KR20240065932A - Apparatus and method for measuring amount of feeding and feeding pattern - Google Patents

Abstract

A smart bottle and its control method are provided. This smart bottle includes a bottle configured to accommodate liquid and a base disposed at a lower portion of the bottle, wherein the base is an elastic body that is elastically deformed by the weight of the bottle and the base, and is disposed on an upper portion of the elastic body. A weight measurement sensor measures the weight of the bottle by measuring the pressure transmitted from the ground in the vertical direction by the elastic body in reaction to the gravity, and measures the amount of feeding based on the change in the measured weight value of the weight measurement sensor. It is composed of a control unit that does.

Description

Device and method for measuring feeding amount and feeding pattern {APPARATUS AND METHOD FOR MEASURING AMOUNT OF FEEDING AND FEEDING PATTERN}

The present invention relates to a smart bottle, and more specifically, to a smart bottle capable of measuring feeding amount and feeding pattern, and a control method thereof.

A bottle is a container used to contain liquid. Among them, feeding bottles are generally used for lactation. However, the recommended amount and frequency of feeding for a baby varies depending on the baby's age, weight, etc., and the appropriate temperature for formula preparation also varies depending on the type of formula. Therefore, when raising children, a method is generally used in which the caregiver remembers the feeding method and records the amount and number of feedings through handwriting. However, as IoT (Internet of Things) technology has recently developed, there is an increasing demand for more convenient formula and feeding methods in the childcare field.

In relation to this, Korea Patent Publication No. 10-2017-0057026 (publication date: May 24, 2017) "Baby bottle warmer capable of measuring weight and feeding management method using the same" states that the baby's feeding amount is measured by measuring the weight of the baby bottle. It describes how to manage the baby's feeding record by calculating the feeding start time and feeding end time. However, this method requires placing the baby bottle in a baby bottle warmer in order to measure the amount of feeding and manage feeding records. Therefore, it is not possible to measure the amount of feeding or manage feeding records in places where baby bottle warmers are not provided. In addition, when measuring the feeding amount, if the baby bottle warmer is not placed on a flat place, there is a problem that it is difficult to accurately calculate the feeding amount because the weight of the baby bottle is measured inaccurately.

Meanwhile, Korea Patent Publication No. 10-2017-0071999 (publication date: June 26, 2017) “smart container” includes a smart container that includes a measuring unit that measures the weight at the bottom of the container body that contains the liquid inside. Container is listed. However, since such a device measures the amount of feeding by simply measuring the weight before drinking and the weight after drinking, it cannot separately detect whether or not the patient is breastfeeding, and has the problem that the weight measurement sensor must always be operating in real time to detect feeding.

Therefore, in this field of technology, there is a demand for a feeding amount measurement method that can detect feeding by methods other than weight measurement and accurately measure the amount of feeding after feeding, as well as a smart bottle using the same.

The purpose of the present invention is to provide a method for measuring the amount of feeding that can detect feeding by methods other than weight measurement and a smart bottle using the same.

Another object of the present invention is to provide a method for measuring the amount of feeding that can accurately measure the amount of feeding and efficiently record the measured amount of feeding, and a smart bottle using the same.

According to one aspect of the present invention, a smart bottle is provided. The smart bottle includes a bottle configured to accommodate liquid and a base disposed at a lower portion of the bottle, wherein the base is an elastic body that is elastically deformed by the weight of the bottle and the base, and is disposed on an upper portion of the elastic body. A weight measurement sensor measures the weight of the bottle by measuring the pressure transmitted from the ground in the vertical direction by the elastic body in reaction to the gravity, and measures the amount of feeding based on the change in the measured weight value of the weight measurement sensor. It includes a control unit that does.

According to another aspect of the present invention, the device further includes a lid, and the bottle is implemented by including a lid recognition sensor that recognizes whether the lid is coupled.

According to another aspect of the present invention, the device determines that formulating has started when the lid is removed while the bottle is empty, and determines that formulating has ended when the bottle is filled with contents and the cap is attached. It is implemented based on judgment.

According to another aspect of the present invention, the control unit determines that feeding has started when the lid is removed while the contents are in the bottle, and determines that feeding has ended when the weight of the bottle is reduced and the lid is attached. It is implemented based on judgment.

According to another aspect of the present invention, the control unit is implemented by determining the amount of feeding based on the amount of change in the weight of the bottle.

According to another aspect of the present invention, the base is implemented by further including an ultraviolet (UV-C) lamp for sterilizing the contents inside the bottle by irradiating ultraviolet rays toward the bottle.

According to another aspect of the present invention, the ultraviolet lamp is implemented by irradiating ultraviolet rays when the weight of the bottle is more than a threshold value.

According to another aspect of the present invention, the base further includes a tilt sensor that recognizes the tilt of the bottle, and the ultraviolet ray lamp emits ultraviolet rays when the tilt of the bottle has an error of less than or equal to a threshold with respect to the vertical direction of the ground. It is implemented by investigating.

According to another aspect of the present invention, the tilt sensor includes at least one of a gyro sensor or an acceleration sensor, and the control unit provides angular velocity information measured by the gyro sensor or information measured by the acceleration sensor. It is implemented by calculating the slope information from the acceleration information.

According to another aspect of the present invention, the weight measurement sensor is implemented by including at least one of a beam-type load cell, a three-wire load cell, and a column-type load cell.

According to another aspect of the present invention, a method of operating a device configured to be coupled to one side of a bottle is provided. The method includes determining whether the bottle is empty by measuring the weight of the liquid contained in the bottle, determining whether the bottle cap is opened, and when the bottle cap is opened while the bottle is empty. , is implemented including the step of determining that crude oil preparation has begun.

According to another aspect of the present invention, when it is determined that the crude oil has started, determining whether liquid is contained in the bottle by measuring the weight of the bottle; determining whether the lid of the bottle is closed; When the lid of the bottle is closed while the liquid is contained in the bottle, the method further includes determining that crude oil preparation has ended and heating the bottle to the crude oil temperature.

According to another aspect of the present invention, measuring the weight of the liquid contained in the bottle to determine whether the bottle contains liquid, determining whether the lid of the bottle is opened, and liquid contained in the bottle It is implemented by further including the step of determining that feeding has begun when the bottle's lid is opened.

According to another aspect of the present invention, when it is determined that the feeding has begun, determining whether the weight of the liquid in the bottle decreases by measuring the weight of the bottle; determining whether the lid of the bottle is closed; When the weight of the liquid decreases and the lid of the bottle is closed, the method further includes determining that feeding has ended and calculating the amount of feeding and transmitting it to the terminal.

According to the present invention, breastfeeding can be detected using methods other than weight measurement.

In addition, the amount of feeding can be accurately measured, and the measured amount of feeding can be managed efficiently.

1 shows a lactation management system according to an embodiment of the present invention.
Figure 2 shows a smart bottle according to an embodiment of the present invention.
Figure 3 is a side view of a smart bottle according to another embodiment of the present invention.
Figure 4 is a top plan view of the bottom of the smart bottle of Figure 3.
Figure 5 shows the structure of a base including a beam-type load cell.
Figure 6 shows the structure of a base including a three-wire load cell.
Figure 7 shows the structure of a base including a cylindrical load cell.
Figure 8 shows the structure of a smart bottle according to an embodiment of the present invention.
Figure 9 shows a method for determining whether crude oil is present according to an embodiment of the present invention.
Figure 10 shows a method for determining whether or not to breastfeed according to an embodiment of the present invention.

The present invention will be described in detail with reference to the attached drawings as follows. Here, repeated descriptions, known functions that may unnecessarily obscure the gist of the present invention, and detailed descriptions of configurations are omitted. Embodiments of the present invention are provided to more completely explain the present invention to those skilled in the art. Accordingly, the shapes and sizes of elements in the drawings may be exaggerated for clearer explanation.

Hereinafter, preferred embodiments according to the present invention will be described in detail with reference to the attached drawings.

1 shows a lactation management system according to an embodiment of the present invention.

Referring to FIG. 1, a feeding management system according to an embodiment of the present invention may include a smart bottle 100 and a portable terminal 110.

The smart bottle 100 can transmit feeding-related information, such as bottle temperature information, tilt information, water level information, and feeding amount information, to the portable terminal 110 through short-distance communication. For this purpose, the smart bottle 100 may include a base device at the bottom of the bottle. The base device may be integrally coupled to the bottle, or may be detachably coupled to the bottle. As an example, the base device is provided on the lower side of the bottle as shown in FIG. 1 and can communicate with the portable terminal 110 based on short-range communication standards such as WiFi (Wireless Fidelity) and Bluetooth.

The mobile terminal 110 refers to all devices that a user can carry, including small devices such as tablets, smart phones, smart watches, etc., as well as laptops and notebooks. This also includes devices such as computers.

An application for exchanging information with the smart bottle 100 may be installed on the mobile terminal 110. The application can obtain feeding-related information from the smart bottle 100 using the portable terminal 110 and record it in the memory provided in the portable terminal 110. In addition, the application can generate feeding pattern information for the baby based on the baby's number of months information received from the user through the mobile terminal 110 and feeding-related information received from the smart bottle 100. Feeding-related information and feeding pattern information recorded in the terminal 110 can be displayed through the display of the portable terminal 110.

In addition, the application can obtain recommended formula temperature information for the powdered milk based on the powdered milk information obtained through the mobile terminal 110, and uses the mobile terminal 110 to transmit the recommended formula temperature information to the smart bottle. You can control it. In this case, the smart bottle 110 can set the crude oil temperature according to the recommended crude oil temperature information received from the portable terminal 110. The powdered milk information is obtained from an image captured by the camera of the mobile terminal 110, UPC (universal product code), EAN13 (European Article Number 13), bar code, QR code (Quick Response code), etc., Input can be received from the user through the mobile terminal 110.

Meanwhile, the application provides information about the baby based on the number of months of the baby input from the user through the mobile terminal 110 and the feeding-related information received from the smart bottle 100, for example, as shown in Table 1 below. Feeding pattern information can be generated.

month Number of times (per day) term Duration less than 1 10~12 1:30~2:00 0:10~0:40 1~2 10 2:00~2:30 0:10~0:30 3~4 8 2:30~3:00 0:10~0:30 5~6 6~7 3:00 0:10~0:30 7 or more 6 3:30 0:10~0:30

The application may provide a feeding preparation alarm to the user using the mobile terminal 110 when the next feeding time is approaching based on the feeding pattern information shown in Table 1. For example, in a situation where the baby is 7 months old, if it is determined that feeding has ended at 12 o'clock based on the feeding-related information received from the smart bottle 100, the application will start based on information about the term at 7 months or more. 3:30 is determined as the next scheduled feeding time, and 10 minutes before that, at 3:20, a feeding preparation alarm can be provided to the user through the push function, vibration function, sound, etc. of the mobile terminal 110. there is. In addition, the application can compare the feeding pattern information of the baby with the feeding pattern information of the baby corresponding to the same number of months by region, age, and/or gender, and display the related information through the mobile terminal 110. In addition, the application can provide the user with functions to set the feeding temperature and feeding temperature, and to select the feeding mode and feeding mode. Figure 2 shows a smart bottle according to an embodiment of the present invention.

Referring to FIG. 2, the smart bottle according to this embodiment includes a bottle 210, a nipple 230, and a base 250.

The bottle 210 is configured to accommodate water, powdered milk, milk, etc. The bottle 210 may be made of various materials such as glass, plastic, etc., as needed.

At this time, the bottle 210 may be made of tempered glass that does not transmit ultraviolet rays (UV). Although not shown in FIG. 2, the bottle 210 may be equipped with a water level sensor to measure the water level in the bottle. For example, the water level sensor may be implemented as a plurality of resistance sensors or at least one capacitance level sensor.

The nipple 230 may be implemented in a replaceable form depending on the baby's number of months and eating speed. A straw 231 may be coupled to one side of the nipple 230. In this case, the straw may be provided with a weight 233 to prevent abdominal pain in the baby. The straw may be made of a material with a certain amount of elasticity so that it can be positioned in the liquid in the bottle 210 by the weight even if the bottle 210 is tilted.

The base 250 may be formed integrally with the bottle 210 or may be formed to be attachable to one side of the bottle. The base 250 includes a temperature sensor 251, a tilt sensor 252, a status indicator 253, an ultraviolet lamp 254, a heater 255, a control unit 256, a communication unit 257, a vibration motor 258, Includes a battery 259 and a button 260.

The temperature sensor 251 may be located on a protrusion provided on the upper side of the base 250 to be spaced apart from the heater 255 by a predetermined distance. The heater 255 may be implemented in a plate shape to transfer sufficient heat energy to the bottle 210. If the temperature sensor 251 and the heater 255 are not spaced apart by a predetermined distance, the temperature sensor 251 cannot accurately measure the temperature of the bottle 210 due to heat generated from the heater 255. Therefore, it is preferable that the temperature sensor 251 is provided on the upper protrusion of the base 250, and for this purpose, a concave portion may be provided on the lower side of the bottle 210 to accommodate the temperature sensor 251.

The tilt sensor 252 may be configured to obtain tilt information of the bottle. As an example, the tilt sensor 252 may be implemented as at least one of a gyro sensor and an acceleration sensor. When a gyro sensor is used as the tilt sensor 252, tilt information can be calculated from angular velocity information measured by the gyro sensor. The tilt information may be periodically transmitted to the mobile terminal.

The heater 255 may be configured to heat the liquid contained in the bottle 210. For this purpose, the heater 255 may be provided in a plate shape as described above.

The control unit 256 may include a processor or MCU and may perform all processes related to the smart bottle.

At this time, the processor or MCU may be mounted on a PCB board. That is, the control unit 256 includes a temperature sensor 251, a tilt sensor 252, a status indicator 253, an ultraviolet lamp 254, a heater 255, a communication module 257, and a vibration motor ( 258), the operation of the battery 259, etc. can be controlled.

The communication unit 257 transmits feeding-related information such as temperature information measured by the temperature sensor, tilt information measured by the tilt sensor, and information about the remaining amount of the battery 259 to an external device (e.g., repeater, mobile terminal, etc.). You can.

Additionally, the communication unit 257 may receive feeding temperature setting information, feeding temperature setting information, mode switching information, etc. from an external device.

The communication unit 257 may include an NFC chip, NFC antenna, Bluetooth module, Wi-Fi module, 5G communication module, etc. For example, the communication unit 257 may communicate with the terminal using the Bluetooth 4.0 communication method.

The vibration motor 258 may be configured to generate vibration when a notification is required under the control of the controller 256. For example, the vibration motor 258 tilts the bottle 210 at a preset angle for more than a preset period of time, and the temperature of the bottle 210 measured from the temperature sensor 251 is adjusted in advance. If the temperature is above the set temperature, the motor can be driven to notify the user.

The battery 259 may be configured to supply power required to drive the smart bottle. The control unit 256 checks the remaining amount of the battery 259 and, if it is determined that the formula temperature and/or the feeding temperature will not be reached when heating the bottle 210, does not operate the heater 255 and turns on the status indicator light 253 and the /Or, the vibration motor 258 can be used to notify that the remaining battery power of the battery 259 is low. In this case, the portable terminal can also notify that the remaining battery 259 is low through a push, vibration, or sound.

The button 260 can be used to turn on/off the power of the base 250 or to switch between the feeding mode and the feeding mode.

3 and 4 show a smart bottle according to another embodiment of the present invention. Figure 3 is a side view of a smart bottle according to another embodiment of the present invention, and Figure 4 is a top view of the bottom of the smart bottle of Figure 3.

*Referring to FIGS. 3 and 4, the smart bottle according to this embodiment includes a lid 305, a nipple 310, a baby bottle coupling part 315, a bottle 320, and a base 330.

The lid 305 is implemented in a form that covers the nipple to prevent the nipple from being contaminated. Additionally, the lid 305 can be used to recognize the start and end of a fueling mode. For example, the baby bottle coupling part 315 or the bottle 320 may include a sensor that recognizes whether the cap 305 is coupled, and can recognize whether the cap 305 is installed. A control device or control unit consisting of a processor or MCU mounted on the board 350 can determine the start/end of the feeding mode and the start/end of the feeding mode based on whether the lid 305 is coupled and the change in the weight of the bottle. there is. For example, when the bottle 320 is empty and the lid 305 is removed, the fueling mode is recognized as having started, and when the bottle 320 contains liquid and the lid 305 is installed, the fueling mode ends. It can be recognized as having been done. Whether the bottle 320 is empty or contains liquid can be measured by the weight measurement sensor 360 of the base 330.

Lid 305 may also be used to recognize the start and end of a feeding mode. For example, if the lid 305 is removed while the bottle 320 contains liquid, the feeding mode is recognized as having started, and the weight of the liquid in the bottle 320 is reduced and the lid 305 is reinstalled. In this case, it may be recognized that the feeding mode has ended. At this time, the amount of feeding can be measured by calculating the weight of the reduced liquid in the bottle 320.

The nipple 310 may be implemented in a replaceable form depending on the number of months and eating speed of the baby.

The baby bottle coupling portion 315 is configured to allow the nipple 310 to be coupled to the bottle 320. For example, the nipple 310 may be configured with a baby bottle coupling portion 315 so that it can be coupled to the bottle 320 through rotation.

The bottle 320 is configured to accommodate water, powdered milk, milk, etc. The bottle 320 may be made of various materials such as glass, plastic, etc., as needed. At this time, the bottle 320 may be made of PPSU and may be formed by injection molding.

At this time, the bottle 320 may be made of tempered glass that does not transmit ultraviolet rays (UV). Although not shown in FIG. 3, the bottle 320 may be equipped with a water level sensor to measure the water level in the bottle. For example, the water level sensor may be implemented as a plurality of resistance sensors or at least one capacitance level sensor.

The base 330 may be formed integrally with the bottle 320 or may be formed to be attachable to one side of the bottle. The base 330 includes a temperature sensor 335, an ultraviolet lamp 340, a heater 345, a substrate 350, a battery 355, a weight measurement sensor 360, a status indicator 365, and an elastic body 370. Includes.

The temperature sensor 335 may be located on a protrusion provided on the upper side of the base 330 to be spaced apart from the heater 345 by a predetermined distance. If the temperature sensor 335 and the heater 345 are not spaced apart by a predetermined distance, the temperature sensor 335 cannot accurately measure the temperature of the bottle 210 due to the heat generated by the heater 345. Therefore, it is preferable that the temperature sensor 335 is provided on a protrusion on the upper side of the base 330, and for this purpose, a concave portion may be provided on the lower side of the bottle 320 to accommodate the temperature sensor 335.

The ultraviolet lamp 340 emits ultraviolet rays to sterilize the bottle 320 or the liquid within the bottle 320. The ultraviolet lamp 340 may be implemented as a UV-C LED. At this time, the ultraviolet lamp 340 irradiates light in a vertical direction so that the light is not radiated to the outside of the bottle 320, and may be configured to irradiate light only at an angle within a certain range.

At this time, the ultraviolet lamp 340 may be configured to perform sterilization and disinfection only when contents are contained in the bottle. At this time, the ultraviolet lamp 340 may be configured to emit ultraviolet rays only when the weight of the bottle 320 measured through the weight measurement sensor 360 is greater than or equal to a threshold value.

Meanwhile, the ultraviolet lamp 340 may be configured to emit ultraviolet rays only when the bottle is tilted vertically to the ground. For example, although not shown in the drawing, the smart bottle may further include a tilt sensor, and the ultraviolet ray lamp 340 emits ultraviolet rays only when the tilt of the bottle has an error less than or equal to a threshold with respect to the vertical direction of the ground. It may be configured to emit.

In addition, in order to protect the user of the smart bottle from ultraviolet rays, the ultraviolet lamp 340 only uses ultraviolet rays when it is determined that the lid 305 is connected to the bottle 320 by a sensor that recognizes whether the lid 305 is connected to the bottle 320. It may be configured to emit.

The heater 345 may be implemented in a plate shape to transmit sufficient heat energy to the bottle 320. At this time, the heater 345 may be implemented as a film heater.

The board 350 may be equipped with a processor or MCU and electronic circuits necessary for driving the smart bottle.

The battery 355 may be configured to supply power necessary to drive the smart bottle.

The weight measurement sensor 360 is disposed on the upper part of the elastic body 370 and measures the weight of the bottle 320 by measuring the pressure transmitted from the ground in the vertical direction by the elastic body 370 in reaction to gravity. At this time, the weight measurement sensor 360 may be configured as a load cell, and a beam-type load cell, a column-type load cell, a three-wire load cell, etc. may be used.

The status indicator 365 can indicate by changing color whether the temperature inside the bottle 320 has reached the formula temperature or feeding temperature in the feeding mode or feeding mode. Additionally, it may indicate whether the battery 355 is in a low state. At this time, the status indicator light 365 may be implemented as an LED.

The elastic body 370 is elastically deformed by the weight of the upper parts, such as the lid 305, nipple 310, bottle 320, and base 320. At this time, the elastic body 370 may be implemented by silicon or spring.

*Figures 5 to 7 show the configuration of a base including a load cell according to various embodiments of the present invention.

Referring to FIG. 5, the base 500 according to the embodiment of FIG. 5 represents a base including a beam-type load cell, and the base 500 includes a load cell 510, first and second fixing plates 520 and 530, and an elastic body. Includes (540).

The load cell 510 may be implemented as a beam-type load cell and measures the weight of the bottle by measuring the pressure transmitted in the vertical direction from the ground by the elastic body 540 in reaction to gravity.

The first and second fixing plates 520 and 530 fix the load cell 510 so that it does not leave the space between the first and second fixing plates 520 and 530.

The elastic body 540 is elastically deformed by the weight of components placed on the upper side, such as the bottle and base. At this time, the elastic body 540 may be configured to have an area equal to the bottom area of the first and second fixing plates 520 and 530, as shown in FIG. 5 . At this time, the first and second fixing plates 520 and 530 and the elastic body 540 may all be configured to have a circular shape, and their diameters may all be configured to be the same as d1.

Referring to FIG. 6, the base 600 according to the embodiment of FIG. 6 represents a base 600 including a three-wire load cell, and the base 500 includes a load cell 610, a load cell case 620, and an elastic transmission unit. (625), and includes an elastic body (630).

The load cell 610 may be implemented as a beam-type load cell, and measures the weight of the bottle by measuring the pressure transmitted in the vertical direction from the ground by the elastic body 630 in reaction to gravity.

The load cell case 620 fixes the load cell 610 so that it does not leave the space inside the load cell case 620. Additionally, the load cell case 620 contacts the load cell 610 and the elastic transmission unit 625 to transmit the force of the elastic transmission unit 6250 to the load cell 610.

The elastic transmission unit 625 is disposed between the load cell case 620 and the elastic body 630 and transmits the force of the elastic body 630 to the load cell case 620. The elastic transmission unit 625 may be configured such that the area of the contact surface with the load cell case 620 is wider than the area of the contact surface with the elastic body 630.

The elastic body 630 is elastically deformed by the weight of components placed on the upper side, such as the bottle and base. At this time, the elastic body 630 may be configured so that the area of the contact surface with the elastic transmission unit 625 is narrower than the area of the contact surface with the ground. At this time, the contact surface between the elastic body 630 and the elastic transmission unit 625 may be circular, and the diameter of the circle forming the contact surface may have an area of d2.

Referring to FIG. 7, the base 700 according to the embodiment of FIG. 7 represents a base 700 including a cylindrical load cell, and the base 700 includes a load cell 710, a load cell fixing portion 715, and an elastic transmission. It includes a part 720 and an elastic body 730.

The load cell 710 may be implemented as a cylindrical load cell, and measures the weight of the bottle by measuring the pressure transmitted in the vertical direction from the ground by the elastic body 730 in reaction to gravity.

The load cell fixing unit 715 is configured to surround and secure the load cell 610 so that it does not shake in the horizontal direction.

The elastic transmission unit 720 is disposed between the load cell 610 and the elastic body 730 and transmits the force of the elastic body 630 to the load cell 710. The elastic transmission unit 720 may be configured so that the area of the contact surface with the load cell 710 is much narrower than the area of the contact surface with the elastic body 730 so that pressure can be concentrated in the center of the load cell 710.

The elastic body 730 is elastically deformed by the weight of components placed on the upper side, such as the bottle and base. At this time, the elastic body 730 may be configured so that the area of the contact surface with the elastic transmission unit 720 is narrower than the area of the contact surface with the ground. At this time, the contact surface between the elastic body 730 and the elastic transmission unit 720 may be circular, and the diameter of the circle forming the contact surface may be d3. At this time, the diameter of d3 may be longer than the diameter of the load cell 710.

Figure 8 shows the structure of a smart bottle 800 according to an embodiment of the present invention.

Referring to FIG. 8, the smart bottle 800 includes a sensor unit 810, a control unit 820, a heater 830, a status indicator 840, an ultraviolet lamp 850, a motor 860, and a communication unit 870. , including a battery 880.

The sensor unit 810 includes a temperature sensor 811, a tilt sensor 813, a weight measurement sensor 815, and a lid recognition sensor 817.

The temperature sensor 811 obtains temperature information of the bottle.

The tilt sensor 813 obtains tilt information of the bottle. As an example, the tilt sensor 813 may be implemented as at least one of a gyro sensor and an acceleration sensor. When a gyro sensor is used as the tilt sensor 813, tilt information can be calculated from angular velocity information measured by the gyro sensor. When an acceleration sensor is used as the tilt sensor 813, tilt information can be calculated from acceleration information measured by the acceleration sensor. The tilt information may be periodically transmitted to the mobile terminal.

The weight measurement sensor 815 measures the total weight of the smart bottle or the weight of the liquid contained in the bottle.

The lid recognition sensor 817 recognizes whether the lid is coupled to the main body. Accordingly, the lid recognition sensor 817 can be used to determine the start and end of the formula/feeding mode.

The control unit 820 performs all operations to control the sensor unit 810, heater 830, status indicator light 840, ultraviolet lamp 850, motor 860, communication unit 870, and battery 880. Perform.

The control unit 820 may control the operation of the heater 830 based on temperature information measured by the temperature sensor 811. The control unit 820 may control temperature information measured by the temperature sensor 811 to be periodically transmitted to the mobile terminal. In addition, if the rising speed of the temperature information measured by the temperature sensor 811 is faster than the preset speed, the control unit 820 determines that there is no liquid in the bottle, stops the operation of the heater 830, and turns on the status indicator light 840. And/or this can be notified using the motor 860. At this time, the portable terminal can also notify the lack of liquid through a push, vibration, or sound.

In the present invention, the control unit 820 can operate in a feeding mode and a feeding mode.

The feeding mode is a mode in which the heater 830 is controlled to operate until it reaches the feeding temperature, and the feeding mode can be defined as a feeding mode in which the heater 830 is controlled to maintain the feeding temperature. Here, the milk formula temperature represents a temperature suitable for producing milk from powdered milk, and the feeding temperature represents a temperature suitable for providing milk to a baby. Formulated milk temperature varies depending on the type and manufacturer of the powdered milk, and is generally higher than the feeding temperature. For example, when the smart bottle 800 is first operated, the feeding temperature may be set to 40 degrees and the feeding temperature may be set to 37 degrees. However, when the control unit 820 receives recommended oil temperature information from the mobile terminal, it can reset the oil temperature accordingly. The recommended powdered milk temperature information can be obtained from powdered milk information recognized from an image captured by the camera of the mobile terminal, UPC, EAN13, barcode, QR code, etc.

When the crude oil temperature is first reached due to the operation of the heater 830 in the formula mode, the control unit 820 prepares the formula using the status indicator light 840 and/or the motor 860 provided in the smart bottle 800. It can indicate that has been completed. At this time, the portable terminal can also notify the user that preparations for feeding have been completed through a push, vibration, or sound.

Additionally, in the fueling mode, when the temperature of the bottle deviates from the fueling temperature and then re-reaches, the control unit 820 controls the alarm not to be generated within the grace period to prevent inconvenience caused by repeated notifications. can do.

Meanwhile, the control unit 820 is configured to drive the heater 830 to operate in the crude oil mode when it is determined by the tilt sensor 813, the weight measurement sensor 815, and the lid recognition sensor 817 that the crude oil formulation has ended. It can be.

Meanwhile, in the milk formula mode, the controller 820 can control the ultraviolet lamp 850 to emit ultraviolet rays in order to sterilize and disinfect the powdered milk.

At this time, the control unit 820 may control the ultraviolet lamp 850 to be driven while the heater 830 is being driven, and to stop driving the ultraviolet lamp 850 when preparation for crude oil is completed.

The milk formula mode can be switched to the feeding mode when the user presses the button provided on the base after producing milk or inputs a mode change command to the portable device. Generally, when manufacturing milk, the user shakes the bottle so that the powdered milk can be easily dissolved in water. These movements cause large changes in the bottle's tilt, acceleration, and/or angular velocity. Accordingly, if the control unit 820 determines that the value measured by the tilt sensor in the feeding mode is greater than or equal to the threshold, the control unit 820 may determine that the user is breastfeeding and control the user to automatically switch to the feeding mode.

Meanwhile, the controller 820 may determine that feeding has begun when it is determined that the tilt angle of the bottle is greater than a preset angle for a preset period of time. At this time, if the temperature of the bottle is higher than the preset temperature, the controller 820 can control the motor 860 to drive to notify the user of the risk of burns through vibration. For example, when the temperature of 38 degrees or higher is measured more than 10 times in the feeding mode or feeding mode, the control unit 820 determines the tilt of the bottle from the reference (gravity direction 0) to the value of the x or y axis for more than 5 seconds, -1.2. If it remains above g, it is determined that feeding has begun, and vibration can be controlled to occur. Additionally, in the feeding mode, when the inclination is less than -0.5g or more than -9g from the standard, the controller 820 can coach the user to breastfeed within an appropriate angle by operating the motor 860 and vibrating.

Meanwhile, when the tilt sensor 813 is implemented as a gyro sensor, the control unit 820 may calculate tilt information from the angular velocity information measured by the gyro sensor. When the tilt sensor 813 is implemented as an acceleration sensor, the control unit 820 can calculate tilt information from acceleration information measured by the acceleration sensor. The controller 820 may determine the start and end of feeding based on the tilt information obtained using the tilt sensor 813.

Specifically, the control unit 820 determines that feeding has started when it is determined that the tilted angle of the bottle is more than a preset angle for a preset period, and the tilted angle of the bottle after a preset period (duration) If it is determined that is within the preset angle, it can be determined that feeding has ended. At this time, if it is determined that the tilt angle of the bottle is outside the preset angle within the preset period, the controller 820 may control the heater 830 to maintain the internal temperature of the bottle at the preset temperature.

For example, the control unit 820 may determine that the feeding start record condition is satisfied when the tilt of the bottle maintains the value of the x or y axis for more than 5 seconds and -1.2 g from the reference. In addition, if feeding activity is detected for more than 1 minute after the bottle's tilt enters the feeding start recording condition, the control unit 820 may determine the time when the feeding start recording condition is canceled as the feeding end point. Additionally, if the feeding activity time (maintenance period of -1.2g or more) after first entering the feeding mode is less than 1 minute (including 0g re-entry), the control unit 820 determines that the user has temporarily suspended feeding and turns on the heater ( 830) can be operated to control the feeding temperature to be maintained for up to 2 hours. If 2 hours elapse, the milk may deteriorate, so the control unit 820 may stop the operation of the heater 830. In this case, a pop-up recommending a new bottle may be displayed on the mobile terminal.

Meanwhile, the control unit 820 may determine the start and end of the feeding mode based on the weight measurement sensor 815 and the lid recognition sensor 817.

For example, the control unit 820 may determine that the feeding mode has started when the bottle is empty and the lid is removed, and may determine that the feeding mode has ended when liquid is contained in the bottle and the lid is coupled. .

At this time, the controller 820 can control the heater 830 to bring the bottle up to the crude oil temperature.

Whether the bottle is empty or contains liquid can be measured by the weight measurement sensor 815.

In addition, the control unit 820 recognizes that the feeding mode has started when the lid is removed while liquid is contained in the bottle, and recognizes that the feeding mode has ended when the weight of the liquid in the bottle is reduced and the lid is reinstalled. can do. At this time, the control unit 820 can measure the amount of feeding by calculating the reduced weight of liquid in the bottle.

The heater 830 may be configured to heat the liquid contained in the bottle. For this purpose, the heater 830 may be provided in a plate shape on the upper side of the base.

The status indicator 840 may indicate information about feeding or formula.

The ultraviolet lamp 850 emits ultraviolet rays to sterilize and disinfect the bottle or the liquid within the bottle. The ultraviolet lamp 850 may be implemented as a UV-C LED. At this time, the ultraviolet lamp 850 irradiates light in a vertical direction so that the light is not radiated to the outside of the bottle, and may be configured to irradiate light only at an angle within a certain range.

At this time, the ultraviolet lamp 850 may be configured to perform sterilization and disinfection only when contents are contained in the bottle. At this time, the ultraviolet lamp 850 may be configured to emit ultraviolet rays only when the weight of the bottle measured through the weight measurement sensor 815 is greater than or equal to a threshold value.

Meanwhile, the ultraviolet lamp 850 may be configured to emit ultraviolet rays only when the bottle is tilted vertically to the ground. For example, the ultraviolet lamp 850 may be configured to emit ultraviolet rays only when the tilt of the bottle measured by the tilt sensor 813 has an error of less than or equal to a threshold value with respect to the vertical direction of the ground.

Additionally, the ultraviolet lamp 850 may be configured to emit ultraviolet rays only when it is determined that the lid is coupled to the bottle by the lid recognition sensor 817 in order to protect the user of the smart bottle from ultraviolet rays.

Additionally, the ultraviolet lamp 850 may be configured not to emit ultraviolet rays in the feeding mode or feeding mode.

As described above, the operation of driving the ultraviolet lamp 850 to emit or not emit ultraviolet rays may be performed under the control of the control unit 820.

The motor 860 can notify the tilt angle of the bottle, etc. through vibration. For example, if it is determined that the bottle is tilted at an angle greater than or equal to a preset period of time, and the temperature information of the bottle is greater than or equal to the preset temperature, the motor 860 may be driven under the control of the controller 820. You can.

The communication unit 870 transmits feeding-related information such as temperature information measured by the temperature sensor 811, tilt information measured by the tilt sensor 813, and remaining amount information of the battery 880 to an external device (e.g., a repeater, It can be transmitted to a mobile terminal, etc.).

Additionally, the communication unit 870 may receive feeding temperature setting information, feeding temperature setting information, mode switching information, etc. from an external device.

The communication unit 870 may include an NFC chip, NFC antenna, Bluetooth module, Wi-Fi module, 5G communication module, etc. For example, the communication unit 257 may communicate with the terminal using the Bluetooth 4.0 communication method.

Battery 880 may be configured to supply power to the smart bottle. The control unit 820 checks the remaining amount of the battery 880 and, if it is determined that the milk preparation temperature and/or the feeding temperature will not be reached when heating the bottle, does not operate the heater 830 and turns on the status indicator light 840 and/or The motor 860 can be used to notify that the remaining battery power of the battery 880 is low. In this case, the portable terminal can also notify that the remaining battery 880 is low through a push, vibration, or sound.

Figure 9 shows a method for determining whether crude oil is present according to an embodiment of the present invention. The operations performed below can be driven by the base of the smart bottle.

Referring to Figure 9, the base measures the weight of the liquid contained in the bottle and determines whether the bottle is empty (S910).

When the bottle is empty, the base detects whether the bottle cap is open and determines whether the bottle cap is opened by the user (920). At this time, whether the bottle's lid is open can be detected by a lid detection sensor provided on the bottle, and information about this can be transmitted to the base.

If the lid of the bottle is opened while the bottle is empty, the smart bottle determines that dispensing has begun (S930).

If there is liquid in the bottle or the lid of the bottle is still closed, the base determines that milk preparation has not started and continues to measure the weight of the bottle and detects whether the lid is open.

When it is determined that milk preparation has started, the base determines whether liquid is contained in the bottle by measuring the weight of the bottle (S940).

When liquid is contained in the bottle, the base detects whether the bottle's lid is closed and determines whether the bottle's lid is closed by the user (S950).

When the lid of the bottle is closed while the liquid is contained in the bottle, the base determines that crude oil preparation is complete (S960) and heats the bottle to the crude oil temperature (S970).

Figure 10 shows a method for determining whether or not to breastfeed according to an embodiment of the present invention. The operations performed below can be driven by the base of the smart bottle.

Referring to Figure 10, the base measures the weight of the liquid contained in the bottle and determines whether liquid is contained in the bottle (S1010).

When liquid is contained in the bottle, the base detects whether the bottle's lid is open and determines whether the bottle's lid is opened by the user (S1020). At this time, whether the bottle's lid is open can be detected by a lid detection sensor provided on the bottle, and information about this can be transmitted to the base.

If the lid of the bottle is opened while liquid is contained in the bottle, the base determines that feeding has begun (S1030).

If the bottle is empty or the bottle cap remains closed, the base determines that feeding has not started and continues to measure the weight of the bottle and detects whether the cap is open.

When it is determined that feeding has begun, the base determines whether the weight of the liquid in the bottle decreases by measuring the weight of the bottle (S1040).

When the weight of the liquid contained in the bottle decreases, the base detects whether the bottle cap is closed and determines whether the bottle cap is closed by the user (S1050).

When the weight of the liquid contained in the bottle decreases and the bottle cap is closed, the base determines that feeding has ended (S1060), calculates the amount of feeding based on the reduced weight of the liquid in the bottle, and transmits it to the terminal (S1070).

As described above, the smart bottle and its control method according to the present invention are not limited to the configuration and method of the embodiments described above, but the embodiments are provided so that various modifications can be made. All or part of it may be selectively combined.

Claims (14)

A bottle configured to contain a liquid; and
Base disposed at the bottom of the bottle
Including, but the base is
an elastic body that is elastically deformed by the weight of the bottle and the base;
a weight measurement sensor disposed on an upper portion of the elastic body and measuring the weight of the bottle by measuring pressure transmitted from the ground in a vertical direction by the elastic body in reaction to the gravity;
A control unit that measures the amount of feeding based on the change in the weight value measured by the weight measurement sensor.
A device containing a. 2. The method of claim 1, wherein the device further comprises a lid,
The bottle has a lid recognition sensor that recognizes whether the lid is coupled.
A device comprising: According to paragraph 2,
The control unit determines that formulating has started when the lid is removed while the bottle is empty, and determines that formulating has ended when contents are placed in the bottle and the cap is coupled. According to paragraph 2,
The control unit determines that feeding has started when the lid is removed while the contents are in the bottle, and determines that feeding has ended when the weight of the bottle is reduced and the lid is attached. According to clause 4,
The device is characterized in that the control unit determines the amount of feeding based on the amount of change in the weight of the bottle. The device of claim 1, wherein the base further includes an ultraviolet (UV-C) lamp for sterilizing the contents inside the bottle by irradiating ultraviolet rays toward the bottle. The device of claim 6, wherein the ultraviolet lamp irradiates ultraviolet rays when the weight of the bottle is greater than a threshold value. The method of claim 6, wherein the base further includes a tilt sensor that recognizes the tilt of the bottle,
The ultraviolet lamp is a device characterized in that it irradiates ultraviolet rays when the tilt of the bottle has an error of less than a threshold value with respect to the vertical direction of the ground. According to clause 8,
The tilt sensor includes at least one of a gyro sensor or an acceleration sensor,
The control unit is characterized in that the tilt information is calculated from the angular velocity information measured by the gyro sensor or the acceleration information measured by the acceleration sensor. According to paragraph 1,
The weight measurement sensor is a device characterized in that it includes at least one of a beam-type load cell, a three-wire load cell, and a column-type load cell. In the method of operating a device configured to be coupled to one side of a bottle,
determining whether the bottle is empty by measuring the weight of the liquid contained in the bottle;
determining whether the lid of the bottle is open; and
If the lid of the bottle is opened while the bottle is empty, determining that milk preparation has started
How to include . According to clause 11,
When it is determined that the crude oil preparation has started, determining whether liquid is contained in the bottle by measuring the weight of the bottle;
determining whether the lid of the bottle is closed;
When the lid of the bottle is closed while the liquid is contained in the bottle, determining that milk preparation is completed; and
Heating the bottle to the crude oil temperature
How to include . According to clause 12,
determining whether the bottle contains liquid by measuring the weight of the liquid contained in the bottle;
determining whether the lid of the bottle is open; and
A step of determining that feeding has begun when the lid of the bottle is opened while liquid is contained in the bottle.
How to include . According to clause 13,
When it is determined that the feeding has begun, determining whether the weight of the liquid in the bottle decreases by measuring the weight of the bottle;
determining whether the lid of the bottle is closed;
determining that feeding is complete when the weight of the liquid decreases and the lid of the bottle is closed; and
Step of calculating the feeding amount and transmitting it to the terminal
How to include .