Infant postoperative monitoring system and monitoring bed body

Abstract

The invention provides an infant postoperative monitoring system and monitoring bed body, and the system comprises a vital sign monitoring device which transmits a plurality of monitored vital sign parameters of an infant to a data management device; the body fluid monitoring equipment is used for sending monitored body fluid data of the infant to the data management equipment; the safety protection system is used for sending the monitored activity data of the infant to the data management equipment; the medication management system is used for sending the monitored medication record data of the infant to the data management equipment; and the data management equipment is used for performing fusion analysis processing on the multiple vital sign parameters, the body fluid data, the activity data and the medication record data to obtain a postoperative monitoring report of the infant, and outputting the postoperative monitoring report, so that the problems of wrong medication dosage, untimely infant management, poor efficiency and the like are avoided.

Description

Technical Field

[0001] This application relates to the field of data processing technology, and in particular to an infant postoperative monitoring system and monitoring bed. Background Technology

[0002] Postoperative management of infants and young children refers to a comprehensive medical and nursing system for surgical patients aged 0-3 years. Its core lies in reducing postoperative complications and promoting rapid recovery through meticulous intervention. It primarily relies on multidisciplinary collaboration in postoperative management to ensure the child smoothly navigates the vulnerable perioperative period.

[0003] In existing technologies, when managing infants after surgery, caregivers need to collect various types of data, such as the infant's physical data and environmental data, through various auxiliary devices, and determine various management measures such as medication dosage and vital sign monitoring based on the data, and then compile the data into a final postoperative report through relevant equipment.

[0004] However, in existing technologies, relying on caregivers to manage medication dosage, vital signs, and other aspects can easily lead to problems such as incorrect medication dosage, untimely management of infants and young children, and poor efficiency. Summary of the Invention

[0005] This application provides an infant postoperative monitoring system and monitoring bed to solve the problems in the existing technology, where multiple management tasks such as medication dosage and vital sign monitoring are carried out by caregivers, which are prone to errors in medication dosage, untimely management of infants, and poor efficiency.

[0006] In a first aspect, this application provides an infant postoperative monitoring system (1), comprising: a vital signs monitoring device (10), a body fluid monitoring device (20), a safety protection system (30), a medication management system (40), and a data management device (50);

[0007] The vital signs monitoring device (10) monitors multiple vital signs parameters of infants and young children after surgery and sends the multiple vital signs parameters to the data management device (50);

[0008] The body fluid monitoring device (20) monitors the input or output of various types of fluids after the operation of the infant and integrates the input or output of various types of fluids to obtain the body fluid data of the infant and sends the body fluid data to the data management device (50).

[0009] The safety protection system (30) monitors the activity data of the infant and sends the activity data to the data management device (50);

[0010] The medication management system (40) measures the real-time weight of the infant when setting up one or more drugs to be used in combination, calculates the dosage of each drug based on the real-time weight, generates drug incompatibilities prompts based on a preset drug database, and generates medication record data of the infant after applying the dosage of each drug to the infant based on the drug incompatibilities prompts. The medication record data is then sent to the data management device (50).

[0011] The data management device (50) integrates and analyzes the multiple vital sign parameters, the body fluid data, the activity data and the medication record data to obtain the postoperative monitoring report of the infant and outputs the postoperative monitoring report.

[0012] In one possible design, the vital signs monitoring device (10) includes: a heart rate sensor (101), a respiration sensor (102), a blood oxygen sensor (103), a body temperature sensor (104), a blood pressure sensor (105), and a first processor (106); wherein the heart rate sensor (101), the respiration sensor (102), the blood oxygen sensor (103), the body temperature sensor (104), and the blood pressure sensor (105) are respectively communicatively connected to the first processor (106); the plurality of vital signs parameters include heart rate, respiration, blood oxygen, blood oxygen, blood pressure, and blood pressure. The system includes a heart rate sensor (101) for monitoring the heart rate of infants after surgery; a respiratory sensor (102) for monitoring the respiratory rate of infants after surgery; a blood oxygen sensor (103) for monitoring the blood oxygen saturation of infants after surgery; a body temperature sensor (104) for monitoring the body temperature of infants after surgery; and a blood pressure sensor (105) for monitoring the blood pressure of infants after surgery. The first processor (106) sends the heart rate, respiratory rate, blood oxygen saturation, body temperature, and blood pressure to a data management device.

[0013] In one possible design, the body fluid monitoring device (20) includes: a body fluid monitoring device body (201), a flow sensor (202), a urine bag (203), a drainage bag (204), an infusion pump (205), and a second processor (206); wherein the flow sensor (202), the urine bag (203), the drainage bag (204), and the infusion pump (205) are respectively communicatively connected to the second processor (206); the flow sensor (202), the urine bag (203), the drainage bag (204), the infusion pump (205), and the second processor (206) are all communicatively connected. The system integrates the fluid monitoring device (201) with the following fluids: the fluids include urine, drainage fluid, and intravenous infusion; the flow sensor (202) monitors the amount of urine flowing into the urine bag (203) and the amount of drainage fluid flowing into the drainage bag (204) after the infant's surgery; the infusion pump (205) monitors the amount of intravenous infusion entering the infant's body after surgery; the second processor (206) integrates the urine output, the drainage fluid output, and the intravenous infusion input to obtain the infant's fluid data and sends the fluid data to the data management device (50).

[0014] In one possible design, the safety protection system (30) includes: a weight distribution sensor (301), an edge pressure sensor (302), a camera (303), and a third processor (304); wherein the weight distribution sensor (301), the edge pressure sensor (302), and the camera (303) are respectively communicatively connected to the third processor (304); the third processor (304) is integrated into the camera (303); the weight distribution sensor (301) monitors the center of gravity movement data of the infant; the edge pressure sensor (302) monitors the activity trend data of the infant; the camera (303) monitors the abnormal behavior data of the infant; the third processor (304) integrates the center of gravity movement data, the activity trend data, and the abnormal behavior data into activity data, and sends the activity data to the data management device (50).

[0015] In one possible design, the medication management system (40) includes: a weight sensor (401), a first display (402), and a fourth processor (403); wherein the weight sensor (401) and the first display (402) are respectively communicatively connected to the fourth processor (403), and the fourth processor (403) is integrated into the first display (402); the weight sensor (401) measures the real-time weight of the infant when one or more drugs are combined in response to a setting operation by a caregiver on the first display; the fourth processor (403) calculates the dosage of each drug based on the real-time weight, generates incompatibility prompts for each drug based on a preset drug database, displays the incompatibility prompts on the first display (402), and generates medication record data for the infant after the caregiver administers the corresponding dosages of each drug to the infant based on the incompatibility prompts displayed on the first display (402), and sends the medication record data to the data management device (50).

[0016] In one possible design, the data management device (50) includes: a fifth processor (501) and a second display (502), wherein the fifth processor (501) is integrated into the second display (502); the fifth processor (501) performs fusion analysis on the multiple vital sign parameters, the body fluid data, the activity data and the medication record data to obtain the postoperative monitoring report of the infant; and the second display (502) outputs the postoperative monitoring report.

[0017] In one possible design, the device further includes an environmental control device (60), which comprises a temperature and humidity sensor (601), a temperature and humidity control unit (602), a noise sensor (603), a noise control unit (604), and a sixth processor (605). The temperature and humidity sensor (601), the temperature and humidity control unit (602), the noise sensor (603), and the noise control unit (604) are communicatively connected to the sixth processor (605). The temperature and humidity sensor (601) collects the temperature and humidity around the infant. The sixth processor (605) controls the operation of the temperature and humidity control unit (602) based on the temperature and humidity to ensure dynamic balance within a preset temperature and humidity range. The noise sensor (603) collects the noise around the infant. The sixth processor (605) controls the operation of the noise control unit (604) based on the noise to ensure the noise is controlled within a preset noise range.

[0018] In one possible design, the system further includes a canopy system (70), which includes a canopy display (701) and a music player (702); the canopy display (701) displays preset images to distract the infants; and the music player (702) plays preset soothing music to calm the infants.

[0019] In one possible design, it also includes: a data transmission system, which includes: a central monitoring terminal and a user terminal; the fifth processor transmits the postoperative monitoring report of the infant to the central monitoring terminal and the user terminal.

[0020] In a second aspect, this application provides an infant postoperative monitoring bed, including an infant postoperative monitoring system (1) as described in any of the above, as well as a fixed bed board (2), a height-adjustable bed board (3), a lifter (4), a railing (5), a bed frame (6), and pulleys (7).

[0021] The vital signs monitoring device (10) is installed on the bed frame (6);

[0022] The body fluid monitoring device (20) is installed below the fixed bed board (2);

[0023] The safety protection system (30) is installed on the fixed bed board (2) and the adjustable bed board (3);

[0024] The medication management system (40) is installed on the fixed bed board (2) and the bed frame (6);

[0025] The data management device (50) is installed on the bed frame (6);

[0026] The environmental control device (60) is installed on the bed frame (6).

[0027] The postoperative monitoring system and monitoring bed provided in this application transmit multiple vital sign parameters of the infant after surgery to a data management device via a vital sign monitoring device; transmit body fluid data of the infant after surgery to the data management device via a body fluid monitoring device; transmit postoperative activity data of the infant after surgery to the data management device via a safety protection system; and transmit the generated medication record data to the data management device via a medication management system. The data management device integrates and analyzes multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain and output a postoperative monitoring report for the infant. Through the collaboration between the vital sign monitoring device, body fluid monitoring device, environmental control device, medication management system, and data management device, problems such as incorrect medication dosage, untimely infant management, and poor efficiency are avoided. Attached Figure Description

[0028] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0029] Figure 1 This is a schematic diagram of the structure of the postoperative monitoring system for infants and young children provided in the embodiments of this application;

[0030] Figure 2 This is a schematic diagram of the vital signs monitoring device provided in the embodiments of this application;

[0031] Figure 3 This is a schematic diagram of the structure of the body fluid monitoring device provided in the embodiments of this application;

[0032] Figure 4 This is a schematic diagram of the security protection system provided in the embodiments of this application;

[0033] Figure 5 This is a schematic diagram of the structure of the medication management system provided in the embodiments of this application;

[0034] Figure 6 A schematic diagram of the structure of the data management device provided in the embodiments of this application;

[0035] Figure 7 This is a schematic diagram of the structure of the environmental control device provided in the embodiments of this application;

[0036] Figure 8 This is a schematic diagram of the structure of the canopy system provided in the embodiments of this application;

[0037] Figure 9 This is a schematic diagram of the structure of the postoperative monitoring bed for infants and young children provided in the embodiments of this application.

[0038] Figure label:

[0039] 1: Postoperative monitoring system for infants and young children;

[0040] 10: Vital signs monitoring equipment;

[0041] 101: Heart rate sensor;

[0042] 102: Breathing sensor;

[0043] 103: Blood oxygen sensor;

[0044] 104: Body temperature sensor;

[0045] 105: Blood pressure sensor;

[0046] 106: First processor;

[0047] 20: Body fluid monitoring equipment;

[0048] 201: Body fluid monitoring equipment;

[0049] 202: Flow sensor;

[0050] 203: Urine bag;

[0051] 204: Drainage bag;

[0052] 205: Infusion pump;

[0053] 206: Second processor;

[0054] 30: Security protection system;

[0055] 301: Weight distribution sensor;

[0056] 302: Edge pressure sensor;

[0057] 303: Camera;

[0058] 304: Third processor;

[0059] 40: Medication Management System;

[0060] 401: Weight sensor;

[0061] 402: First display;

[0062] 403: Fourth processor;

[0063] 50: Data management equipment;

[0064] 501: Fifth Processor;

[0065] 502: Second display;

[0066] 60: Environmental control equipment;

[0067] 601: Temperature and humidity sensor;

[0068] 602: Temperature and humidity control unit;

[0069] 603: Noise sensor;

[0070] 604: Noise reduction unit;

[0071] 605: The sixth processor;

[0072] 70: Sky Screen System;

[0073] 701: Dome Display;

[0074] 702: Music player;

[0075] 2: Fix the bed board;

[0076] 3: Adjustable bed board;

[0077] 4: Lifting device;

[0078] 5: Fence;

[0079] 6: Bed frame;

[0080] 7: Pulleys. Detailed Implementation

[0081] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0082] The collection, storage, use, processing, transmission, and disclosure of user data and other information involved in the technical solution of this application all comply with the provisions of relevant laws and regulations and do not violate public order and good morals.

[0083] Postoperative management of infants and young children refers to a comprehensive medical and nursing system for surgical patients aged 0-3 years. Its core lies in reducing postoperative complications and promoting rapid recovery through meticulous intervention. This is primarily achieved through multidisciplinary collaboration in postoperative management to ensure a smooth passage through the vulnerable perioperative period. Currently, in postoperative management of infants and young children, caregivers need to collect various data, including physical and environmental data, using various auxiliary devices. Based on this data, they determine medication dosages, monitor vital signs, and perform other management tasks, compiling the information into a final postoperative report. However, current methods, relying on caregivers for medication dosages and vital sign monitoring, are prone to errors such as incorrect dosages, untimely infant management, and low efficiency.

[0084] To address the aforementioned technical problems, this application proposes the following technical concept: The inventors have considered constructing an infant postoperative monitoring system based on vital sign monitoring equipment, body fluid monitoring equipment, environmental control equipment, medication management system, and data management equipment. The system utilizes the vital sign monitoring equipment to send multiple postoperative vital sign parameters of the infant to the data management equipment; the body fluid monitoring equipment sends the monitored body fluid data of the infant to the data management equipment; the safety protection system sends the monitored activity data of the infant to the data management equipment; and the medication management system sends medication record data to the data management equipment. Based on the data management equipment, the above data is fused, analyzed, and processed to generate and output an infant postoperative monitoring report, thereby avoiding problems such as incorrect medication dosage, untimely infant management, and poor efficiency.

[0085] Figure 1 This is a schematic diagram of the structure of the postoperative monitoring system for infants and young children provided in the embodiments of this application.

[0086] like Figure 1 As shown, the postoperative monitoring system 1 for infants and young children includes: a vital signs monitoring device 10, a body fluid monitoring device 20, a safety protection system 30, a medication management system 40, and a data management device 50.

[0087] The vital signs monitoring device 10 monitors multiple vital signs parameters of infants and young children after surgery and sends these parameters to the data management device 50.

[0088] The body fluid monitoring device 20 monitors the input or output of various types of fluids in infants and young children after surgery, integrates the input or output of various types of fluids to obtain the body fluid data of infants and young children, and sends the body fluid data to the data management device 50.

[0089] Safety protection system 30 monitors the activity data of infants and young children and sends the activity data to data management device 50.

[0090] The medication management system 40 measures the infant's real-time weight when setting up one or more drugs for combined use, calculates the corresponding dosage of each drug based on the real-time weight, generates drug incompatibilities prompts based on a preset drug database, and after administering the corresponding dosages of each drug to the infant based on the incompatibilities prompts, generates medication record data for the infant and sends the medication record data to the data management device 50.

[0091] The data management device 50 integrates and analyzes multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain and output postoperative monitoring reports for infants and young children.

[0092] In addition, the postoperative monitoring system 1 for infants and young children also includes: a soothing system, which includes: a soothing device and a music player, with the music player integrated into the soothing device; the soothing device gently strokes the infant or young child according to a preset program; and the music player plays preset soothing music to soothe the infant or young child.

[0093] In this embodiment, the soothing device can be any of the following: a metronome, a cradle, or a vibrator, or other soothing devices, used to mimic the gentle, adjustable rocking or vibration patterns of a mother patting or rocking a cradle to help soothe postoperative infants.

[0094] In this embodiment, the music player is used to play soft music, natural sounds, or white noise.

[0095] In summary, the postoperative monitoring system for infants and young children provided in this embodiment transmits multiple vital sign parameters of the infants and young children after surgery to the data management device through a vital sign monitoring device; transmits the body fluid data of the infants and young children to the data management device through a body fluid monitoring device; transmits the activity data of the infants and young children after surgery to the data management device through a safety protection system; transmits the generated medication record data to the data management device through a medication management system; and the data management device integrates and analyzes the multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain and output a postoperative monitoring report for the infants and young children. Through the collaboration between the vital sign monitoring device, body fluid monitoring device, environmental control device, medication management system, and data management device, problems such as incorrect medication dosage, untimely infant and young child management, and poor efficiency are avoided.

[0096] Figure 2 This is a schematic diagram of the structure of a vital signs monitoring device provided in an embodiment of this application. Figure 1 Based on the embodiments, the vital signs monitoring device 10 includes: a heart rate sensor 101, a respiration sensor 102, a blood oxygen sensor 103, a body temperature sensor 104, a blood pressure sensor 105, and a first processor 106.

[0097] Among them, the heart rate sensor 101, the respiration sensor 102, the blood oxygen sensor 103, the body temperature sensor 104, and the blood pressure sensor 105 are respectively connected to the first processor 106; multiple vital signs parameters include heart rate, respiratory rate, blood oxygen saturation, body temperature, and blood pressure.

[0098] Heart rate sensor 101 monitors the heart rate of infants and young children after surgery.

[0099] Breathing sensor 102 monitors the respiratory rate of infants and young children after surgery.

[0100] The 103 blood oxygen sensor monitors the blood oxygen saturation of infants and young children after surgery.

[0101] The body temperature sensor 104 monitors the body temperature of infants and young children after surgery.

[0102] Blood pressure sensor 105 monitors postoperative blood pressure in infants and young children.

[0103] The first processor 106 sends heart rate, respiratory rate, blood oxygen saturation, body temperature, and blood pressure to the data management device.

[0104] In summary, the vital signs monitoring device provided in this embodiment monitors the infant's postoperative heart rate using a heart rate sensor; the infant's postoperative respiratory rate using a respiratory sensor; the infant's postoperative blood oxygen saturation using a blood oxygen sensor; the infant's postoperative body temperature using a body temperature sensor; and the infant's postoperative blood pressure using a blood pressure sensor. The first processor sends the heart rate, respiratory rate, blood oxygen saturation, body temperature, and blood pressure to the data management device, enabling comprehensive monitoring of the infant's postoperative vital signs to understand the infant's postoperative condition.

[0105] Figure 3 This is a schematic diagram of the structure of the body fluid monitoring device provided in an embodiment of this application. Figure 1 Based on the embodiments, the body fluid monitoring device 20 includes: a body fluid monitoring device body 201, a flow sensor 202, a urine bag 203, a drainage bag 204, an infusion pump 205, and a second processor 206.

[0106] The flow sensor 202, urine bag 203, drainage bag 204 and infusion pump 205 are respectively connected to the second processor 206; the flow sensor 202, urine bag 203, drainage bag 204, infusion pump 205 and the second processor 206 are integrated into the body fluid monitoring device body 201; the various types of liquids include urine, drainage fluid and intravenous infusion.

[0107] The flow sensor 202 can also be replaced with a high-precision electronic scale.

[0108] The flow sensor 202 monitors the amount of urine flowing into the urine bag 203 and the amount of drainage fluid flowing into the drainage bag 204 after surgery in infants and young children.

[0109] Specifically, urine output volume refers to the amount of urine output per unit time.

[0110] In this embodiment, the drainage volume includes the drainage volume from the pleural cavity, the drainage volume from the abdominal cavity, and the drainage volume from other drainage sites.

[0111] Infusion pump 205 is used to monitor the amount of intravenous fluids administered to infants and young children after surgery.

[0112] In addition, the stability of the infusion tubing, drainage tubing, and urinary catheter needs to be checked regularly.

[0113] The second processor 206 integrates the urine output, drainage fluid output, and intravenous infusion input to obtain the infant's body fluid data, and sends the body fluid data to the data management device 50.

[0114] In addition, oral intake and wound exudate can be integrated into body fluid data.

[0115] In addition, corresponding alarm devices can be added to issue alarms when body fluid data is abnormal.

[0116] In summary, the body fluid monitoring device provided in this embodiment monitors the output of urine flowing into the urine bag and the output of drainage fluid flowing into the drainage bag after surgery in infants and young children through a flow sensor; an infusion pump monitors the input of intravenous infusion after surgery in infants and young children; and a second processor integrates the output of urine, the output of drainage fluid, and the input of intravenous infusion to obtain the body fluid data of infants and young children, and sends the body fluid data to a data management device, so as to intuitively understand the changes in the body fluid of infants and young children, and provide timely care for infants and young children.

[0117] Figure 4 This is a schematic diagram of the security protection system provided in an embodiment of this application. Figure 1 Based on the embodiments, the security protection system 30 includes: a weight distribution sensor 301, an edge pressure sensor 302, a camera 303, and a third processor 304.

[0118] Among them, the weight distribution sensor 301, the edge pressure sensor 302, and the camera 303 are respectively connected to the third processor 304; the third processor 304 is integrated into the camera 303; the weight distribution sensor 301 monitors the center of gravity movement data of infants and young children.

[0119] Weight distribution sensor 301 monitors the center of gravity movement data of infants and young children.

[0120] The weight distribution sensor 301 consists of multiple sensors arranged in a grid.

[0121] In addition, the weight distribution sensor 301 monitors the pressure on different parts of the infant's body in real time and generates a pressure distribution map to prompt caregivers to adjust the infant's position to prevent pressure sores.

[0122] Edge pressure sensor 302 monitors activity trend data of infants and young children.

[0123] Among them, the edge pressure sensor 302 specifically comprises multiple sensors.

[0124] Camera 303 monitors abnormal behavioral data of infants and young children.

[0125] Specifically, camera 303 monitors abnormal behavior data of infants and young children through a preset 2I algorithm.

[0126] For example, abnormal behavior data includes prolonged inactivity, excessive agitation, suspected convulsions, and other abnormal behaviors.

[0127] In addition, camera 303 can be replaced with a high-sensitivity vibration sensor.

[0128] The third processor 304 integrates center of gravity movement data, activity trend data, and abnormal behavior data into activity data, and sends the activity data to the data management device 50.

[0129] In addition, corresponding alarm devices can be added to issue alarm prompts when infants or toddlers try to climb out of the edge or roll over.

[0130] The alarm notification can be any of the following: light alarm, sound alarm, or remote notification, or other alarm notification methods.

[0131] In summary, the safety protection system provided in this embodiment monitors the infant's center of gravity movement data through a weight distribution sensor; monitors the infant's activity trend data through an edge pressure sensor; monitors the infant's abnormal behavior data through a camera; and integrates the center of gravity movement data, activity trend data, and abnormal behavior data into activity data through a third processor, and sends the activity data to a data management device, enabling caregivers to detect abnormal behaviors of infants in real time so as to manage and control the infants in a timely manner.

[0132] Figure 5 This is a schematic diagram of the structure of the medication management system provided in an embodiment of this application. Figure 1 Based on the embodiments, the medication management system 40 includes: a weight sensor 401, a first display 402, and a fourth processor 403.

[0133] The weight sensor 401 and the first display 402 are respectively connected to the fourth processor 403, and the fourth processor 403 is integrated into the first display 402.

[0134] The weight sensor 401 measures the infant's real-time weight in response to a setting operation by a caregiver on a first display to generate one or more medications for use in combination.

[0135] The fourth processor 403 calculates the dosage of various drugs based on real-time weight and generates drug incompatibilities prompts based on a preset drug database. The incompatibilities prompts are displayed on the first display 402. After the caregiver administers the corresponding dosages of various drugs to the infant based on the incompatibilities prompts displayed on the first display 402, medication record data for the infant is generated and sent to the data management device 50.

[0136] In this embodiment, the medication record data includes information about the infant, the type of drug, the dosage of each drug, the route of administration, and the time of administration.

[0137] The generation of medication record data can be combined with barcode scanning or R7I5 technology.

[0138] In addition, a drug dosage calculation logic module can be configured to perform the following steps:

[0139] The system measures infant weight in real time using a high-precision pressure sensor; it sets dosage ranges for commonly used analgesics and antibiotics, such as: acetaminophen: 10-15 mg / kg, every 4-6 hours; ibuprofen: 5-10 mg / kg, every 6-8 hours; amoxicillin: 20-40 mg / kg / 5 divided into two oral doses; it automatically calculates the recommended dosage based on the measured weight and calculates the time since the last administration, generating a "Recommended Dosage and Time" reminder.

[0140] In addition, a medication time-sensitive reminder algorithm module can be configured to perform the following steps:

[0141] The system sets the metabolic half-life of drugs and automatically calculates the next dosing window based on drug classification. For example, if the last time ibuprofen was taken was at 10:00 and the patient's weight was 6kg, a reminder will be generated stating "It is recommended to take 30mg ibuprofen at 16:00". A reminder mechanism is set up to prevent overlapping or underdosing warnings and is linked to the caregiver's terminal for verification by scanning a code.

[0142] In addition, an anomaly warning logic module can be configured to perform the following steps:

[0143] The system can be configured to connect to additional modules to monitor the following parameters: rapid weight loss, such as an infant losing 5% of their weight in 24 hours; increased crying frequency, such as twice the average; and medication delays, such as delays exceeding the recommended time by more than 30 minutes. These conditions will trigger a red or yellow flashing light alert on the caregiver's terminal.

[0144] In summary, the medication management system provided in this embodiment measures the infant's real-time weight using a weight sensor when responding to a caregiver's settings on the first display to generate a combination of one or more medications. The fourth processor calculates the dosage of each medication based on the real-time weight and generates incompatibility warnings for each medication based on a preset drug database. These incompatibility warnings are displayed on the first display. After the caregiver administers the corresponding dosages of each medication to the infant based on the incompatibility warnings displayed on the first display, medication record data for the infant is generated and sent to the data management device. This allows for safer medication administration to infants and provides a clearer understanding of the medication administration process, thus preventing medication errors.

[0145] Figure 6 This is a schematic diagram of the structure of a data management device provided in an embodiment of this application. Figure 1 Based on the embodiments, the data management device 50 includes: a fifth processor 501 and a second display 502, wherein the fifth processor 501 is integrated into the second display 502.

[0146] The fifth processor 501 integrates and analyzes multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain postoperative monitoring reports for infants and young children.

[0147] Specifically, the fifth processor 501 performs fusion analysis on multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain fused data; inputs the fused data into a preset machine learning model for the identification and processing of potential complications to obtain identification and prediction results; and integrates the fused data and identification and prediction results into a postoperative monitoring report for infants and young children.

[0148] For example, the identification prediction result is one or more of the following: combining the infant's weight loss trend, decreased urine output, increased heart rate, and blood pressure changes, the identification prediction result is dehydration; combining the infant's body temperature trend, increased heart rate and respiration, and decreased activity level, the identification prediction result is signs of inflammation and infection; combining the infant's abnormal combination of respiratory rate, pattern, and blood oxygenation, the identification prediction result is abnormal breathing; combining the infant's increased heart rate, increased respiration, activity level, and facial expression recognition, the identification prediction result is pain.

[0149] In addition, corresponding alarm devices can be added to issue corresponding alarm prompts based on the identification and prediction results.

[0150] The second monitor, 502, outputs the postoperative monitoring report.

[0151] In this embodiment, the postoperative monitoring report includes a vital signs trend chart, weight change curve, intake and output summary, and medication records for a preset time period.

[0152] In addition, the infant postoperative monitoring system 1 also includes: a data transmission system, which includes: a central monitoring terminal and a user terminal; and a fifth processor that transmits the infant's postoperative monitoring report to the central monitoring terminal and the user terminal.

[0153] Specifically, the fifth processor transmits the postoperative monitoring reports of infants and young children to the HIS, LIS, 6MR systems, central monitoring terminal, and 2PP on the user end for critical alarms and reminders.

[0154] In addition, the second display 502 can provide encrypted and controllable video call functionality between the bedside and the parent rest area while protecting privacy and security, in order to alleviate the separation anxiety of parents and push reassuring messages.

[0155] For example, reassuring messages could be “Baby is resting quietly” or “Just had a weigh-in and is doing well.”

[0156] Virtual visitation appointment: Integrated into the hospital's visitation management system.

[0157] In summary, the data management device provided in this embodiment uses a fifth processor to fuse and analyze multiple vital sign parameters, body fluid data, activity data, and medication record data to obtain a postoperative monitoring report for infants and young children; the second display outputs the postoperative monitoring report, allowing for a direct understanding of the infant's overall condition.

[0158] Figure 7 This is a schematic diagram of the structure of an environmental control device provided in an embodiment of this application. Figure 1 Based on the embodiments, the environmental control device 60 includes: a temperature and humidity sensor 601, a temperature and humidity control unit 602, a noise sensor 603, a noise control unit 604, and a sixth processor 605.

[0159] Among them, the temperature and humidity sensor 601, the temperature and humidity adjustment unit 602, the noise sensor 603, and the noise adjustment unit 604 are respectively connected to the sixth processor 605.

[0160] Temperature and humidity sensor 601 collects the temperature and humidity around infants and young children;

[0161] The sixth processor 605 controls the operation of the temperature and humidity regulating unit 602 according to the temperature and humidity, so as to ensure that the temperature and humidity are dynamically balanced within the preset temperature and humidity range.

[0162] In this embodiment, the temperature and humidity control unit 602 can be an air conditioner with humidification function or other control devices.

[0163] In addition, the temperature and humidity control unit 602 can also be replaced with a heating pad.

[0164] The noise sensor 603 collects noise around infants and young children.

[0165] The sixth processor 605 controls the operation of the noise control unit 604 to ensure that the noise is controlled within a preset noise range.

[0166] Specifically, when the sixth processor 605 determines that the noise exceeds the set threshold, it controls the noise adjustment unit 604 to reduce the noise so as to ensure that the noise is controlled within the preset noise range.

[0167] In addition, the noise reduction unit 604 is equipped with a speaker and can also trigger the playback of gentle white noise.

[0168] In summary, the environmental control device provided in this embodiment collects the temperature and humidity around the infant through a temperature and humidity sensor; the sixth processor controls the operation of the temperature and humidity control unit according to the temperature and humidity to ensure that the temperature and humidity are dynamically balanced within a preset temperature and humidity range; a noise sensor collects the noise around the infant; the sixth processor controls the operation of the noise control unit according to the noise to ensure that the noise is controlled within a preset noise range, thereby creating a more conducive environment for the infant to rest.

[0169] Figure 8 This is a schematic diagram of the structure of the canopy system provided in an embodiment of this application. Figure 1 Based on the embodiments, it also includes: a canopy system 70, which includes: a canopy display 701 and a music player 702; the music player 702 is installed on both sides of the canopy display 701.

[0170] The 701 overhead display shows preset images to distract infants and toddlers.

[0171] In this embodiment, the preset image can be a starry sky image, a projection image of a loved one, or other images.

[0172] Music Player 702 plays preset soothing music to calm infants and young children.

[0173] In this embodiment, the preset soothing music can be children's songs, light music, or other soothing music.

[0174] In addition, the 701 ceiling display can be replaced with a projection device to project preset images onto the ceiling of the room to distract infants and young children.

[0175] In summary, the canopy system provided in this embodiment displays preset images through a canopy display to distract infants and young children; and a music player plays preset soothing music to calm infants and young children, thus relieving pain and distracting them after surgery.

[0176] Figure 9 This is a schematic diagram of the structure of the postoperative monitoring bed for infants and young children provided in an embodiment of this application. Figure 1 Based on the embodiments, the postoperative monitoring bed for infants includes: an infant postoperative monitoring system 1, a fixed bed board 2, a height-adjustable bed board 3, a lifter 4, a railing 5, a bed frame 6, and casters 7.

[0177] 10 vital signs monitoring devices are installed on the bed frame 6.

[0178] The body fluid monitoring device 20 is installed below the fixed bed board 2.

[0179] Safety protection system 30 is installed on fixed bed board 2 and adjustable bed board 3.

[0180] For example, the weight distribution sensor 301 and the edge pressure sensor 302 in the safety protection system 30 are installed on the fixed bed board 2 and the liftable bed board 3; the camera 303 and the third processor 304 are installed on the liftable bed board 3.

[0181] In addition, the height-adjustable bed board 3 can gently and smoothly adjust the bed angle automatically according to preset plans or instructions from medical staff.

[0182] The medication management system 40 is installed on the fixed bed board 2 and bed frame 6.

[0183] For example, the weight sensor 401 in the medication management system 40 is installed to the fixed bed board 2; the first display 402 and the fourth processor 403 are installed to the bed frame 6.

[0184] Data management device 50 is installed on the bed frame 6.

[0185] An environmental control device 60 is installed on the bed frame 6.

[0186] In summary, the postoperative monitoring bed for infants and young children provided in this embodiment enables comprehensive monitoring of infants and young children after surgery by installing vital sign monitoring equipment to the bed frame; body fluid monitoring equipment to the underside of the fixed bed board; a safety protection system to the fixed bed board and the adjustable bed board; a medication management system to the fixed bed board and the bed frame; a data management device to the bed frame; and an environmental control device to the bed frame.

[0187] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of this application.

Claims

1. A postoperative monitoring system for infants and young children (1), characterized in that, include: Vital signs monitoring equipment (10), body fluid monitoring equipment (20), safety protection system (30), medication management system (40) and data management equipment (50); The vital signs monitoring device (10) monitors multiple vital signs parameters of infants and young children after surgery and sends the multiple vital signs parameters to the data management device (50); The body fluid monitoring device (20) monitors the input or output of various types of fluids after the operation of the infant and integrates the input or output of various types of fluids to obtain the body fluid data of the infant and sends the body fluid data to the data management device (50). The safety protection system (30) monitors the activity data of the infant and sends the activity data to the data management device (50); The medication management system (40) measures the real-time weight of the infant when setting up one or more drugs to be used in combination, calculates the dosage of each drug based on the real-time weight, generates drug incompatibilities prompts based on a preset drug database, and generates medication record data of the infant after applying the dosage of each drug to the infant based on the drug incompatibilities prompts. The medication record data is then sent to the data management device (50). The data management device (50) integrates and analyzes the multiple vital sign parameters, the body fluid data, the activity data and the medication record data to obtain the postoperative monitoring report of the infant and outputs the postoperative monitoring report.

2. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, The vital signs monitoring device (10) includes: a heart rate sensor (101), a respiration sensor (102), a blood oxygen sensor (103), a body temperature sensor (104), a blood pressure sensor (105), and a first processor (106); The heart rate sensor (101), the respiration sensor (102), the blood oxygen sensor (103), the body temperature sensor (104), and the blood pressure sensor (105) are respectively connected to the first processor (106); the multiple vital signs parameters include heart rate, respiratory rate, blood oxygen saturation, body temperature, and blood pressure. The heart rate sensor (101) monitors the heart rate of infants after surgery; The respiratory sensor (102) monitors the respiratory rate of infants after surgery; The blood oxygen sensor (103) monitors the blood oxygen saturation of infants and young children after surgery; The body temperature sensor (104) monitors the body temperature of infants and young children after surgery; The blood pressure sensor (105) monitors the blood pressure of infants and young children after surgery; The first processor (106) sends the heart rate, respiratory rate, blood oxygen saturation, body temperature and blood pressure to the data management device.

3. The postoperative monitoring system for infants and young children (1) according to claim 2, characterized in that, The body fluid monitoring device (20) includes: a body fluid monitoring device body (201), a flow sensor (202), a urine bag (203), a drainage bag (204), an infusion pump (205), and a second processor (206); The flow sensor (202), urine bag (203), drainage bag (204), and infusion pump (205) are communicatively connected to the second processor (206); the flow sensor (202), urine bag (203), drainage bag (204), infusion pump (205), and second processor (206) are integrated into the body fluid monitoring device body (201); the various types of fluids include urine, drainage fluid, and intravenous infusion. The flow sensor (202) monitors the amount of urine flowing into the urine bag (203) and the amount of drainage fluid flowing into the drainage bag (204) after the operation of the infant. The infusion pump (205) monitors the amount of intravenous fluid administered to the infant after surgery; The second processor (206) integrates the urine output, the drainage fluid output, and the intravenous infusion input to obtain the infant's body fluid data, and sends the body fluid data to the data management device (50).

4. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, The security protection system (30) includes: a weight distribution sensor (301), an edge pressure sensor (302), a camera (303), and a third processor (304); The weight distribution sensor (301), the edge pressure sensor (302), and the camera (303) are respectively communicatively connected to the third processor (304); the third processor (304) is integrated into the camera (303). The weight distribution sensor (301) monitors the center of gravity movement data of the infant. The edge pressure sensor (302) monitors the activity trend data of the infant; The camera (303) monitors abnormal behavior data of the infant; The third processor (304) integrates the center of gravity movement data, the activity trend data, and the abnormal behavior data into activity data, and sends the activity data to the data management device (50).

5. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, The medication management system (40) includes: a weight sensor (401), a first display (402), and a fourth processor (403); The weight sensor (401) and the first display (402) are respectively connected to the fourth processor (403), and the fourth processor (403) is integrated into the first display (402). The weight sensor (401) measures the infant's real-time weight when one or more medications are combined in response to a setting operation by a caregiver on the first display. The fourth processor (403) calculates the dosage of various drugs based on the real-time weight, generates drug incompatibilities prompts based on a preset drug database, displays the incompatibilities prompts on the first display (402), and generates medication record data for the infant after the caregiver administers the corresponding dosages of various drugs to the infant based on the incompatibilities prompts displayed on the first display (402). The medication record data is then sent to the data management device (50).

6. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, The data management device (50) includes: a fifth processor (501) and a second display (502), wherein the fifth processor (501) is integrated into the second display (502); The fifth processor (501) integrates and analyzes the multiple vital sign parameters, the body fluid data, the activity data, and the medication record data to obtain the postoperative monitoring report of the infant. The second display (502) outputs the postoperative monitoring report.

7. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, Also includes: An environmental control device (60) includes: a temperature and humidity sensor (601), a temperature and humidity control unit (602), a noise sensor (603), a noise control unit (604), and a sixth processor (605); The temperature and humidity sensor (601), the temperature and humidity adjustment unit (602), the noise sensor (603), and the noise adjustment unit (604) are respectively connected to the sixth processor (605) in communication. The temperature and humidity sensor (601) collects the temperature and humidity around the infant. The sixth processor (605) controls the operation of the temperature and humidity regulating unit (602) according to the temperature and humidity to ensure that the temperature and humidity are dynamically balanced within a preset temperature and humidity range; The noise sensor (603) collects the noise around the infant; The sixth processor (605) controls the operation of the noise adjustment unit (604) according to the noise to ensure that the noise is controlled within a preset noise range.

8. The postoperative monitoring system for infants and young children (1) according to claim 1, characterized in that, Also includes: A dome system (70), the dome system including: a dome display (701) and a music player (702); The dome display (701) shows preset images to distract the infants and young children. The music player (702) plays preset soothing music to calm the infant.

9. The postoperative monitoring system for infants and young children (1) according to claim 6, characterized in that, Also includes: The data transmission system includes: a central monitoring terminal and a user terminal; The fifth processor transmits the postoperative monitoring report of the infant to the central monitoring terminal and the user terminal.

10. A postoperative monitoring bed for infants and young children, characterized in that, The system includes an infant postoperative monitoring system (1) as described in any one of claims 1 to 9, as well as a fixed bed board (2), a height-adjustable bed board (3), a lifter (4), a railing (5), a bed frame (6), and casters (7); The vital signs monitoring device (10) is installed on the bed frame (6); The body fluid monitoring device (20) is installed below the fixed bed board (2); The safety protection system (30) is installed on the fixed bed board (2) and the adjustable bed board (3); The medication management system (40) is installed on the fixed bed board (2) and the bed frame (6); The data management device (50) is installed on the bed frame (6); The environmental control device (60) is installed on the bed frame (6).

Images