Ai intelligent adjustment system and method for alleviating psychogenic frequent urination
Patent Information
- Application Number
- TW114113284
- Authority / Receiving Office
- TW · TW
- Patent Type
- Applications
- Current Assignee / Owner
- Filing Date
- 2025-04-09
- Publication Date
- 2026-10-16
- Estimated Expiration
- 2045-04-08
AI Technical Summary
Current technologies lack effective electronic devices for alleviating psychogenic frequent urination, which is often triggered by stress or anxiety, and there is a need for a more targeted approach beyond lifestyle adjustments.
An AI-powered intelligent regulation system comprising smart glasses, Bluetooth headphones, smart bracelets, smart masks, and flexible physiological stimulators that utilize physiological signal acquisition and bilateral stimulation to divert attention and relax the nervous system, including pulsed light, audio signals, and electrical nerve stimulation.
The system effectively alleviates psychogenic frequent urination by diverting attention from bladder signals and relaxing the nervous system, providing a more effective alternative to traditional stress management methods.
Smart Images
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Abstract
Description
Technical Field
[0001] This invention relates to a regulation system, and more particularly to an AI-powered intelligent regulation system and method for relieving psychogenic urinary frequency. Prior Technology
[0002] Psychogenic frequent urination is most commonly caused by stress or chronic pressure. The urge to urinate is immediate, with each urination producing only about 100 to 200 milliliters, and no organ dysfunction is present. This type of psychogenic frequent urination can be improved by training to hold urine and adjusting lifestyle habits. The main cause of psychogenic frequent urination is parasympathetic hyperactivity, leading to involuntary bladder contractions. The bladder has sensory and motor nerves. If the sensory nerves react too strongly, even a small sensory signal will be transmitted to the brain or spinal cord, instructing the bladder to contract. The motor nerves control bladder muscle contraction; if they are too sensitive, frequent urination is also likely. For example, starting a new job or giving a first-time presentation can cause anxiety and a strong urge to urinate. When diagnosed with psychogenic frequent urination, medication is not necessary because it is caused by psychological factors. Addressing the source of stress and trying to distract the brain from the urge to urinate can help. Research suggests that this type of frequent urination may be curable. However, there is currently a lack of research on using electronic devices to improve psychogenic frequent urination. Summary of the Invention
[0003] The technical problem to be solved by the present invention is to provide an AI intelligent regulation system and method for relieving psychogenic frequent urination, which effectively relieves the user's psychogenic frequent urination, in order to address the shortcomings of the prior art.
[0004] To address the aforementioned technical problems, one technical solution adopted by this invention is to provide an AI-powered intelligent regulation system for alleviating psychogenic urinary frequency. The AI-powered intelligent regulation system includes smart glasses, Bluetooth headphones, and an electronic device. The electronic device is connected to the smart glasses and the Bluetooth headphones. The smart glasses are configured to acquire the user's forehead temperature signal and to transmit pulsed light signals to the user's eyes. The Bluetooth headphones are configured to transmit audio signals to the user's ears. The electronic device is configured to control the smart glasses to acquire the forehead temperature signal within a first-time range and to control the smart glasses to transmit pulsed light signals with a specific wavelength to the user's eyes. The electronic device is also configured to control the Bluetooth headphones to transmit audio signals to the user's ears.
[0005] In one embodiment of the present invention, the AI intelligent adjustment system further includes a smart bracelet. The smart bracelet includes multiple electrodes, each electrode alternately transmitting stimulation signals to the lower edge of the user's wrist. The smart bracelet is configured to acquire the user's PPG heart rate signal and HRV heart rate variability signal.
[0006] In one embodiment of the present invention, the AI intelligent adjustment system further includes a smart mask and a temperature sensor. The smart mask is configured to acquire the user's carbon dioxide concentration signal. The temperature sensor is configured to acquire the user's calf temperature signal.
[0007] In one embodiment of the present invention, the AI intelligent adjustment system further includes a flexible physiological stimulator. The flexible physiological stimulator includes a flexible electronic substrate, a microprocessor, an encoder, an electrical pulse generator, and a microelectrode array. The microprocessor, encoder, electrical pulse generator, and microelectrode array are disposed on the flexible electronic substrate. The microprocessor is electrically connected to the encoder, electrical pulse generator, and microelectrode array. The microprocessor is configured to control the encoder, electrical pulse generator, and microelectrode array to transmit electrical pulse signals to the user's sacral nerve.
[0008] In one embodiment of the invention, an electronic device is configured to control a smart bracelet to acquire the user's PPG heart rate signal and HRV heart rate variability signal. The electronic device is configured to control a smart mask to acquire the user's carbon dioxide concentration signal. The electronic device is configured to control a temperature sensor to acquire the user's calf temperature signal within a second time range. The electronic device is configured to control a flexible physiological stimulator to transmit electrical pulse signals to the user's sacral nerve.
[0009] Another technical solution adopted in this invention is to provide an AI intelligent regulation method for relieving psychogenic frequent urination, applicable to an AI intelligent regulation system for relieving psychogenic frequent urination. The AI intelligent regulation system includes smart glasses, Bluetooth headphones, and electronic devices. The AI intelligent regulation method includes: the smart glasses being configured to acquire the user's forehead temperature signal; the smart glasses being configured to transmit pulsed light signals to the user's eyes; the Bluetooth headphones being configured to transmit audio signals to the user's ears; and the electronic devices being configured to control the smart glasses to acquire the forehead temperature signal within a first time range and to control the smart glasses to transmit pulsed light signals with a specific wavelength to the user's eyes, and the electronic devices being configured to control the Bluetooth headphones to transmit audio signals to the user's ears.
[0010] In another embodiment of the present invention, the AI intelligent adjustment system further includes a smart bracelet, which includes multiple electrodes. The AI intelligent adjustment method includes: each electrode alternately transmitting stimulation signals to the lower edge of the user's wrist in a rotating manner, and the smart bracelet is configured to acquire the user's PPG heart rate signal and HRV heart rate variability signal.
[0011] In another embodiment of the present invention, the AI intelligent adjustment system further includes a smart mask and a temperature sensor. The AI intelligent adjustment method includes: configuring the smart mask to acquire a user's carbon dioxide concentration signal; and configuring the temperature sensor to acquire a user's calf temperature signal.
[0012] In another embodiment of the present invention, the AI intelligent adjustment system further includes a flexible physiological stimulator. The flexible physiological stimulator includes a flexible electronic substrate, a microprocessor, an encoder, an electrical pulse generator, and a microelectrode array. The AI intelligent adjustment method includes: the microprocessor being configured to control the encoder, electrical pulse generator, and microelectrode array to transmit electrical pulse signals to the user's sacral nerve.
[0013] In another embodiment of the invention, the electronic device is configured to control a smart bracelet to acquire the user's PPG heart rate signal and HRV heart rate variability signal. The electronic device is configured to control a smart mask to acquire the user's carbon dioxide concentration signal. The electronic device is configured to control a temperature sensor to acquire the user's calf temperature signal over a second time period. The electronic device is configured to control a flexible physiological stimulator to transmit electrical pulse signals to the user's sacral nerve.
[0014] One of the beneficial effects of this invention is that, based on the principle of bilateral stimulation, users can measure their forehead temperature while wearing smart glasses. With their eyes closed, both eyes can alternately receive pulsed light. The electrode stimulator on the smart bracelet can alternately stimulate the lower edge of both wrists, and the Bluetooth headset can send audio signals to alternately stimulate both ears. The device's app monitoring software wirelessly controls and reads forehead temperature, calf temperature, PPG heart rate, and HRV heart rate variability signals. Simultaneously, the smart mask references carbon dioxide concentration signals, providing timely instructions to the smart glasses, smart bracelet, flexible physiological stimulator, and Bluetooth headset. Finally, various combinations of these methods implement EMDR (Eye Movement Desensitization and Reprocessing) bilateral stimulation, relieving stress and improving psychogenic urinary frequency in users.
[0015] To further understand the features and technical content of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings provided are for reference and illustration only and are not intended to limit the present invention. Simple Explanation of the Diagram
[0016] Figure 1 is a block diagram of the AI intelligent regulation system for relieving psychogenic frequent urination provided by the present invention.
[0017] Figure 2 is another block diagram of the AI intelligent regulation system for relieving psychogenic frequent urination provided by the present invention.
[0018] Figure 3 is a block diagram of the flexible physiological stimulator provided by the present invention.
[0019] Figure 4 is a flowchart of the AI intelligent regulation method for relieving psychogenic frequent urination provided by the present invention. Implementation
[0020] The following specific embodiments illustrate the implementation of the "AI intelligent regulation system and method for relieving psychogenic urinary frequency" disclosed in this invention. Those skilled in the art can understand the advantages and effects of this invention from the content disclosed in this specification. This invention can be implemented or applied through other different specific embodiments, and various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the concept of this invention. Furthermore, the accompanying drawings of this invention are for simple illustrative purposes only and are not depictions of actual dimensions; this is stated beforehand. The following embodiments will further describe the relevant technical content of this invention in detail, but the disclosed content is not intended to limit the scope of protection of this invention.
[0021] It should be understood that while terms such as "first," "second," and "third" may be used in this document to describe various components or signals, these components or signals should not be limited by these terms. These terms are primarily used to distinguish one component from another, or one signal from another. Furthermore, the term "or" as used herein should, as appropriate, include any combination of one or more of the associated listed items.
[0022] Please refer to Figures 1 and 2 simultaneously. This embodiment of the invention provides an AI intelligent regulation system for alleviating psychogenic frequent urination. The AI intelligent regulation system 100 includes an electronic device 110, smart glasses 120, and Bluetooth headphones 130. The electronic device 110 is connected to the smart glasses 120 and Bluetooth headphones 130. For example, the electronic device 110 can be a smartphone, laptop, desktop computer, or tablet computer, or other electronic device with computing, storage, and communication functions, and can control the smart glasses 120 and Bluetooth headphones 130 wirelessly or via wired remote control through APP monitoring software. The smart glasses 120 is configured to acquire the user's forehead temperature signal, which can be acquired via infrared measurement. The smart glasses 120 is configured to transmit pulsed light signals to the user's eyes. The Bluetooth headphones 130 is configured to transmit audio signals to the user's ears, and the electronic device 110 is configured to control the Bluetooth headphones 130 to transmit audio signals to the user's ears. For example, the audio signal can be classical music, piano music, or crystal music; any relaxing light music is suitable. The soothing, gentle music helps the user quickly calm down and shift their attention. The electronic device 110 is configured to control the smart glasses 120 to acquire the forehead temperature signal within a specific time frame and to control the smart glasses 120 to transmit pulsed light signals with a specific wavelength to the user's eyes. For example, the electronic device 110 can control the smart glasses 120 to acquire the user's forehead temperature signal within a time frame of 1-10 minutes, and the electronic device 110 can control the smart glasses 120 to allow both eyes to alternately receive pulsed red light (e.g., wavelength 633-650 nanometers) when the eyes are closed. This application proposes that physical stimulation, sound, light, and electrical stimulation can induce kinetic arousal, stimulating the sympathetic nervous system and cerebral cortex. Utilizing the above technology, this application develops a treatment method that uses light or sound to correctly train "attention shifting and urination training." Frequent urination caused by psychological factors can be addressed by trying to shift attention, causing the brain to ignore the bladder's signals and stop constantly thinking about needing to urinate. This application designs a special smart glasses 120 and Bluetooth headphones 130 that can be activated by eye movements and auditory tones on both sides of the body. The underlying theory is that this helps to distract the brain and thus ignore and alleviate the frequent urination signals of the bladder.
[0023] In one embodiment, the AI intelligent adjustment system 200 further includes a smart bracelet 140, a smart mask 150, a temperature sensor 160, and a flexible physiological stimulator 170. The electronic device 110 can be connected to the smart glasses 120, Bluetooth headset 130, smart bracelet 140, smart mask 150, temperature sensor 160, and flexible physiological stimulator 170 via wired or wireless means. The smart bracelet 140 includes multiple electrodes, each electrode alternately transmitting stimulation signals to the lower edge of the user's wrist. The smart bracelet 140 is configured to acquire the user's PPG (photoplethysmography) heart rate signal and HRV (heart rate variability) heart rate signal.
[0024] In one embodiment, a smart mask 150 is configured to acquire the user's carbon dioxide concentration signal. A temperature sensor 160 is configured to acquire the user's calf temperature signal. This application proposes to use physiological signal AI information to identify stress sources. Acute stress can cause the autonomic nervous system to become more active. When adrenaline or stress hormones are secreted excessively, frequent urination occurs immediately, causing a sudden urge to urinate. However, once the stress subsides, the frequent urination naturally disappears. Chronic stress can slowly and imperceptibly affect the autonomic nervous system or the urinary tract nervous system, leading to hypersensitivity of the urinary tract and chronic frequent urination. The autonomic nervous system over-excitation caused by chronic stress can be detected by physiological signals such as the temperature difference between forehead and calf temperatures, HRV heart rate variability, PPG heart rate, and carbon dioxide concentration data. This application uses wearable sensors to detect physiological signals and processes the information using AI technology to generate physiological feedback, thereby identifying the causes of stress reduction and alleviating psychogenic frequent urination.
[0025] In one embodiment, electronic device 110 is configured to control smart bracelet 140 to acquire the user's PPG heart rate signal and HRV heart rate variability signal. Electronic device 110 is configured to control smart mask 150 to acquire the user's carbon dioxide concentration signal. Electronic device 110 is configured to control temperature sensor 160 to acquire the user's calf temperature signal over a second time range. For example, electronic device 110 can control temperature sensor 160 to acquire the user's calf temperature signal over a time range of 1-10 minutes, and analyze the difference between the calf temperature signal and the forehead temperature signal to analyze whether stress is causing autonomic nervous system overactivity. Furthermore, treating psychogenic frequent urination by relieving stress through bilateral alternating stimulation fundamentally addresses the issue of reducing anxiety and eliminating stress. This application proposes that bilateral stimulation of the human body can distract attention and relax the mind and body. Bilateral stimulation is stimulation (visual, auditory, or tactile) that can occur in a rhythmic left-right pattern. Studies have shown that bilateral stimulation has the following effects on most people: relaxation effect, reduced physiological urination arousal; enhanced attention flexibility (allowing thoughts to no longer linger on troubling matters); distance effect (problems appear smaller and farther away); and reduced anxiety.
[0026] In one embodiment, the electronic device 110 controls the smart glasses 120, Bluetooth headphones 130, smart bracelet 140, smart mask 150, temperature sensor 160, and flexible physiological stimulator 170, which can effectively divert the user's attention and train the urination signal. Frequent urination caused by psychological factors can be addressed by diverting attention; the orienting reflex is simply the nervous system's natural tendency to orient itself to new stimuli. Therefore, when the user's nervous system is stimulated, attention naturally shifts to a specific part of the nervous system, and anything that comes to mind is diverted to one side. The orienting response is a natural brain reaction. Triggering the brain's orienting response can be any physical or chemical stimulus, from cold and heat, sound, light, electricity to fragrance. These stimuli affect the brain, causing it to ignore or downplay the bladder's urination signal, thus preventing the user from constantly thinking about needing to urinate. Compared to simply asking patients with frequent urination to hold their urine, which only makes them more unable to hold it in, the orienting response is much more effective. In other words, the smart bracelet 140 alternately transmits stimulation signals to the lower edge of the user's wrist. The concept of orienting response through electrical stimulation originates from the natural brain response of orienting. The source of attention can be traced back to the orienting reflex, a physiological response that is innate and does not require learning. This application proposes an electrode stimulator for the smart bracelet 140 that uses electrical current to stimulate the lower edge of the user's wrist to effectively suppress the sensation of frequent urination, thereby inhibiting bladder activity.
[0027] In one embodiment, as shown in Figure 3, the flexible physiological stimulator 170 includes a flexible electronic substrate 171, a microprocessor 172, an encoder 173, an electrical pulse generator 174, a microelectrode array 175, a flexible supercapacitor 176, and a magnetic resonance coil 177. The microprocessor 172, encoder 173, electrical pulse generator 174, microelectrode 175, flexible supercapacitor 176, and magnetic resonance coil 177 are arrayed on the flexible electronic substrate 171. The microprocessor 172 is electrically connected to the encoder 173, electrical pulse generator 174, and microelectrode array 175. The magnetic resonance coil 177 can be used for wireless charging to allow the flexible supercapacitor 176 to store electrical energy, which is then supplied to the microprocessor 172, encoder 173, electrical pulse generator 174, and microelectrode array 175. The microprocessor 172 is configured to control the encoder 173, the electrical pulse generator 174, and the microelectrode array 175 to transmit electrical pulse signals to the user's sacral nerve. Furthermore, the flexible physiological stimulator 170 is made using a thin, stretchable, and transparent material. The thin, stretchable, and transparent flexible electronic substrate 171, about the size of an adhesive bandage, contains a specially designed microprocessor 172. The internal 3D circuit layout utilizes coiled and folded wires to give the patch flexibility and allow it to completely conform to the skin. The nerve modulator consists of the electrical pulse generator 174, the encoder 173, the flexible supercapacitor 176, and connecting wires. The flexible physiological stimulator 170 can send weak and gentle electrical pulse signals to the spinal nerves or peripheral nerves. The flexible physiological stimulator 170 can be directly adhered to the skin, generating nerve signal interference that affects the urination reflex, thus alleviating psychogenic urinary frequency.
[0028] In one embodiment, electronic device 110 is configured to control a flexible physiological stimulator 170 to transmit electrical pulse signals to the user's sacral nerve. Specifically, sacral nerve electrical stimulation is performed on the third sacral nerve (S3 Nerve) in the sacral foramen. S3 Nerve is a mixed nerve whose mechanism is directly through stimulation of sensory nerves and / or indirectly through contraction of the external sphincter. The sacral nerve's role in the micturition reflex is undeniably important. Sacral nerve electrical stimulation is a minimally invasive (or non-invasive physical stimulation) therapy for treating the aforementioned intractable problems. The sacral nerve has four branches originating from the sacrum of the spine. The sacrum, located at the base of the spine, is the body's first-line "urination center," controlling the coordinated operation between the bladder, urethra, and pelvic floor, and receiving control from the upper nerve centers to complete normal urine storage and urination functions. Disruption of this coordination mechanism can lead to severe urination dysfunction. Sacral nerve electrical stimulation, through electronic device 110 controlling a flexible physiological stimulator 170 to emit electrical pulse signals, integrates and coordinates functions to alleviate frequent urination. The purpose of this application is to study how to process physiological signals using AI technology and then use non-invasive physical stimulation to generate neural feedback, thereby reducing anxiety, diverting the brain's pressure on urination, and thus alleviating psychogenic frequent urination.
[0029] Please refer to Figures 1-4 simultaneously. This invention proposes an AI-powered intelligent regulation method for alleviating psychogenic frequent urination, applicable to an AI-powered intelligent regulation system for alleviating psychogenic frequent urination. The AI-powered intelligent regulation system includes smart glasses, Bluetooth headphones, and electronic devices. The AI-powered intelligent regulation method includes: S410, The smart glasses are configured to acquire the user's forehead temperature signal, and the smart glasses are configured to transmit pulsed light signals to the user's eyes; S420, a Bluetooth headset configured to transmit audio signals to the user's ears; S430: An electronic device is configured to control the smart glasses to acquire a forehead temperature signal within a first time range and to control the smart glasses to transmit a pulsed light signal with a specific wavelength to the user's eyes. The electronic device is also configured to control the Bluetooth headphones to transmit an audio signal to the user's ears.
[0030] In one embodiment, the AI intelligent adjustment system further includes a smart bracelet, which includes multiple electrodes, and the AI intelligent adjustment method includes: The smart bracelet is configured to receive the user's PPG heart rate signal and HRV heart rate variability signal by alternating stimulation signals from each electrode to the lower edge of the user's wrist.
[0031] In one embodiment, the AI intelligent adjustment system further includes a smart mask and a temperature sensor, and the AI intelligent adjustment method includes: The smart mask is configured to acquire the user's carbon dioxide concentration signal; and The temperature sensor is configured to acquire the user's calf temperature signal.
[0032] In one embodiment, the AI intelligent adjustment system further includes a flexible physiological stimulator, which comprises a flexible electronic substrate, a microprocessor, an encoder, an electrical pulse generator, and a microelectrode array. The AI intelligent adjustment method includes: The microprocessor is configured to control the encoder, electrical pulse generator, and microelectrode array to transmit electrical pulse signals to the user's sacral nerve.
[0033] In one embodiment, the electronic device is configured to control a smart bracelet to acquire the user's PPG heart rate signal and HRV heart rate variability signal; the electronic device is configured to control a smart mask to acquire the user's carbon dioxide concentration signal; the electronic device is configured to control a temperature sensor to acquire the user's calf temperature signal in a second time range; and the electronic device is configured to control a flexible physiological stimulator to emit electrical pulse signals to the user's sacral nerve.
[0034] The explanation of the content of the embodiment in Figure 4 can be referred to the explanation of the content of the embodiment in Figures 1-3, and will not be repeated here.
[0035] The content disclosed above is only a preferred and feasible embodiment of the present invention, and is not intended to limit the scope of the patent application of the present invention. Therefore, all equivalent technical changes made using the contents of the present invention specification and drawings are included in the scope of the patent application of the present invention.
[0036] 100, 200: AI Intelligent Adjustment System 110: Electronic devices 120: Smart Glasses 130: Bluetooth headphones 140: Smart Bracelet 150: Smart Mask 160: Temperature sensor 170: Soft, flexible physiological stimulator 171: Flexible electronic substrate 172: Microprocessor 173: Encoder 174: Electrical Pulse Generator 175: Microelectrode array 176: Flexible Supercapacitor 177: Magnetic Resonance Coil S410~S430: Steps
Claims
1. An AI-powered intelligent regulation system for relieving psychogenic urinary frequency, comprising: A smart pair of glasses configured to acquire a user's forehead temperature signal and to transmit a pulsed light signal to the user's eyes; a Bluetooth headset configured to transmit an audio signal to the user's ears; and an electronic device connected to the smart glasses and the Bluetooth headset, the electronic device being configured to control the smart glasses to acquire the forehead temperature signal within a first time range and to control the smart glasses to transmit the pulsed light signal with a specific wavelength to the user's eyes, and the electronic device being configured to control the Bluetooth headset to transmit the audio signal to the user's ears.
2. The AI intelligent adjustment system as described in claim 1 further includes: A smart bracelet includes multiple electrodes, each of which alternately transmits a stimulation signal to the lower edge of the user's wrist. The smart bracelet is configured to acquire a PPG heart rate signal and a HRV heart rate variability signal from the user.
3. The AI intelligent adjustment system as described in claim 2 further includes: A smart mask configured to detect the user's carbon dioxide concentration. And a temperature sensor configured to acquire the temperature signal of the user's calf.
4. The AI intelligent adjustment system as described in claim 3 further includes: A flexible physiological stimulator includes: a flexible electronic substrate; a microprocessor; an encoder; an electrical pulse generator; and a microelectrode array. The microprocessor, the encoder, the electrical pulse generator, and the microelectrode array are disposed on the flexible electronic substrate. The microprocessor is electrically connected to the encoder, the electrical pulse generator, and the microelectrode array. The microprocessor is configured to control the encoder, the electrical pulse generator, and the microelectrode array to transmit an electrical pulse signal to the user's sacral nerve.
5. The AI intelligent adjustment system as described in claim 4, wherein, The electronic device is configured to control the smart bracelet to acquire the user's PPG heart rate signal and HRV heart rate variability signal; the electronic device is configured to control the smart mask to acquire the user's carbon dioxide concentration signal; the electronic device is configured to control the temperature sensor to acquire the user's calf temperature signal within a second time range; and the electronic device is configured to control the flexible physiological stimulator to emit electrical pulse signals to the user's sacral nerve.
6. An AI-powered intelligent regulation method for alleviating psychogenic frequent urination, applicable to an AI-powered intelligent regulation system for alleviating psychogenic frequent urination, the AI-powered intelligent regulation system comprising smart glasses, a Bluetooth headset, and an electronic device, the AI-powered intelligent regulation method comprising: The smart glasses are configured to acquire a user's forehead temperature signal and to transmit a pulsed light signal to the user's eyes. The Bluetooth headset is configured to transmit an audio signal to the user's ears; the electronic device is configured to control the smart glasses to acquire the forehead temperature signal within a first time range and to control the smart glasses to transmit the pulsed light signal with a specific wavelength to the user's eyes; the electronic device is configured to control the Bluetooth headset to transmit the audio signal to the user's ears.
7. The AI intelligent adjustment method as described in claim 6, wherein the AI intelligent adjustment system further includes a smart bracelet, the smart bracelet including multiple electrodes, and the AI intelligent adjustment method includes: Each electrode alternately transmits a stimulation signal to the lower edge of the user's wrist, and the smart bracelet is configured to acquire the user's PPG heart rate signal and HRV heart rate variability signal.
8. The AI intelligent adjustment method as described in claim 7, the AI intelligent adjustment system further comprising a smart mask and a temperature sensor, the AI intelligent adjustment method comprising: The smart mask is configured to acquire the user's carbon dioxide concentration signal; And the temperature sensor is configured to obtain the temperature signal of the user's lower leg.
9. The AI intelligent adjustment method as described in claim 8, wherein the AI intelligent adjustment system further includes a flexible physiological stimulator, the flexible physiological stimulator including a flexible electronic substrate, a microprocessor, an encoder, an electrical pulse generator, and a microelectrode array, and the AI intelligent adjustment method includes: The microprocessor is configured to control the encoder, the electrical pulse generator, and the microelectrode array to transmit an electrical pulse signal to the user's sacral nerve.
10. The AI intelligent adjustment method as described in claim 9, wherein, The electronic device is configured to control the smart bracelet to acquire the user's PPG heart rate signal and HRV heart rate variability signal; the electronic device is configured to control the smart mask to acquire the user's carbon dioxide concentration signal; the electronic device is configured to control the temperature sensor to acquire the user's calf temperature signal within a second time range; and the electronic device is configured to control the flexible physiological stimulator to emit electrical pulse signals to the user's sacral nerve.