening of the pants body 1 is attached with an empty box 4, and the surface of the empty box 4 is provided with a flushing hole. Group A1101, flushing hole group B1102, the top of the empty box 4 is provided with a thin tube group 11 connected to the flushing hole group A1101 and the flushing hole group B1102, the input ends of the thin tube group 11 are connected to the output ends of the connector 10, the connector 10 is connected to the micro pump A703 through two water inlet pipes 5, the surface of the empty box 4 is connected with a urinary catheter 401, the bottom of the empty box 4 is connected to the drainage connector 12 through several drainage thin tubes 1201, and the drainage connector 12 is connected to the micro pump B803 through the drainage pipe 6.

[0019] Embodiment 1: The trouser body 1 and the waistband 3 are made of breathable antibacterial fabric (such as Lycra material containing bamboo fiber), and the mecha belt 2 is made of TPU material enhanced with high elastic additives, which can further enhance its elasticity and ensure that the belt can remain soft and fit after the components are installed to avoid oppression; the hollow box 4 is made of water-absorbing gel ring tube material, and its soft texture can reduce friction on the urethral opening and enhance tightness, thereby improving comfort; the hollow box 4 is made of silicone pad material, and a cavity is arranged inside the hollow box 4. The flushing hole group A1101 and the flushing hole group B1102 are distributed on the surface of the hollow box 4 but do not penetrate the hollow box 4. The thin tube group 11 is pre-buried in the wall thickness of the hollow box 4, and the output port of the thin tube group 11 is respectively connected to the flushing hole group A1101 and the flushing hole group B1102. The independent waste liquid storage bin provided at the bottom of the water-absorbing layer 403 is located in the inner cavity of the hollow box 4, and the independent waste liquid storage bin is connected to the drainage connector 12 using an independent drainage thin tube 1201; A thin film valve flap is provided inside the urinary catheter 401, which acts like a one-way valve. During urination, urine pushes the film valve flap to open, and it closes when there is no urine pressure, thus reducing the diversion of waste liquid. Wastewater housing 802 houses a high-precision multispectral sensor capable of detecting over ten biochemical parameters, including but not limited to urine pH, specific gravity, glucose, protein, ketone bodies, and hemoglobin concentration and white blood cell count in menstrual blood. Multispectral technology analyzes the interaction between light of different wavelengths and wastewater components to quickly and accurately acquire biochemical data.

[0020] Data collected by the sensor is transmitted in real time to the user's smartphone via a low-power Bluetooth module. Users simply install the accompanying app on their phone to view the results of various biochemical indicators at any time. The app features an intuitive data display interface, presenting test data in the form of charts, numerical values, and more, making it easy for users to understand their health status.

[0021] In addition to basic biochemical indicator monitoring, the solution also offers optional physiological data tracking. For female users, this includes tracking urination frequency, menstrual blood volume, and other data. The application records and analyzes this physiological data over time, generating trend reports to help users identify potential health issues and provide reference for doctors' diagnoses. A thermoelectric chip is installed inside the water storage housing 702, leveraging its Peltier effect to achieve rapid and precise temperature regulation. A temperature sensor monitors the water temperature in real time, providing feedback to the control system (a microcontroller connected to the power controller module 9). This dynamically adjusts the direction and magnitude of the current flowing through the thermoelectric chip to maintain a constant water temperature of 35-38°C. The thermocatalytic disinfection module, a graphene heating film with high thermal conductivity and excellent chemical stability, is also incorporated. When powered on, the graphene heating film rapidly heats up, disinfecting the water within the water storage housing and effectively killing bacteria, viruses, and other microorganisms, ensuring clean and hygienic flushing water.

[0022] In the preferred technical solution, the power controller module 9 includes a micro solid-state battery, a switch module, a Bluetooth module and a microcontroller. The micro solid-state battery is a lithium ceramic battery, which is a new energy storage solution that integrates lithium-ion technology with ceramic components. It has the advantages of high energy density, high safety, and long cycle life, providing endurance for internal electrical devices.

[0023] In the preferred technical solution, a water-absorbing layer 403 is provided on the surface of the hollow box 4, and an independent waste liquid storage tank is provided at the bottom of the water-absorbing layer 403. The independent waste liquid storage tank is connected to the drainage joint 12 through a drainage tube, which is used to guide the flushing waste liquid to be concentrated into the waste liquid shell 802.

[0024] In the preferred technical solution, both the upper cover A701 and the upper cover B801 are provided with a matching hole 706, and the top of the water storage shell 702 and the waste liquid shell 802 are integrally formed with an insertion rod 707 that is interference fit with the matching hole 706. The insertion rod 707 can cooperate with the rubber gasket to improve the tightness, thereby realizing quick disassembly and assembly of the upper cover A701 and the water storage shell 702, and the upper cover B801 and the waste liquid shell 802, while maintaining assembly stability.

[0025] In the preferred technical solution, the water pumping end of the micro pump A703 is connected and installed with a U-shaped water pumping pipe 705, and the U-shaped water pumping pipe 705 passes through the water storage shell 702 and extends to the inside of the water storage shell 702. The water delivery end of the micro pump A703 is connected and installed with a U-shaped water delivery pipe 704. The two pipe heads of the U-shaped water delivery pipe 704 are fixedly provided with cleaning joints. The two water inlet pipes 5 are respectively connected to the two cleaning joints, and water is supplied by dual pumping and dual water delivery methods to provide flushing water pressure for the flushing hole group A1101 and the flushing hole group B1102.

[0026] In the preferred technical solution, the urinary catheter 401 is a water-absorbing gel ring tube, and its soft texture can reduce friction on the urethral opening and enhance tightness, thereby improving comfort.

[0027] In the preferred technical solution, the flushing hole group A1101 is distributed above the catheter 401, and the flushing hole group B1102 is distributed below the water-absorbing layer 403. This distribution is conducive to flushing the urethra and anus.

[0028] In the preferred technical solution, a convex sealing edge 402 is integrally formed on the periphery of the hollow box 4 , which can reduce the outflow of waste liquid from the periphery of the hollow box 4 .

[0029] When in use, the catheter 401 is covered on the urethra opening, and the wearing method is the same as the ordinary method. When the patient urinates, urine passes through the catheter 401 into the empty box 4, and the micro pump B803 is started. The urine can be pumped into the waste liquid housing 802 through the drainage tube 1201, the drainage connector 12, the drainage pipe 6, and the micro pump B803 for collection. When flushing, the micro pump A703 is started, and the clean water in the water storage housing 702 passes through the U-shaped water pumping pipe 705 and the micro pump A70 3. U-shaped water pipe 704, water inlet pipe 5, connector 10, and capillary group 11 finally flow out from flushing hole group A and flushing hole group B, which can be used to clean the urethra and anus. The waste liquid generated by cleaning is sucked into the independent waste liquid storage bin through the water absorption layer 403. The independent waste liquid storage bin is connected to the drainage connector 12 through the drainage capillary. Start the micro pump B803, and the waste liquid can be pumped into the waste liquid housing 802 through the drainage capillary 1201, the drainage connector 12, the drainage pipe 6, and the micro pump B803 for collection.

[0030] 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 in the scope of protection of the present invention.

Claims

1. Smart underwear, characterized by: The invention comprises a trouser body (1), a trouser waist (3), and a mecha belt (2) arranged on the outside of the trouser waist (3); a power controller module (9), a liquid discharge mechanism (8), and a cleaning mechanism (7) are fixedly arranged on the outside of the mecha belt (2); the cleaning mechanism (7) comprises a detachable upper cover A (701), a water storage shell (702), and a micro pump A (703); the liquid discharge mechanism (8) comprises a detachable upper cover B (801), a waste liquid shell (802), and a micro pump B (803); a hollow box (4) is attached to the urethral opening of the trouser body (1); and a flushing hole group A (1101), a flushing hole group A (1102), and a flushing hole group B (1103) are provided on the surface of the hollow box (4). The flushing hole group B (1102) is provided on the top of the hollow box (4) with a thin tube group (11) connected to the flushing hole group A (1101) and the flushing hole group B (1102), the input ends of the thin tube group (11) are connected to the output end of the connector (10), the connector (10) is connected to the micro pump A (703) through two water inlet pipes (5), the surface of the hollow box (4) is connected with a urinary catheter (401), the bottom of the hollow box (4) is connected to the drainage connector (12) through a plurality of drainage thin tubes (1201), and the drainage connector (12) is connected to the micro pump B (803) through the drainage pipe (6); The surface of the hollow box (4) is provided with a water absorbing layer (403), and the bottom of the water absorbing layer (403) is provided with an independent waste liquid storage bin, and the independent waste liquid storage bin is connected to the drainage joint (12) via a drainage capillary. The upper cover A (701) and the upper cover B (801) are both provided with matching holes (706), and the tops of the water storage housing (702) and the waste liquid housing (802) are both integrally formed with an insertion rod (707) that is interference-fitted with the matching holes (706).

2. The smart underwear according to claim 1, characterized in that: The power controller module (9) comprises a micro solid-state battery, a switch module, a Bluetooth module and a micro controller, wherein the micro solid-state battery is a lithium ceramic battery.

3. The smart underwear according to claim 1, characterized in that: The water pumping end of the micro pump A (703) is connected to a U-shaped water pumping pipe (705) installed thereon. The U-shaped water pumping pipe (705) passes through the water storage shell (702) and extends into the interior of the water storage shell (702). The water delivery end of the micro pump A (703) is connected to a U-shaped water delivery pipe (704). Both ends of the U-shaped water delivery pipe (704) are fixedly provided with cleaning joints. The two water inlet pipes (5) are connected to the two cleaning joints respectively.

4. The smart underwear according to claim 1, characterized in that: The urinary catheter (401) is a hydrophilic gel ring tube.

5. The smart underwear according to claim 1, characterized in that: The flushing hole group A (1101) is distributed above the urinary catheter (401), and the flushing hole group B (1102) is distributed below the water absorption layer (403).

6. The smart underwear according to claim 1, characterized in that: The hollow box (4) is integrally formed with a convex sealing edge (402) on its periphery.

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