Intelligent monitoring method and intelligent bracelet system

Abstract

The invention discloses an intelligent monitoring method and an intelligent bracelet system. The method comprises the steps that the intelligent bracelet dynamically collects human body signs of a user through a built-in sensor, corrects errors of the human body signs and uploads the human body signs subjected to error correction to an intelligent platform, and when the intelligent bracelet monitors that the human body signs are abnormal, the intelligent platform analyzes the abnormal human body signs and determines the dosage of medicine used by the user; and the intelligent platform sends an alarm to the mobile phone terminal APP, and meanwhile, the intelligent platform remotely controls the intelligent bracelet to generate vibration to remind the user, and reminds the user of the dosage of medicine through voice. A user opens a medicine bin in the intelligent bracelet by pressing a key on the intelligent bracelet, the medicine bin is arranged in the intelligent bracelet to store medicine, and after the key is pressed, warning of a mobile phone terminal APP and vibration on the intelligent bracelet are eliminated. The user is reminded to take a certain amount of emergency medicine.

Description

Technical Field

[0001] The embodiments of the present invention relate to the technical field of smart bracelets, and in particular to a smart monitoring method and a smart bracelet system. Background Art

[0002] In recent years, the aging trend of China's population has become increasingly obvious. Many elderly people need to take a variety of different medicines. Some elderly people have poor memory and often forget to take medicine. When a sudden illness occurs, the amount of medicine taken needs to be adjusted in time. Sudden diseases always threaten the life safety of the elderly.

[0003] There are such smart bracelet products in the prior art that can record the daily activities of the elderly, manually measure blood pressure and blood sugar levels, take out corresponding medicines, and analyze the elderly's behavior through statistical calculations. When the statistical data is abnormal or the elderly have an accident, an alarm message will be immediately sent to a preset smartphone to remind the elderly's children to prevent tragedies such as delayed medical treatment.

[0004] Although smart bracelets can measure the human body and store medicines, various existing smart bracelets have varying degrees of errors in human body measurements. There is still a lack of relevant technical means to control the drug intake of the elderly.

[0005] Therefore, there is an urgent need to provide an intelligent monitoring method and design a smart bracelet system that can adjust the dosage of medication for users. Summary of the invention

[0006] In view of this, the purpose of the present invention is to provide an intelligent monitoring method and a smart bracelet system, which collect the user's vital signs, and when the human vital signs are abnormal, a certain amount of medicine is configured for the user, and a reminder is issued to respond to emergencies and provide first aid.

[0007] In a first aspect, an embodiment of the present invention provides an intelligent monitoring method, including:

[0008] The smart bracelet dynamically collects the user's physical signs through built-in sensors, corrects errors in the physical signs, and uploads the corrected physical signs to the smart platform. The physical signs include but are not limited to: blood oxygen, heart rate, blood pressure, sleep, and blood sugar;

[0009] When the smart bracelet detects abnormal human vital signs, the smart platform analyzes the abnormal human vital signs and determines the dosage of the user's medication; and the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate and remind the user of the dosage of medication through voice.

[0010] The user opens the medicine chamber in the smart bracelet by pressing a button on the smart bracelet. The medicine chamber is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated.

[0011] Furthermore, the smart bracelet includes a main body and a ring body, the main body is provided with a button and at least one medicine chamber, the medicine chamber is used to store at least one medicine, and when the user presses the button, the medicine chamber is opened;

[0012] A weighing sensor is arranged at the bottom of the medicine bin. When an object is placed in the medicine bin, the weighing sensor monitors the weight of the object in the medicine bin in real time.

[0013] A temperature and humidity sensor and a microwave sensor are also provided inside the medicine warehouse to collect temperature and humidity information and object morphology inside the medicine warehouse;

[0014] The weighing sensor detects the mass changes of the drugs in the medicine warehouse in real time, and obtains the quantity of drugs in the medicine warehouse by combining the weighing mass of a single drug.

[0015] Furthermore, a light sensor and a color sensor are also provided in the medicine bin, and the method further includes:

[0016] The light sensor collects the light intensity in the medicine bin, and the smart bracelet determines whether the medicine bin is open or closed based on the light intensity in the medicine bin. At the same time, when the medicine bin is open, the smart bracelet controls the color sensor to identify the color of the medicine in the medicine bin, and compares the initial color of the medicine to determine whether the color of the medicine has changed. If the color of the medicine has changed, it is determined that the medicine has deteriorated;

[0017] And / or, when the temperature and humidity inside the medicine bin change, the temperature and humidity sensor detects the change of temperature and humidity before and after, and determines that the medicine is damp when the temperature and humidity inside the medicine bin exceed a preset range;

[0018] And / or, the microwave sensor transmits microwaves to the medicine bin to obtain physical information of the medicine in the medicine bin, wherein the physical information includes but is not limited to: form, shape, size, position, and according to the change of the physical information of the medicine, it is determined whether the medicine is broken or adhered;

[0019] The user will be reminded when the medicine deteriorates, gets damp, cracked or sticks.

[0020] Furthermore, the main body is also provided with a camera, and the method further comprises:

[0021] The QR code or barcode of the drug is identified by a camera to obtain drug information and upload the drug information to the intelligent platform. The drug information includes but is not limited to: drug name, dosage form, specification, manufacturer, production date, production batch number, and expiration date;

[0022] After receiving the drug information, the intelligent platform searches based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user. The daily medication plan includes but is not limited to: medication time, medication frequency and medication dosage.

[0023] Furthermore, before correcting the error of the human body sign, the following operations are performed:

[0024] In the same time period, a medical instrument and a smart bracelet are used to collect user human feature data sets respectively. The human feature data collected by the medical instrument is used as real data, and the human feature data collected by the smart bracelet is used as deviation data; wherein each real data corresponds to one deviation data;

[0025] Randomly select k data from the deviation data to build a set, build a mathematical model and set the error threshold, input any deviation data in the set into the model, and output the corresponding real data;

[0026] Input the unsampled deviation data into the mathematical model to obtain the output data, calculate the error between the output data and the real data, and take the proportion of data with an error less than the error threshold as the accuracy of the model;

[0027] Using the same method, n mathematical models are constructed, and the mathematical model with the highest accuracy is selected as the mathematical model for the smart bracelet to correct the human body sign error;

[0028] The error correction of the human body signs specifically includes: inputting the human body signs collected by the smart bracelet into a mathematical model for correcting the human body sign errors to obtain the human body signs after the errors are corrected.

[0029] Furthermore, the analysis of abnormal physical signs of the human body includes:

[0030] When the smart bracelet detects that the user's physical signs are beyond the normal range, the smart bracelet determines the dosage of emergency medicine based on the user's physical characteristics. If the user's physical characteristics still do not return to the normal range after the first time period, the smart bracelet sends location information to the smart platform for help;

[0031] For sudden illness, if the user's physical characteristic values ​​have not returned to the normal range after the first time period, the dosage of emergency medication will be determined again based on the user's current physical characteristic values, and the changes in the user's physical sign values ​​in the second time period after taking the medicine will be recorded.

[0032] In a second aspect, an embodiment of the present invention further provides a smart bracelet system, including: a smart bracelet, a smart platform and a mobile phone APP, wherein the smart bracelet is used to dynamically collect the user's human body signs through a built-in sensor, correct the error of the human body signs, and upload the human body signs after the error correction to the smart platform, wherein the human body signs include but are not limited to: blood oxygen, heart rate, blood pressure, sleep, and blood sugar;

[0033] The smart platform is used to analyze the abnormal human body signs when the smart bracelet detects abnormal human body signs and determine the dosage of the user's medicine; and the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate and remind the user of the dosage of the medicine through voice;

[0034] The user of the smart bracelet opens the medicine chamber in the smart bracelet by pressing a button on the smart bracelet. The medicine chamber is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated;

[0035] The users of the mobile APP are the user's family members, and it is used to assist the user's family members in remotely obtaining the user's vital signs.

[0036] Furthermore, the smart bracelet includes a main body and a ring body, the main body is provided with a button and at least one medicine chamber, the medicine chamber is used to store at least one medicine, and when the user presses the button, the medicine chamber is opened;

[0037] The main body is also provided with a camera, through which the QR code or barcode of the medicine is identified to obtain the information of the medicine and upload the information of the medicine to the intelligent platform.

[0038] Furthermore, after receiving the drug information, the smart platform performs a query based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user. The daily medication plan includes but is not limited to: medication time, medication frequency and medication dosage.

[0039] Compared with the prior art, the present invention has the following beneficial effects:

[0040] 1. Real-time detection of the user's physical signs, and when the physical signs are abnormal, a certain amount of medicine is configured to achieve automatic control of the dosage of medicine;

[0041] 2. Real-time detection of the environment in the bracelet and various information about the medicine, reminding users to replenish or replace medicines in time;

[0042] 3. Before using the smart bracelet, calibrate it to reduce the error between the measurement results of human characteristics and the actual results;

[0043] 4. The smart bracelet can record the effects of the medication taken by the user. If there is no relief after the preset time, medical assistance will be sought.

[0044] It should be understood that the contents described in this section are not intended to identify the key or important features of the embodiments of the present invention, nor are they intended to limit the scope of the present invention. Other features of the present invention will become easily understood through the following description. BRIEF DESCRIPTION OF THE DRAWINGS

[0045] In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the following briefly introduces the drawings required for use in the description of 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 creative work.

[0046] Figure 1 is a flow chart of an intelligent monitoring method provided according to Embodiment 1 of the present invention;

[0047] Figure 2 This is an internal structure diagram of a smart bracelet provided according to Embodiment 1 of the present invention;

[0048] Figure 3 It is a structural diagram of a smart bracelet system provided according to Embodiment 2 of the present invention.

[0049] Figure numbers: 1. Button, 2. Medicine chamber, 3. Main body, 4. Camera. DETAILED DESCRIPTION

[0050] The present invention will be further described in detail below in conjunction with the accompanying drawings and embodiments. It is to be understood that the specific embodiments described herein are only used to explain the present invention, rather than to limit the present invention. It should also be noted that, for ease of description, only parts related to the present invention, rather than all structures, are shown in the accompanying drawings.

[0051] Embodiment 1

[0052] Figure 1 This is a flow chart of an intelligent monitoring method provided in the first embodiment of the present invention. This embodiment can be applied to monitoring and adjusting the medication of middle-aged and elderly people.

[0053] In order to solve the above problems, an embodiment of the present invention provides an intelligent monitoring method, which configures a certain amount of medicine for the user when abnormal human vital signs are monitored, thereby achieving drug emergency in emergency situations.

[0054] like Figure 1 As shown, the method specifically comprises the following steps:

[0055] S110, the smart bracelet dynamically collects the user's physical signs through the built-in sensor, corrects the errors of the physical signs, and uploads the corrected physical signs to the smart platform.

[0056] Among them, human body signs include: body temperature, blood oxygen, heart rate, blood pressure, sleep, blood sugar, etc. One or more. If the user suffers from heart disease, the user's heart rate can be monitored as the focus. Similarly, if the user suffers from related diseases such as blood pressure or blood sugar, the monitoring of blood pressure or blood sugar can be focused. In addition, blood oxygen saturation and sleep quality can also be monitored. Monitoring blood oxygen can evaluate the user's physical condition in real time and remind users to adjust the intensity of activities in time.

[0057] Smart bracelets can use photoelectric sensing to measure blood oxygen. The chip shines red and infrared light on the wrist, and the photodiode on the other side receives the reflected light. The different reflection and absorption rates of oxygenated hemoglobin and deoxygenated hemoglobin to specific light are used to measure the blood oxygen saturation of blood flowing under the skin.

[0058] Smart bracelets can also measure heart rate through photoelectric transmission measurement or electrocardiogram signal measurement. The first method is photoelectric transmission measurement. The photoelectric receiver on the back of the bracelet emits green light. The skin, muscle tissue and blood absorb part of the light, and the rest is reflected back to the receiver. The blood produces reflected light of different colors when the heart contracts and relaxes. The bracelet detects these reflected lights and uses algorithms to calculate the heart rate. The second method is electrocardiogram signal measurement. In each cardiac cycle of the human heart, the atria and ventricles are excited successively, accompanied by the successive actions of countless myocardial cells, which will cause potential changes. These changes in bioelectricity are called electrocardiograms. The heart rate can be detected by detecting the periodic changes in electrocardiograms. Every time the heart beats, there will be tiny electrode changes on the human body surface. The smart bracelet captures these electrode changes, and then the frequency of the heart beat can be restored through the algorithm, and then the real-time monitoring of the heart rate can be realized.

[0059] The smart bracelet measures the user's blood pressure through photoelectric detection technology, using LED to illuminate the skin surface and measure the pulse wave signal of the tiny blood vessels on the skin. Specifically, when the LED shines on the skin, the blood passing through the skin absorbs part of the infrared light. Based on the changes in the pulse wave signal, the sensor can calculate the changes in arterial pressure and thus obtain the blood pressure value.

[0060] Smart bracelets can also track the user's sleep through an actigraph. The actigraph detects the movement of the wrist and then records the data. According to the different sleep cycles of the user, the sleep detection result is finally obtained. Currently, most actigraphs have the function of recording data from three axes. The three-axis sensor has become a standard configuration. The three-axis sensor can sensitively record the slightest movement from three directions. Based on the recorded data, the analysis software can calculate energy consumption and sleep-related parameters, awakening time, number of awakenings, sleep efficiency, etc.

[0061] Smart bracelets mainly use two technologies to measure blood sugar: photoelectric method and electrochemical method. The photoelectric method measures the blood sugar concentration under the skin through the optical sensor on the watch. When the blood sugar concentration changes, the blood components under the skin will also change accordingly. These changes can be captured by the optical sensor and converted into blood sugar values. This method has the advantages of non-invasive, painless, and real-time monitoring, but it is affected by many factors, such as skin thickness, blood flow rate, etc., so the accuracy may be affected to a certain extent. The electrochemical method measures the blood sugar concentration under the skin through the microelectrodes on the watch. When the electrode contacts the skin, a weak current is generated, and the magnitude of this current is proportional to the blood sugar concentration. By measuring the magnitude of this current, the blood sugar value can be obtained. This method is more accurate than the photoelectric method, but it is also affected by factors such as skin condition and sweat.

[0062] These measurement methods are subject to technical limitations such as sensors and algorithms, and may be affected by many factors, such as wearing position, tightness of the bracelet, movement status, body temperature, etc., resulting in errors between the measurement results of the smart bracelet and the true value. Therefore, the smart bracelet needs to correct the human body sign errors before use.

[0063] S120. When the smart bracelet detects abnormal human vital signs, the smart platform analyzes the abnormal human vital signs and determines the dosage of the user's medication; and the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate to remind the user, and reminds the user of the dosage of medication through voice.

[0064] It should be noted that abnormal human vital signs are not a momentary state, but the average value of a certain indicator within a unit time. For patients with heart disease, the unit time can be set to one minute, and the average heart rate within one minute is calculated. If the average value is not within the normal human heart rate range, it is considered that there is an abnormal human vital sign. Correspondingly, the smart bracelet calculates the average value of human vital signs within a unit time. If the average value is not within the normal human vital sign value range, the smart bracelet detects abnormal human vital signs.

[0065] Furthermore, depending on whether the average value of human vital signs per unit time is higher or lower than the normal range of human vital signs values, the amount of medicine the patient needs to take is completely different, and the patient himself cannot control the amount of medicine used. At this time, the intelligent platform is needed to analyze the relationship between the average value of human vital signs per unit time and the normal range of human vital signs values, and configure a certain amount of medicine for the user.

[0066] Before correcting errors for human body signs, do the following:

[0067] In the same time period, a medical instrument and a smart bracelet are used to collect user human feature data sets respectively. The human feature data collected by the medical instrument is used as real data, and the human feature data collected by the smart bracelet is used as deviation data; wherein each real data corresponds to one deviation data;

[0068] Randomly select k data from the deviation data to build a set, build a mathematical model and set the error threshold, input any deviation data in the set into the model, and output the corresponding real data;

[0069] Input the unsampled deviation data into the mathematical model to obtain the output data, calculate the error between the output data and the real data, and take the proportion of data with an error less than the error threshold as the accuracy of the model;

[0070] Using the same method, n mathematical models are constructed, and the mathematical model with the highest accuracy is selected as the mathematical model for the smart bracelet to correct human vital sign errors.

[0071] The error correction of human body signs is specifically as follows: the human body signs collected by the smart bracelet are input into a mathematical model for correcting the error of human body signs to obtain the human body signs after the error correction.

[0072] Analysis of abnormal physical signs, including:

[0073] When the smart bracelet detects that the user's physical signs are beyond the normal range, the smart bracelet determines the dosage of emergency medicine based on the user's physical characteristics. If the user's physical characteristics still do not return to the normal range after the first time period, the smart bracelet sends location information to the smart platform for help;

[0074] For sudden illness, if the user's physical characteristic values ​​have not returned to the normal range after the first time period, the dosage of emergency medication will be determined again based on the user's current physical characteristic values, and the changes in the user's physical sign values ​​in the second time period after taking the medicine will be recorded.

[0075] Taking the medicine will produce a reaction after a certain period of time, so that the user's body signs will return to the normal range. Different diseases have different onset times after taking the medicine. Therefore, the first time period needs to be preset according to the onset time of different medicines. For example, the emergency medicine for sudden heart attack is Suxiao Jiuxin Pills, which is an immediate-acting medicine with an onset time of 5-10 minutes. Then the first time period can be selected to be controlled within 5-10 minutes. After the first time period, if the body signs cannot return to the normal range, it is necessary to seek help in time.

[0076] Some faster-acting drugs take longer to work than immediate-acting drugs.

[0077] For sudden illnesses such as acute heart disease, when the smart bracelet detects abnormal physical signs of the user, the smart bracelet determines the amount of emergency medicine based on the user's physical characteristics and dispenses the medicine for the first time. If the user's physical characteristics still have not returned to the normal range after the first time period, the smart bracelet sends location information to the smart platform for help, and determines the amount of emergency medicine based on the user's physical characteristics again, dispenses the medicine for the second time, and records the changes in the user's physical characteristics in the second time period after taking the medicine.

[0078] After the first dose of medicine fails to take effect, the smart bracelet sends location information to the smart platform for help. At the same time, the smart bracelet takes a second dose of medicine. The two drug intakes will buy time for treatment to a certain extent.

[0079] The mobile APP has the function of remotely viewing the vital signs of the smart bracelet wearer. When the smart bracelet wearer shows abnormal vital signs, the mobile APP will receive a warning message.

[0080] Furthermore, when the smart bracelet detects abnormal human vital signs, on the one hand, the smart platform configures a certain amount of medicine for the user based on the average value of the human vital signs per unit time; on the other hand, the smart bracelet reminds the user to take medicine through its own vibration, and informs the user of the amount of medicine to be taken through voice.

[0081] Figure 2 is an internal structure diagram of a smart bracelet provided according to the first embodiment of the present invention, such as Figure 2 As shown, the smart bracelet includes a main body and a ring body, and the main body is provided with a button and at least one medicine bin, and the medicine bin is used to store at least one medicine, and when the user presses the button, the medicine bin is opened. In a preferred configuration, a button is provided on the side wall of the smart bracelet, and the button is connected to the medicine bin through an elastic member, and when the button is pressed, the elastic member ejects the medicine bin out of the smart bracelet, and pushes the medicine bin back, and the button is reset.

[0082] A weighing sensor is arranged at the bottom of the medicine bin. When an object is placed in the medicine bin, the weighing sensor monitors the mass of the object in the medicine bin in real time.

[0083] Temperature and humidity sensors and microwave sensors are also installed inside the medicine warehouse to collect temperature and humidity information as well as the shape of objects inside the medicine warehouse.

[0084] The weighing sensor detects the mass changes of the drugs in the medicine warehouse in real time, and obtains the quantity of drugs in the medicine warehouse by combining the weighing mass of a single drug.

[0085] The smart bracelet has a built-in weighing sensor, which weighs the medicines in the medicine chamber to obtain the total mass, and combines the weighed mass of a single medicine to obtain the quantity of medicines in the medicine chamber.

[0086] The medicine chamber can be set as one to store a specific drug particle, or it can be set as multiple independent medicine chambers to store a variety of different drugs. When the medicine chamber pops up, the user needs to take a certain amount of medicine by himself.

[0087] In a preferred embodiment, a medicine collection box can be further provided under the medicine bin, and the outlet of the medicine bin is connected to the medicine collection box. The smart bracelet controls the outlet size of the medicine bin according to the required quantity of various medicines so that a certain amount of medicines enter the medicine collection box. The user does not need to check the medicine bin for a certain amount of medicines, but can directly take the medicines in the medicine collection box.

[0088] In a preferred embodiment, the smart bracelet can further collect the change in the amount of medicine and the remaining amount in the medicine chamber in real time, and when the user presses a button on the smart bracelet, the current time is recorded as the time to take the medicine, and after the medicine chamber is retracted into the smart bracelet, the change in the amount of medicine is used as the user's medication dosage.

[0089] When the remaining medicine amount is less than the preset threshold, the user is reminded to refill the medicine.

[0090] When the smart bracelet is refilling medicine, the mobile phone APP manually enters the medicine information.

[0091] Drug information may include but is not limited to: production date, shelf life, dosage, drug quantity, etc.

[0092] A light sensor and a color sensor are also provided in the medicine warehouse, and the method further includes:

[0093] The light sensor collects the light intensity in the medicine bin, and the smart bracelet determines whether the medicine bin is open or closed based on the light intensity in the medicine bin. At the same time, when the medicine bin is open, the smart bracelet controls the color sensor to identify the color of the medicine in the medicine bin, and compares the initial color of the medicine to determine whether the color of the medicine has changed. If the color of the medicine has changed, it is determined that the medicine has deteriorated;

[0094] And / or, when the temperature and humidity inside the medicine bin change, the temperature and humidity sensor detects the change of temperature and humidity before and after, and determines that the medicine is damp when the temperature and humidity inside the medicine bin exceed a preset range;

[0095] And / or, the microwave sensor transmits microwaves to the medicine bin to obtain physical information of the medicine in the medicine bin, wherein the physical information includes but is not limited to: form, shape, size, position, and according to the change of the physical information of the medicine, it is determined whether the medicine is broken or adhered;

[0096] The user will be reminded when the medicine deteriorates, gets damp, cracked or sticks.

[0097] When the environment in the medicine warehouse changes, the smart bracelet will issue an early warning reminder. When the status information of the medicine changes, it is determined that the medicine has deteriorated and reminds the user to replace the medicine.

[0098] Due to environmental influences, drugs are likely to deteriorate. Some drugs will decompose and split under light, and some drugs will be affected by moisture in the air and stick to other drugs. At this time, the smart bracelet will collect internal environmental information on the one hand to determine whether any drugs are affected; on the other hand, it will directly monitor the drugs and determine whether the drugs have deteriorated due to oxidation, moisture, etc. through changes in the shape, quality, and color of the drugs. When the drugs deteriorate, the wearer of the smart bracelet will be reminded to replace the drugs in time, and the drug information of the new drugs can be entered through the camera of the smart bracelet or the mobile phone APP.

[0099] For the same drug with different production dates, the date closest to expiration will be used as the basis to remind users to replace the drug before it expires.

[0100] Since the consumption rate of each medicine is different, and the production date and shelf life of various medicines are even more different, another main task of the smart bracelet is to count the expiration dates of various medicines. When the medicine is about to expire, it reminds the user to replace the medicine to prevent the medicine in the medicine warehouse from becoming ineffective.

[0101] In a preferred embodiment, the main body is further provided with a camera, and the method further comprises:

[0102] The QR code or barcode of the drug is identified by the camera to obtain the drug information and upload the drug information to the smart platform. The drug information may include but is not limited to: drug name, dosage form, specifications, manufacturer, production date, production batch number, expiration date, etc.

[0103] After receiving the drug information, the intelligent platform searches based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user, where the daily medication plan may include but is not limited to: medication time, medication frequency, medication dosage, etc.

[0104] In addition to providing users with medication plans when their vital signs are abnormal, the smart bracelet system also provides an optimal medication plan for daily medication.

[0105] S130, the user opens the medicine chamber in the smart bracelet by pressing a button on the smart bracelet, and the medicine chamber is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated.

[0106] The smart bracelet is equipped with a button, and when it is pressed, the medicine compartment or medicine box will be ejected. Push the medicine compartment or medicine box back into the smart bracelet to eliminate the warning. When the medicine compartment pops up, the user needs to take a certain amount of medicine by himself. When the medicine box pops up, the user does not need to check the medicine compartment for a certain amount of medicine, but can directly take the medicine in the medicine box.

[0107] In addition, for special groups of people, the smart bracelet can also set an activity range. When the smart bracelet leaves the preset activity range, it will remind the user through language that it has exceeded the activity range. At the same time, the smart bracelet will send location information to the mobile phone APP in real time so that the user's family can understand the user's location.

[0108] In addition, the smart bracelet can also remind users to charge in time according to power consumption.

[0109] The embodiment of the present invention uses a smart bracelet to remind users to take daily medications and detect the user's physical signs in real time. When the physical signs are abnormal, a certain amount of medication is configured to adjust the drug ratio. At the same time, the user is reminded to replace or replenish the medication when the medication is lacking, expired or deteriorated. Before using the smart bracelet, the accuracy of data collection is improved through calibration. When the user's medication is ineffective, help is sought, and the user's family can remotely monitor the user's physical condition.

[0110] Embodiment 2

[0111] Figure 3 This is a structural diagram of a smart bracelet system provided by an embodiment of the present invention. This embodiment can be applied to monitoring medication for middle-aged and elderly people. The system can be implemented in software and / or hardware, such as Figure 3 As shown, the smart bracelet system specifically includes: a smart bracelet, a smart platform and a mobile phone APP.

[0112] Among them, the smart bracelet is used to dynamically collect the user's vital signs through built-in sensors, correct errors in the vital signs, and upload the corrected vital signs to the smart platform. The vital signs may include but are not limited to: blood oxygen, heart rate, blood pressure, sleep, blood sugar, etc.

[0113] The smart platform is used to analyze the abnormal human vital signs when the smart bracelet detects abnormal human vital signs and determine the dosage of medication for the user; in addition, the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate to remind the user and reminds the user of the dosage of medication through voice.

[0114] When the user presses a button on the smart bracelet, a medicine chamber in the smart bracelet pops up, and the medicine chamber is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated.

[0115] The users of the mobile APP are the user's family members, and it is used to assist the user's family members in remotely obtaining the user's vital signs.

[0116] The smart bracelet includes a main body and a ring body, wherein the main body is provided with a button and at least one medicine chamber, wherein the medicine chamber is used to store at least one medicine, and when the user presses the button, the medicine chamber is opened;

[0117] The main body is also provided with a camera, through which the QR code or barcode of the medicine is identified to obtain the information of the medicine and upload the information of the medicine to the intelligent platform.

[0118] After receiving the drug information, the intelligent platform searches based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user, where the daily medication plan may include but is not limited to: medication time, medication frequency, medication dosage, etc.

[0119] The embodiment of the present invention monitors the user's physical signs through a smart bracelet and uploads the data to an intelligent platform. The intelligent platform analyzes abnormal physical signs and adjusts the drug ratio. The mobile phone APP remotely checks the user's physical signs at all times, thereby achieving all-round monitoring of the user and providing first aid in response to emergencies.

[0120] The above system can execute the method provided by any embodiment of the present invention, and has the corresponding functional modules and beneficial effects of the execution method.

[0121] It should be understood that the various forms of processes shown above can be used to reorder, add or delete steps. For example, the steps described in the present invention can be executed in parallel, sequentially or in different orders, as long as the desired results of the technical solution of the present invention can be achieved, and this document does not limit this.

[0122] It will be appreciated by those skilled in the art that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention, although the present invention has been described in detail with reference to the aforementioned embodiments. It will be appreciated by those skilled in the art that the present invention is not limited to the specific embodiments described herein, and that various obvious changes, readjustments and substitutions can be made by those skilled in the art without departing from the scope of protection of the present invention. Therefore, although the present invention has been described in more detail through the above embodiments, the present invention is not limited to the above embodiments, and may include more other equivalent embodiments without departing from the concept of the present invention, and the scope of the present invention is determined by the scope of the appended claims.

Claims

1. An intelligent monitoring method, characterized in that: include: The smart bracelet dynamically collects the user's physical signs through built-in sensors, corrects errors in the physical signs, and uploads the corrected physical signs to the smart platform. The physical signs include but are not limited to: blood oxygen, heart rate, blood pressure, sleep, and blood sugar; When the smart bracelet detects abnormal human vital signs, the smart platform analyzes the abnormal human vital signs and determines the dosage of the user's medication; In addition, the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate to remind the user, and reminds the user of the dosage of the medicine through voice; The user opens the medicine chamber in the smart bracelet by pressing a button on the smart bracelet. The medicine chamber is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated.

2. The method according to claim 1, characterized in that The smart bracelet comprises a main body and a ring body, the main body is provided with a button and at least one medicine chamber, the medicine chamber is used to store at least one medicine, and when the user presses the button, the medicine chamber is opened; A weighing sensor is arranged at the bottom of the medicine bin. When an object is placed in the medicine bin, the weighing sensor monitors the weight of the object in the medicine bin in real time. A temperature and humidity sensor and a microwave sensor are also provided inside the medicine warehouse to collect temperature and humidity information and object morphology inside the medicine warehouse; The weighing sensor detects the mass changes of the drugs in the medicine warehouse in real time, and obtains the quantity of drugs in the medicine warehouse by combining the weighing mass of a single drug.

3. The method according to claim 2, characterized in that A light sensor and a color sensor are also provided in the medicine bin, and the method further comprises: The light sensor collects the light intensity in the medicine bin, and the smart bracelet determines whether the medicine bin is open or closed based on the light intensity in the medicine bin. At the same time, when the medicine bin is open, the smart bracelet controls the color sensor to identify the color of the medicine in the medicine bin, and compares the initial color of the medicine to determine whether the color of the medicine has changed. If the color of the medicine has changed, it is determined that the medicine has deteriorated; And / or, when the temperature and humidity inside the medicine bin change, the temperature and humidity sensor detects the change of temperature and humidity before and after, and determines that the medicine is damp when the temperature and humidity inside the medicine bin exceed a preset range; And / or, the microwave sensor transmits microwaves to the medicine bin to obtain physical information of the medicine in the medicine bin, wherein the physical information includes but is not limited to: form, shape, size, position, and according to the change of the physical information of the medicine, it is determined whether the medicine is broken or adhered; The user will be reminded when the medicine deteriorates, gets damp, cracked or sticks.

4. The method according to claim 3, characterized in that The main body is also provided with a camera, and the method further comprises: The QR code or barcode of the drug is identified by a camera to obtain drug information and upload the drug information to the intelligent platform. The drug information includes but is not limited to: drug name, dosage form, specification, manufacturer, production date, production batch number, and expiration date; After receiving the drug information, the intelligent platform searches based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user. The daily medication plan includes but is not limited to: medication time, medication frequency and medication dosage.

5. The method according to claim 1, characterized in that Before correcting the error of the human body signs, the following operations are performed: In the same time period, a medical instrument and a smart bracelet are used to collect user human feature data sets respectively. The human feature data collected by the medical instrument is used as real data, and the human feature data collected by the smart bracelet is used as deviation data; wherein each real data corresponds to one deviation data; Randomly select k data from the deviation data to build a set, build a mathematical model and set the error threshold, input any deviation data in the set into the model, and output the corresponding real data; Input the unsampled deviation data into the mathematical model to obtain the output data, calculate the error between the output data and the real data, and take the proportion of data with an error less than the error threshold as the accuracy of the model; Using the same method, n mathematical models are constructed, and the mathematical model with the highest accuracy is selected as the mathematical model for the smart bracelet to correct the human body sign error; The error correction of the human body signs specifically includes: inputting the human body signs collected by the smart bracelet into a data model for correcting the human body sign errors to obtain the human body signs after the errors are corrected.

6. The method according to claim 5, characterized in that The analysis of abnormal physical signs of the human body includes: When the smart bracelet detects that the user's physical signs are beyond the normal range, the smart bracelet determines the dosage of emergency medicine based on the user's physical characteristics. If the user's physical characteristics still do not return to the normal range after the first time period, the smart bracelet sends location information to the smart platform for help; For sudden illness, if the user's physical characteristic values ​​have not returned to the normal range after the first time period, the dosage of emergency medication will be determined again based on the user's current physical characteristic values, and the changes in the user's physical characteristic values ​​in the second time period after taking the medicine will be recorded.

7. A smart bracelet system, characterized in that: include: Smart bracelet, smart platform and mobile phone APP, the smart bracelet is used to dynamically collect the user's physical signs through built-in sensors and upload them to the smart platform, the physical signs include but are not limited to: blood oxygen, heart rate, blood pressure, sleep, blood sugar; The smart platform is used to analyze the abnormal human body signs when the smart bracelet detects abnormal human body signs and configure medicine for the user; and the smart platform sends a warning to the mobile phone APP. At the same time, the smart platform remotely controls the smart bracelet to vibrate to remind the user and remind the user to take medicine through voice; The smart bracelet opens the medicine compartment in the smart bracelet by pressing a button on the smart bracelet, and the medicine compartment is set in the smart bracelet to store medicine. After pressing the button, the warning of the mobile phone APP and the vibration on the smart bracelet are eliminated; The users of the mobile APP are the user's family members, and it is used to assist the user's family members in remotely obtaining the user's vital signs.

8. The method according to claim 7, characterized in that The smart bracelet comprises a main body and a ring body, the main body is provided with a button and at least one medicine chamber, the medicine chamber is used to store at least one medicine, and when the user presses the button, the medicine chamber is opened; The main body is also provided with a camera, through which the QR code or barcode of the medicine is identified to obtain the information of the medicine and upload the information of the medicine to the intelligent platform.

9. The method according to claim 8, characterized in that After receiving the drug information, the smart platform searches based on the drug information to obtain the drug usage and dosage, and formulates a daily medication plan for the user. The daily medication plan includes but is not limited to: medication time, medication frequency and medication dosage.

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