TWI649727B - Wearable smart device for non-contact infants and its operation method - Google Patents

Abstract

The invention relates to a wearable intelligent device for non-contact infants and a method for operating the same, The invention provides a non-contact type intelligent wearable monitoring device for sensing physiological parameters of infants and young children in small and light volume, in particular to use respiratory vibration, heat source and environmental humidity sensing as monitoring of infant breathing and ambient temperature. The physical signal generated by humidity prevents infants and young children from suffocating for a long time without warning, causing brain damage or even death. The invention can realize the intelligentization of the respiratory monitoring and living environment monitoring and control of infants and young children, and can create a good and comfortable environment for the healthy growth and life of infants and young children, and avoid the discomfort of infants and young children.

Description

Wearable smart device for non-contact infants and its operation method

The present invention relates to a wearable smart device for infants and a method for operating the same, and more particularly to a wearable smart device for a non-contact infant and a method of operating the same.

Sudden infant death syndrome (SIDS), which is commonly referred to in medicine, refers to the sudden unpredictable death of a baby before the age of one, and it is still impossible to find after an autopsy and detailed on-site investigation after death. In the case of a cause of death, it can be judged as sudden death in infants.

In the past, in the medical cases of developed countries, the proportion of sudden deaths in infants ranged from 0.1 to 1%, and according to medical statistics in the United States in 2011, the number of babies who died of sudden infant death was ranked before the age of 1 year. 3 people. Therefore, sudden infant death is the most common cause of death in infants between 1 month and 1 year old. The incidence of cases occurred about 6 months before 6 months, and the most common is between 2 months and 4 months.

According to statistics from the Ministry of Health and Welfare from the Republic of China to the Republic of China in the year of the Republic of China, 231 unfortunate babies died of sudden infant death in the past six years. According to the data of 231 babies, infants under the full moon accounted for 18.2% of sudden infant death. In the first month but less than 2 months, infants accounted for 23.4% of sudden infant deaths, accounting for the highest ratio. And nearly 60% of infants with sudden infant death are After less than 3 months, until the end of 5 months, the number of sudden deaths of infants per month is relatively small, accounting for less than 5.2%. According to the death cause statistics of the Ministry of Health and Welfare of the Republic of China from 102 to 104, a total of 110 small lives died within 3 years due to sudden infant death syndrome, and the peak period occurred when the baby was 1 to 2 months old, including 103 years. At that time, the death toll from sudden infant death syndrome reached 30, indicating that the problem of sudden death in infants in China is becoming more and more serious.

Figure 1 shows the death toll of infant death syndrome in the Ministry of Health and Welfare. Figure 1 shows that in the four years from 102 to 105, the number of infant deaths due to sudden infant death is about 30 to 48 per year. In the 105 years, 32 infant death syndrome deaths, accounting for 3.9% of infant deaths, the sixth cause of infant death, showing that the problem of sudden death in infants in China is becoming more serious and should not be underestimated.

The exact cause of sudden infant death is still unclear, and current research in the medical community believes that it may be the result of multiple factors such as the baby's original physical or physiological diseases or environmental stressors. The source of environmental stress includes a variety of sleeping postures: such as drowsiness, side sleeping, and external conditions such as: excessive warming of the incubator environment, exposure to smoking environment. When a baby sleeps with his parents, there may be a chance of being accidentally crushed and causing suffocation.

In order to reduce the risk of sudden death syndrome in infants, the National Health Service of China has consulted the recommendations of the American Academy of Pediatrics and consulted domestic experts and relevant professional medical associations. In the Children's Health Handbook, the "Newborn Care Kit - Safety The exclusive chapter of the Sleeping Environment, the National Health Agency's recommended methods to reduce sudden infant death include: sleeping in a sleeping position (sleeping and sleeping can easily lead to sudden death), safe sleep environment (no soft objects in the sleeping area, Reduce the chance of covering the face), avoid the environment with excessive temperature difference (including wearing too much clothing and over-wrapping the baby), the air quality and circulation of the living environment, but most of them are artificial care measures when no one is on the spot to care for the baby. At the time, there is a lack of possible timely care and timely reminders.

In order to respond to the immediate monitoring needs of babies (or young children) on the market today, In the instant sensing, it can monitor the baby's physiological information remotely, and can instantly sense the current physiological information of the baby, which is an extremely important development technology in the future. In view of the current sensing devices on the market, most of them use adhesive contact measuring devices, that is, most of them use adhesive electrode pads, and the disadvantage of this method is that it is easy to cause skin allergies in infants and young children due to adhesive electrode pads. It will easily fall off when the baby turns over, but it will produce an error signal. In addition, since the conventional portable sensing device often needs to be fixed on the clothes or diapers of the infant, when the clothes or diapers are changed, or when the sensing device is charged, it is also necessary to reinstall, which is quite expensive. Time, and in the stability of the sensing device, it is not fixed every time the installation is fixed, and it is more likely to fall off due to any movement of the infant.

At present, there are two patents in the Republic of China, and the related technologies belong to the field of wearable infant physiological monitoring, namely: the baby movement and physiological parameter monitor with the application number No. 103128687, and the application number is number The baby kicks the monitor of 103131787 (certificate number: I540542). The patent No. 103128687 senses the baby's breathing, detects the vibration of the abdomen by touching the baby's abdomen, and detects it by a mechanical transmission mechanism, but its operation mode may be less accurate in signal transmission. Both of these patents are used in clothing, trousers or diapers, and must be in contact with the baby's skin. Long-term exposure may cause skin irritation in the baby. Therefore, it is necessary to consider good material selection. Biocompatibility-specific materials, which require increased processing time and processing costs, are less likely to be accepted by the market.

In addition to the two patents mentioned above, there are currently wearable infant monitoring devices available on the market, including, for example, MIMO baby care wear devices from Rest Devices, Inc., Smart sock from Owlet, USA, and Baby monitor from Sproutling, USA. Devices, etc., comprehensively, its monitoring function is nothing more than detectable life symptoms, including: heartbeat, respiration rate, oxygen content and other such as: sleep activity rate, body temperature and body posture, etc., but all the above devices are required Direct contact with the baby's skin allows for information.

As we all know, the simplest way to prevent skin allergies in infants and young children is to avoid contact with allergens and keep away from allergens. Therefore, when the patient's allergies do not touch the allergens, it will not stimulate the body to react strongly to allergic substances, and then induce allergies. However, in general, for newly-developed infants or sensitive skin infants, if the above-mentioned equipment is installed on the body, it is easy to cause redness and swelling of the baby's skin, but if any equipment cannot be installed, When monitoring, it is more likely to cause sudden death of the baby, there is indeed a dilemma.

As can be seen from the foregoing, monitoring the risk factors associated with sudden infant death include: sleep posture, whether or not the mouth and nose affect the breathing, the environment, the temperature and humidity between the clothes, and, according to the National Health Administration, the sleeping position of the baby Sleep environment is an important factor in the occurrence of infant mortality. Therefore, it is quite necessary to provide a wearable device that assists the newborn parents to take care of the baby, so as to reduce the sudden death rate of the baby in Taiwan, it is very important and urgent, and it is necessary to develop a new wearable type to assist the newborn parents to take care of the baby. The device can provide monitoring and reminding of multi-function parameters. In addition, it is necessary to improve the accuracy and sensitivity of the wearable device, and reduce the manufacturing time and manufacturing cost of the new wearable assisted newborn parent care device. It is necessary to provide a non-contact baby physiological parameter sensing device and a sensing method thereof, and the need to simplify the installation of the user, and to improve the accuracy of the current measurement.

The invention provides a non-contact type intelligent wearable monitoring device for sensing physiological parameters of infants and young children in small and light volume, in particular to use respiratory vibration, heat source and environmental humidity sensing as monitoring of infant breathing and environmental surroundings. The physical signal generated by temperature and humidity prevents infants and young children from suffocating for a long time without warning, causing brain damage or even death, and is used to instantly sense the temperature, humidity, kick and urine in the clothing, and appropriately give relevant care. Reminder of personnel.

The invention can realize the intelligentization of the respiratory monitoring and living environment monitoring and control of infants and young children, and can create a good and comfortable environment for the healthy growth and life of infants and young children, and avoid the discomfort of infants and young children.

The invention relates to a wearable device capable of assisting infant parents to take care of the baby, and can avoid direct contact with the skin, thereby preventing diseases such as redness and inflammation caused by direct contact with the skin of the infant, and is a practical design.

The invention further simplifies the reduction of the complicated mechanical design, and integrates all the detection function sensors into one, which can reduce the overall device size, reduce the processing time and the manufacturing cost, and reduce the complexity of the mechanical transmission mechanism to monitor the same. Inaccuracy caused by breathing signals.

The invention relates to a non-contact infant wearable smart device for assisting infant parents to take care of infants and young children, which is light and thin, can be directly adhered to the diaper, and monitors the respiratory vibration of the abdomen, the temperature and humidity between the clothes, and whether There are functional monitoring devices such as kicks to avoid adverse reactions caused by direct contact with the skin.

The wearable smart device for non-contact infants of the present invention can detect the inaccuracy of the mechanical transmission mechanism without considering whether to contact the abdomen, and can more accurately measure the respiratory signal, and more selectively Switch wireless devices to instantly monitor and record your baby's sleep habits.

The invention can assist the care of infants and toddlers of the parents or medical care related personnel by monitoring and reminding the sleep habits such as the vibration of the abdomen, the baby's posture, the environment (temperature and humidity) of the baby's clothing, and the kicking situation. It can reduce the chance of sudden infant death.

The main object of the present invention is to provide a wearing device for assisting a parent to take care of a newborn, which can be directly attached to a baby's diaper without being caught on the baby clothes or the diaper, and avoiding direct contact with the baby's skin to cause discomfort to the baby.

The invention can monitor physiological parameters of infants and young children, such as respiratory and abdominal movements, movements, activity states and temperature and humidity information between garments, in order to distinguish infants from physical discomfort, kicking and wetness, etc., or can give Appropriate reminders to parents of infants and children, and in the event of abnormal conditions, initiate a preset warning operation to inform parents or related caregivers to take necessary measures to solve the abnormal state immediately, not only providing the best comfort environment for the baby. It also ensures the safety of infants and young children.

The sensing signal data measured by the invention can be selectively transmitted to a central nursing station or a personal electronic carrying device, so as to facilitate the remote monitoring by the medical care related and caretaker personnel, thereby reducing the burden on the care personnel.

The invention relates to a wearable device for assisting a newborn parent to take care of an infant. The utility model has various features, which can detect the vibration and breathing of the abdomen by the abdominal motion sensor in a non-contact skin manner, and monitor the sensing by the angle. The device understands the baby's posture.

The invention is matched with the calculation of the wafer control and warning voice components for alerting the breathing state of the infant, and simultaneously using the environmental sensor to sense the temperature and humidity between the environment and the clothing, and judging the comfort level and kicking of the baby body. situation.

By means of the function display, the invention can use the preset warning operation to notify the relevant person to take necessary measures to provide the nursing work for assisting the newborn parent or the medical care related person, and to reduce the chance of sudden death of the baby.

In the embodiment of the present invention, a non-contact infant physiological parameter operation method can be provided, which monitors an infant by a wearable smart device for a non-contact infant, or monitors physiological parameters of the infant's clothing, and the non-contact The operation method of the wearable smart device for infants and infants includes the following steps: First, battery power is supplied as a power source for the wearable smart device for the non-contact infant. Next, the hardware and software initialization and signal connection are performed by the wearable smart device for the non-contact infant. It is judged whether the signal in the wearable smart device for the non-contact infant is abnormal. When it is determined that the signal abnormality occurs in the wearable smart device for the non-contact infant, the calculation control chip can control the warning voice component to issue the first warning symbol. If it is judged that the signal in the wearable smart device for non-contact infants is not abnormal, the temperature of the clothes of the infant is measured by the temperature and humidity sensor. Degree value. The humidity value of the baby's clothing room is measured by a temperature and humidity sensor. The abdominal movement monitoring sensor detects signals such as abdominal respiratory vibration and body posture. The angle sensor is also used to detect the baby. The aforementioned detection signal is transmitted to the calculation control chip. The arbitrarily controlled wafer is used to calculate the aforementioned detection signal to determine whether the threshold value is exceeded. When the judgment exceeds the threshold, the second warning symbol and the warning sound are issued. It is determined whether the selected detection signal is transmitted to the computer device, the mobile phone device, or the electronic device that can be monitored immediately, for example, including a palm-sized tablet device, but the present invention is not limited to the foregoing various devices. When the determination is YES, the computer device, the mobile phone device, or the electronic device that can be monitored immediately, for example, includes a palm-sized tablet device, but the present invention is not limited to the aforementioned various devices to display the detection result. When the determination is no, the detection result is not displayed. The calculation control chip is used to calculate the aforementioned detection signal to determine whether the threshold value is exceeded. When it is judged that the detection signal does not exceed the threshold, the monitoring is continued. When it is determined that the detection signal exceeds the threshold, the third voice signal is sent by the warning voice component. Go to the final use step.

In order to further understand the technical content and constituent elements of the present invention, the following description will be made in conjunction with the drawings.

100‧‧‧Non-contact wearable smart devices for infants and toddlers

1011‧‧‧Structural housing

1012‧‧‧Adhesive device

1013‧‧‧Sensor housing

102‧‧‧Battery

103‧‧‧ switch

104‧‧‧ calculus control chip

105‧‧‧Abdominal monitoring sensor

106‧‧‧Gyro sensor

107‧‧‧ Temperature and Humidity Sensor

108‧‧‧Power detection component

109‧‧‧Storage memory components

120‧‧‧Warning voice components

130‧‧‧Wireless transceiver

140‧‧‧ Infants and toddlers

142‧‧‧dressing

Figure 1 shows the death toll of infant death syndrome in the Ministry of Health and Welfare.

Fig. 2A is a wearable smart device for a non-contact infant according to the present invention.

Fig. 2B is a block diagram showing the internal components of the wearable smart device for a non-contact infant of the present invention.

Fig. 3 is a schematic view showing the use of the wearable smart device for non-contact infants of the present invention.

Fig. 4 is a flow chart showing the operation method of the wearable smart device for non-contact infants of the present invention.

The present invention discloses a wearable smart device for a non-contact infant. Referring to FIG. 2A, the wearable smart device 100 for non-contact infants includes the following components: Referring to FIG. 2A, the non-contact infant of the present invention The structural shell 101 of the wearable smart device 100 for children includes a shell attached to the devil smear device 1011, an adhesive device (devil smear) 1012, and a sensing device housing 1013, and further covers the power supply component circuit board (in the figure) Not shown).

As shown in FIG. 2A, the structural housing 1011 of the wearable smart device 100 for non-contact infants of the present invention further has at least one adhesive device (Devil Dip) 1012. The adhesive device 1012 is disposed on the outer casing and adheres to the devil squeezing device 1011. The wearable smart device 100 for the non-contact baby is adhered to the devil's stain 1012 of the devil smear device 1011, and can be repeatedly attached to the adhesive device 1011. Clothing for infants and toddlers.

Referring to FIG. 2B, the wearable smart device 100 for non-contact infants of the present invention includes a battery 102 having a function of supplying electric power to the wearable smart device of the non-contact infant of the present invention.

Next, in FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a switch 103 having a function of activating or deactivating the wearable smart device for the non-contact infant.

In addition, in FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a calculation control chip 104 having a function of receiving the detection value of each sensor, which can obtain the plural obtained by the sensor. Information signals, signal calculus, and judge whether to issue a warning.

Still in FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a abdominal motion monitoring sensor (acceleration sensor) 105 having signals for detecting abdominal respiratory vibrations and body postures, and In order to judge whether the infant is turning over and sleeping. The laparoscopic monitoring sensor (acceleration sensor) 105 is used to measure the acceleration value generated when the baby or the child moves. that is, When the abdominal motion monitoring sensor (acceleration sensor) 105 measures the abdominal respiratory shock or body movement of the baby, the acceleration value generated by the baby.

Continuing in FIG. 2B, the wearable smart device for non-contact infants of the present invention includes an angle monitoring sensor (gyro sensor) 106 having the function of detecting the tilt angle of the baby wearable device, which can assist It detects the posture of infants and toddlers, the functions of sleeping, sleeping, and turning. The gyro sensor 106 is an angle monitoring sensor that can measure the angle to understand the baby's posture, including the abdominal vibration sensor to detect the respiratory vibration of the abdomen.

In FIG. 2B, the wearable smart device for non-contact infants of the present invention includes an environmental monitoring sensor (temperature and humidity sensor) 107, and the temperature and humidity sensor 107 is used to measure an infant (or a child). The temperature value of the clothing room has the function of sensing the temperature and humidity between the clothes, thereby assisting in judging the comfort level of the infant, the kicking and the wetness.

In addition, in FIG. 2B, the wearable smart device for a non-contact infant of the present invention includes a power detecting element 108 having a function of detecting a power value of the device.

In FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a storage memory component 109 having a stored abdominal motion detection value, an angle detection value, a clothing room temperature and humidity sensing value, and a power amount. The detection value and the function of passing to the calculation control chip for signal calculation.

In addition, in FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a warning voice component 120 having a function of receiving a warning signal of the calculation control chip and issuing a warning. The alerting voice component 120 is disposed on the circuit board and alerts the voice component 120 to issue an alert. It should be noted that in the embodiment, the warning voice component 120 can be a device such as a buzzer that can be alerted by sound or light.

In FIG. 2B, the wearable smart device for non-contact infants of the present invention includes a wireless transceiver 130 having wirelessly transmitting the aforementioned various detection signals (including a laparoscopic detection value, an angle detection value, Clothing room temperature and humidity sensing value, power detection value) to computer, mobile phone Or other electronic devices.

In FIG. 2B, the battery 102 is electrically connected to the power detecting component 108. The battery 102 is electrically connected to the switch 103. The switch 103 is electrically connected to the calculation control chip 104. The logic control chip 104 is electrically connected to the belly monitoring sensor. (Acceleration Sensor) 105, the calculation control wafer 104 is electrically connected to the wireless transceiver 130, the calculation control wafer 104 is electrically connected to the gyro sensor 106 in parallel, and the calculation control wafer 104 is electrically connected to the temperature and humidity in parallel The sensor 107, the arithmetic control chip 104 is electrically connected to the storage memory element 109, and the arithmetic control chip 104 is electrically connected to the warning voice element 120, thereby forming the wearable smart device for non-contact infants of the present invention.

Please refer to FIG. 3, which is a schematic diagram of the use of the wearable smart device 100 for non-contact infants of the present invention. In the present embodiment, the wearable smart device 100 for non-contact infants is worn on the dressing 142 of the infant 140. It should be noted, however, that the non-contact (infant and child) physiological parameter sensing device 100 of the present invention is not limited to being worn on clothes, and may be worn on pants or diapers of infants 140 (not shown). Or any position where the infant 140 is wearing clothes.

As shown in FIG. 3 above, the non-contact infant wearable smart device 100 is used to monitor the physiological parameters of the clothing 142 of the infant 140, that is, it is used to monitor the clothing room of the baby (or young child). Physiological parameters.

As shown in FIG. 3, the wearable smart device 100 for non-contact infants of the present invention integrates the components into a miniaturized module, which is suitable for attaching to the diaper of the infant 140, and can provide an infant 140. Comfort, and thus avoid discomfort caused by the wearer touching the skin. The invention adopts a non-contact human skin method to monitor the temperature and humidity between the breathing and the clothing, so as to distinguish whether the infant 140 has breathing, or the comfort level of the body, and whether there is a function such as kicking and wetting. In addition, the present invention is combined with a calculus wafer control and warning voice component for alerting the breathing state of the newborn parent, and simultaneously sensing the temperature and humidity of the environment and the clothing 142 by using the environmental sensor to determine the comfort level of the infant 140 body. And the kicking situation, by means of the function display available to perform the preset warning operation, notifying the relevant person to take necessary measures to provide assistance to the new student The care of parents, or medical care personnel, can reduce the chance of sudden death in infants and young children.

Please refer to FIG. 4 for a flow chart of a method for operating a wearable smart device for a non-contact infant according to the present invention, and FIG. 4 shows a wearable smart device 100 for a non-contact infant (see FIG. 3). The method of monitoring the physical condition of the clothing 142 of the infant 140, the operation method of the wearable smart device for the non-contact infant includes the following steps: first, in step 301 of FIG. 4, the battery 102 is used to provide power. As a power source of the wearable smart device 100 for non-contact infants.

Next, in step 302 of FIG. 4, the hardware and software initialization and signal connection are performed by the wearable smart device 100 for non-contact infants.

Continuing in step 303 of FIG. 4, it is determined whether an abnormality has occurred in the signal in the wearable smart device 100 for the non-contact infant.

Following step 3031 of FIG. 4, if it is determined that a signal abnormality occurs in the wearable smart device 100 for the non-contact infant, the arithmetic control wafer 104 can control the storage alert voice component 120 to issue the first alert symbol.

Next, in step 304 of FIG. 4, if it is determined that the signal in the wearable smart device 100 for non-contact infants is not abnormal, the temperature and humidity sensor 107 measures the temperature value between the clothes 142 of the infant 140.

Following step 305 of FIG. 4, the humidity value of the clothing 142 of the infant 140 is measured by the temperature and humidity sensor 107.

Next, in step 306 of FIG. 4, the function of monitoring the acceleration of the sensor (acceleration sensor) 105, that is, the detection of the abdominal respiratory vibration signal, and the body posture and the signal, is used to measure the infant 140. The acceleration value generated during the operation, and thereby determining whether the infant 140 is turned over and doze.

Following step 307 of FIG. 4, the angle monitoring sensor (gyro sensor) 106 detects the infant 140, and has the function of tilting angle to assist in detecting the infant 140. The function of posture, sleeping, side sleeping and turning posture.

In step 308 of FIG. 4, the foregoing plurality of detection signals (including the abdominal motion detection value, the angle detection value, the 142 temperature and humidity sensing values, and the power detection value) are transmitted to the calculation control chip. 104.

Next, in step 309 of FIG. 4, the arithmetic control chip 104 calculates the plurality of detection signals to determine whether the threshold value is exceeded.

In step 3091 of FIG. 4, when the foregoing step 309 determines that the threshold value is exceeded, the second warning symbol and the warning sound are issued.

In step 310 of FIG. 4, it is determined whether the selected plurality of detection signals are transmitted to the computer device, the mobile phone device, or the electronic device that can be monitored immediately, for example, including a palm-sized tablet device, but the present invention is not limited to the foregoing Class device.

In step 311A of FIG. 4, when the foregoing step 310 is determined to be YES, the computer device, the mobile phone device, or the electronic device that can be monitored immediately, for example, includes a palm-sized tablet device, but the present invention is not limited to the foregoing types. Device to display the detection results.

In step 311B of FIG. 4, when the determination is negative, the detection result is not displayed.

In step 312 of FIG. 4, the calculation control wafer 104 is used to calculate the aforementioned detection signal to determine whether the threshold value is exceeded.

In step 312A of FIG. 4, when it is determined in the foregoing step 312 that the detection signal does not exceed the threshold, the monitoring is continued.

In step 312B of FIG. 4, when it is determined in step 312 that the detection signal exceeds the threshold, the voice component 120 is alerted to issue a third warning signal.

In step 313 of Figure 4, the final use step is entered.

It can be seen from the foregoing embodiments of the present invention that the physiological method of the infant 140 can be easily and wirelessly sensed by using the sensing method of the wearable smart device for non-contact infants of the present invention. The number can be easily fixed by the sticking device, simplifying the use and improving the sensing accuracy.

The above is only the preferred embodiment of the present invention, and is not intended to limit the scope of the present invention; all other equivalent changes or modifications which are not departing from the spirit of the present invention should be included in the following. Within the scope of the patent application.

Claims (7)

A wearable smart device for a non-contact infant includes at least: a structural shell comprising: a shell attached to a devil smear device; an adhesive device; and a sensing device housing; a battery having a battery The function of power to operate a wearable smart device for a non-contact infant; a switch having a function of activating or closing the wearable smart device for the non-contact infant; and a calculation control chip having a senseable reception The function of detecting value of one of the devices can perform a signal calculation on one of the information signals obtained, and determine whether to issue a warning message; a abdominal motion monitoring sensor having a signal for detecting a respiratory vibration of the abdomen And a body posture signal to determine whether an infant is turning over or sleeping; the angle monitoring sensor has a function of detecting a tilt angle, which can assist in detecting the baby's posture, sleeping on the side, sleeping on the side and The function of turning over posture to understand the posture of infants and children; an environmental monitoring sensor, which has the function of sensing the temperature and humidity between clothes, thereby assisting in judging infants a comfort level, a kick and a wet condition; a power detecting component having a function of detecting a power value of the device; and a storage memory component having a stored belly detection value, an angle detection value, and a a temperature and humidity sensing value of the clothing room, a power detection value, and a function of transmitting the signal to the calculation control chip for performing the signal calculation; a warning voice component having a warning signal for receiving the calculation control chip and issuing a warning Features; a data transmission component having a plurality of detection signals transmitted to a computer, a mobile phone or other electronic device through a wireless method; and a wireless transceiver having a wireless transmission method for transmitting a plurality of detection signals to The computer, the mobile phone or the other electronic device; the battery is electrically connected to the power detecting component, the battery is electrically connected to the switch, the switch is electrically connected to the calculation control chip, and the calculation control chip is electrically connected to the abdominal motion monitoring sensor The calculation control chip is electrically connected to the wireless transceiver, the calculation control chip is electrically connected to the gyro sensor in parallel, and the calculation control chip is electrically connected to the environmental monitoring sensor in a parallel manner, the calculation control The wafer is electrically connected to the warning voice component, and the calculation control chip is electrically connected to the data transmission component to form the wearable smart device for the non-contact infant. The non-contact wearable smart device for infants and young children, as claimed in claim 1, wherein the adhesive device comprises a devil. The non-contact infant wearable smart device of claim 1, wherein the warning voice component comprises a buzzer. The non-contact infant wearable smart device of claim 1, wherein the angle monitoring sensor comprises a gyro sensor. The non-contact infant wearable smart device of claim 1, wherein the environmental monitoring sensor comprises a temperature and humidity sensor. Non-contact infant wearable smart device The operation method comprises at least: providing a power source as a power source by a battery; performing a software and hardware initialization and signal connection; determining whether a signal in the wearable smart device of the non-contact infant is abnormal; if the non-contact type is determined If a signal abnormality occurs in the wearable smart device for infants and toddlers, a calculation control chip can control the warning voice component to issue a first warning symbol; if it is determined that the signal in the wearable smart device of the non-contact infant is not abnormal, A temperature and humidity sensor measures a temperature value of a baby's clothing room; a humidity and humidity sensor measures the humidity value of the baby's clothing room; and a abdominal motion monitoring sensor detects a abdominal respiratory vibration a signal and a body posture signal for measuring an acceleration value generated by the infant to determine whether the infant is in a state of turning over and sleeping; monitoring the sensor at an angle to detect the infant due to the inclination angle Function to assist in detecting baby's movement posture, sleeping, side sleeping and turning posture; transmitting multiple detection signals The calculus control chip is used to control the wafer to calculate a plurality of detection signals to determine whether a threshold value is exceeded; when the threshold value is exceeded, a second warning symbol and a warning sound are issued; and whether the selected plurality of detection signals are determined is Passing to a computer device, a mobile device, or an electronic device that can be monitored immediately; when the determination is yes, the computer device, the mobile device, or the electronic device that can be monitored immediately to display a detection result; When the determination is no, the detection result is not displayed; and the plurality of detection signals are calculated by the calculation control chip to determine whether the threshold value is exceeded; when it is determined that the plurality of detection signals do not exceed the threshold, then And continuing to monitor; when it is determined that the plurality of detection signals exceed the threshold, the third warning signal is sent by a warning voice component; and the use completion step is entered. The method for operating a wearable smart device for a non-contact infant according to claim 6, wherein the angle monitoring sensor comprises a gyro sensor.