KR102518605B1 - Ict-based animal fluid injection management device and method - Google Patents

Abstract

An ICT-based animal fluid infusion management device and method are disclosed. The fluid infusion management device of the present invention comprises: a regulator module which acquires changes in the amount of animal fluid infusion and transmits the same to an external relay through wireless RF transmission; a syringe module which transmits syringe state information including a missing state of an IV syringe needle to the external relay; the relay which receives the changes in the amount of the fluid infusion of the regulator module and the syringe state information from the syringe module, and transmits the same to an external terminal; and the terminal in which an application is executed wherein the application can receive the transmitted information from the relay, enabling the remote monitoring of the relay's state in real time. Since information on the state of fluid infusion and the attachment/detachment states of a syringe can be checked remotely, it is possible to prevent abnormal accidents and manage livestock farms safely and efficiently.

Description

ICT-BASED ANIMAL FLUID INJECTION MANAGEMENT DEVICE AND METHOD

The present invention relates to a fluid management device, and more particularly, when fluid is injected, fluid treatment information about fluid injection state and fluid syringe needle removal state is remotely transmitted to a terminal using an application, so that a manager treats fluid in real time. It relates to an ICT-based animal fluid injection management device and method capable of monitoring information.

In general, injections such as animal sap or blood are a method of continuously administering sap or blood filled in a Ringer's bottle or pack to an animal using a set of sap. The infusion set has a function to continuously inject the infusion into the animal's body by the animal's blood pressure or the pressure difference between the infusion, and may be composed of an induction tube, a tube, a control valve, or a syringe. The infusion set is configured so that fluid contained in a ringer bottle or pack is dropped into the induction tube according to the speed adjusted by the control valve, and the fluid stored in the induction tube is injected into the vein or blood vessel through the infusion syringe through the tube. do. In the barn, this injection process takes a lot of time, wasting manpower, and it is difficult to manage the state of fluid injection, such as injection speed, remaining time, and needle condition.

In order to continuously grasp the animal's condition when nursing animals in hospitals or barns, separate resident personnel must measure the amount of fluid injection and biometric information using various measuring devices to determine the animal's condition. In order to continuously identify and manage the condition in the barn, a separate resident manpower must measure and manage the condition using various measuring devices, so there is a problem in that a lot of manpower is required for animal care, which reduces economic feasibility.

In addition, management of the amount of infusion becomes a problem when an event such as an injection needle falling out, a switch of an infusion set being turned off, or a connection tube being separated when an animal rummages or moves while the infusion is being injected occurs. Accordingly, since the end point or replacement point of fluid may be missed, there is a problem in that the risk of medical accidents increases and the manager's workload increases.

Existing flow regulators for infusion sets are only for controlling the amount of infusion falling, and it is impossible to determine how much flow is left in the infusion bag. There was a problem that had to be visually inspected.

On the other hand, there is a problem in that a case may occur in which a guardian or a third party arbitrarily adjusts the flow rate regulator for the infusion set in a fist-like manner so that an appropriate flow rate is not administered to the animal. Therefore, there has been a continuous need for a flow rate regulator for an infusion set and real-time monitoring of an injection state, which is safer and more reliable, and enables accurate flow rate check. In addition, the prior art did not manage in real time or integratedly the state of the sap administered in response to each of a plurality of animals.

KR Registration Patent Publication No. 10-2341715 (2021.12.16)

In order to solve this problem, the present invention is an ICT-based animal infusion management device capable of monitoring infusion treatment information such as the injection speed of the animal's infusion supply, the amount of injection, the remaining time of the infusion, and the state of the injection needle in real time without time and space limitations. and to provide a method thereof.

In addition, another object of the present invention is to provide an ICT-based animal fluid injection management device and method that enables accurate monitoring of the injection rate of fluid amount.

In addition, the present invention is an ICT-based animal sap that enables real-time sharing of sap processing information, including an accurate injection amount of sap amount, remaining time, injection needle state, and barn information to managers based on ICT Another object is to provide an injection management device and method.

In addition, another object of the present invention is to provide an ICT-based animal infusion management device and method capable of constructing a smart livestock management system by utilizing ICT technologies such as network, wireless communication, and Bluetooth.

In addition, the present invention provides an ICT-based animal fluid injection management device and method for managing the animal fluid injection state with a quantified ICT information terminal so that non-experts can easily grasp the state of the animal they care for for another purpose.

An ICT-based animal infusion management device according to an embodiment of the present invention for solving these problems is a regulator module that acquires the amount of change in the amount of animal infusion and transmits it to an external repeater in an RF wireless transmission method, and the infusion syringe needle is missing. A syringe module that transmits syringe state information including status to an external relay, a relay that receives and transmits the change in infusion amount of the regulator module and the syringe state information of the syringe module to an external terminal, and transmission information of the relay This can be achieved by including a terminal on which an application capable of receiving and remotely monitoring the status of a repeater in real time is executed.

The amount of change in the amount of animal fluid injected by the regulator module is the information of the VR resistance (Variable Resistor) value that matches the scale corresponding to the amount of rotation of the smart regulator according to the change in the amount of animal fluid injected. It may further include an electrostatic touch-type sensor that recognizes the attachment/detachment of the infusion needle in real time, and transmits data from the sensor through an RF wireless transmission method.

In addition, communication between the regulator module, the injector module, and the repeater is performed by a 400 MHz band RF wireless transmission method, and the communication between the repeater and the terminal is dualized using a 2.4 GHz Bluetooth short-range wireless communication method.

In addition, the application of the terminal displays the number of livestock to be treated with fluid, livestock ID, barn ID, and fluid ID, and on the right side, the fluid injection speed (ml/h), injection start time (hour:minute), remaining time (hour : minutes), configured as a GUI to display the missing state of the scan, and when a terminal approaches and is paired with the repeater, the terminal automatically activates the application and configures the data received from the repeater to be displayed on the terminal display unit. can

Therefore, according to the ICT-based animal infusion management device and method of the present invention, since the input speed and remaining amount of the infusion amount can be remotely recognized, accurate information for infusion and replacement of the infusion amount can be received.

In addition, according to the ICT-based animal fluid injection management device and method of the present invention, since real-time information on the detachment state of fluid injection can be checked, abnormal accidents can be prevented in advance, and safe, efficient, and economical farming There is an effect that can present a great economic and industrial effect of establishing a livestock management system.

In addition, according to the ICT-based animal fluid injection management device and method of the present invention, the information on the barn, such as the remaining time and the state of the injection needle, along with the accurate injection amount of the fluid amount, is shared with managers in real time based on ICT This can help you solve problems quickly.

In addition, according to the ICT-based animal fluid injection management device and method of the present invention, since the alarm function is used, there is an effect that immediate action can be taken in the event of an accident in real time.

In addition, according to the ICT-based animal infusion management device and method of the present invention, since it uses a 400MHz ISM band wireless communication method capable of long-distance communication of 200m or more, there is an effect that can be configured with low cost, small size and light weight.

And according to the ICT-based animal infusion management device and method of the present invention, the manager can conveniently monitor the status of the barn anytime, anywhere and operate an efficient barn management system with the repeater's RF and Bluetooth dual structure wireless communication. .

1 is an overall configuration diagram of an ICT-based infusion management system according to an embodiment of the present invention;
2 is an internal block diagram of a regulator module according to an embodiment of the present invention;
3 is an internal block diagram of a syringe module according to an embodiment of the present invention;
4 is an internal block diagram of a repeater monitor according to an embodiment of the present invention;
5 is a flowchart of a program of a terminal according to an embodiment of the present invention;
6 is a configuration diagram of a terminal according to an embodiment of the present invention;
and
7 is a Display Monitor GUI related to an application according to an embodiment of the present invention.

The terms or words used in this specification and claims are not limited to the usual or dictionary meanings, and the inventor can properly define the concept of the term in order to explain his or her invention in the best way. Based on this, it should be interpreted as a meaning and concept consistent with the technical spirit of the present invention.

Throughout the specification, when a certain component is said to "include", it means that it may further include other components without excluding other components unless otherwise stated. In addition, terms such as “… unit”, “… unit”, “module”, and “device” described in the specification mean a unit that processes at least one function or operation, which is implemented as a combination of hardware and/or software. It can be.

Throughout the specification, the term "and/or" should be understood to include all possible combinations from one or more related items. For example, the meaning of “a first item, a second item and/or a third item” may be presented from two or more of the first, second or third item as well as the first, second or third item. A combination of all possible items.

Throughout the specification, identification codes (e.g., a, b, c, ...) for each step are used for convenience of explanation, and the identification code does not limit the order of each step, and each step Unless the specific order is clearly stated in context, it may occur in a different order from the specified order. That is, each step may occur in the same order as specified, may be performed substantially simultaneously, or may be performed in the reverse order.

Hereinafter, an embodiment of the present invention will be described with reference to the drawings.

First, the present invention remotely monitors infusion treatment information such as the injection speed of infusion supply, the amount of injection, the remaining time of infusion, and the state of the injection needle in real time without time and space restrictions, and can remotely recognize the input speed and remaining amount of infusion injection amount. To receive accurate information for inputting and replacing the amount of fluid, check the real-time information on the attachment and detachment state of the injection needle, prevent abnormal accidents in advance, and build a safe, efficient, and economical livestock management system for farms. It is one of the characteristics that makes it possible.

To this end, the infusion injection management device of the present invention measures the smart regulator module 140 capable of measuring the administration rate of infusion injection, the syringe module 120 capable of detecting attachment and detachment of the injection needle, and the amount of infusion and the state of the injection needle. It is configured to include a wireless repeater 170 that can be monitored, and a terminal 160 that can monitor it remotely through communication with the repeater 170.

Referring to the overall configuration diagram of the ICT-based infusion management system according to the embodiment of the present invention in FIG. 1, the regulator module 140 for acquiring the amount of change in the amount of animal infusion injection and transmitting it to an external repeater in an RF wireless transmission method, and the infusion syringe The syringe module 120 transmits the syringe state information including the needle removal state to the external relay, and the regulator module 140 receives the change in the amount of fluid injected and the syringe state information of the syringe module 120 to display the information and display the information to the external It can be seen that it is configured to include a repeater 170 transmitted to a terminal of and a terminal 160 on which an application capable of receiving transmission information of the repeater 170 and remotely monitoring the state of the repeater in real time is executed.

The smart regulator module (Smart Resister Module; 140) is a regulator interposed between a ringer's solution bag (130) and an infusion syringe (110) obtains electrical resistance information of a flow rate matching the rotation amount according to the injection amount of the infusion solution It is configured to be transmitted to the external terminal 160 in a wireless 400 MHz RF communication transmission method.

Referring to the internal block diagram of the regulator module of FIG. 2, the regulator module 140 includes a 400MHz RF module wireless communication unit (RF 400MHz Band; 142) and a wireless communication frequency and communication speed, and an MCU 145 that controls the entire system of the regulator. , It includes a charger 144 that charges a lithium ion battery through a USB C-type 147 connector and a VR sensor unit 146 that is converted into an electrical signal in accordance with the scan amount scale of the smart regulator.

In addition, the regulator module 140 may further include a power supply unit (BAT&power; 143) composed of a lithium ion battery and an LED as a status display device.

The VR sensor unit 146 is operated to extract an electric signal value, that is, resistance information corresponding to the scan amount scale of the regulator, and transmit it to the MCU 145.

The MCU 145 operates to transmit the electrical resistance information received according to the amount of fluid in the VR sensor unit 146 to the repeater 170 through the wireless communication unit 142 and the antenna 141.

As wireless communication technology, for example, WLAN (Wireless LAN), Wi-Fi (Wireless-Fidelity), Wi-Fi (Wireless Fidelity) Direct, DLNA (Digital Living Network Alliance), WiBro (Wireless Broadband), WiMAX (World Interoperability for Microwave Access), HSDPA (High Speed Downlink Packet Access), HSUPA (High Speed Uplink Packet Access), LTE (Long Term Evolution), LTE-A (Long Term Evolution-Advanced), etc., and the wireless communication unit of the present invention 142 transmits and receives data according to at least one wireless Internet technology within a range including Internet technologies not listed above.

In addition, from the viewpoint that wireless Internet access by WiBro, HSDPA, HSUPA, GSM, CDMA, WCDMA, LTE, LTE-A, etc. is made through a mobile communication network, the wireless communication unit 142 performing wireless Internet access through a mobile communication network may be understood as a kind of mobile communication module.

In the present invention, the wireless communication unit 142 communicates with a wireless 400 MHz RF communication transmission method.

On one side of FIG. 2, a USB C-type 147 connector used in an actual product is illustrated.

The syringe module 120 fixes the infusion needle and then transmits information on the detachment state to the repeater 170 in a wireless 400MHz RF communication transmission method.

Referring to the internal block diagram of the syringe module according to one embodiment of the present invention in FIG. 3, the syringe module 120 controls the entire system of the 400MHz RF module wireless communication unit 122, the wireless communication frequency and communication speed, and the syringe module. It includes an MCU 125 to charge the lithium ion battery through a USB C-type 127 connector, a charger 124 to charge the lithium ion battery, and an electrostatic touch sensor 126 to recognize the attachment/detachment state of the injection needle.

In addition, the syringe module 120 may further include a power supply unit (BAT&power; 123) composed of a lithium ion battery and an LED as a status display device.

The touch sensor unit 126 is configured to detect whether or not the injection needle is attached or not and transmit the detected attachment/detachment state information of the syringe to the MCU 125.

The MCU 125 operates to transmit the attachment/detachment information of the syringe needle received from the touch sensor unit 126 to the repeater 170 through the wireless communication unit 122 and the antenna 121.

As wireless communication technology, for example, WLAN (Wireless LAN), Wi-Fi (Wireless-Fidelity), Wi-Fi (Wireless Fidelity) Direct, DLNA (Digital Living Network Alliance), WiBro (Wireless Broadband), WiMAX (World Interoperability for Microwave Access), HSDPA (High Speed Downlink Packet Access), HSUPA (High Speed Uplink Packet Access), LTE (Long Term Evolution), LTE-A (Long Term Evolution-Advanced), etc., and the wireless communication unit of the present invention 142 transmits and receives data according to at least one wireless Internet technology within a range including Internet technologies not listed above.

In addition, from the viewpoint that wireless Internet access by WiBro, HSDPA, HSUPA, GSM, CDMA, WCDMA, LTE, LTE-A, etc. is made through a mobile communication network, the wireless communication unit 142 performing wireless Internet access through a mobile communication network may be understood as a kind of mobile communication module.

In the present invention, the wireless communication unit 122 communicates with a wireless 400 MHz RF communication transmission method.

The relay 170 collects the injection state of the fluid when the fluid is injected from the regulator module 140 and the falling state of the needle of the fluid syringe from the syringe module 120 so that it can be displayed on the screen using an application for monitoring. make up

In addition, the repeater 170 receives the status information of the regulator module 140 and the syringe module 120 through wireless RF so as to operate as a monitoring module, and transmits it to a terminal 160 such as a smartphone or tablet through BLE Bluetooth communication work to do

Referring to the internal block diagram of the repeater monitor according to the embodiment of the present invention in FIG. 4, the repeater 170 receives information such as fluid and syringe status through 400MHz band RF and transmits it to the terminal in a 2.4GHz Bluetooth method. A wireless communication unit (172) operating as a 400 MHz RF module, a short-range wireless communication unit (174) operating as a 2.4 GHz Bluetooth module, and a 7-inch LCD display unit (173) that can monitor the amount of fluid injected by the regulator and the state of the injection needle (173), An MCU (175) that controls the entire inside of the wireless communication and repeater, an alarm unit (176) that warns of abnormal conditions such as needles, and a power unit (BAT&power) configured to charge a lithium ion battery through a USB C-type (178) connector. ;177) may be further included.

The wireless communication unit 172 is a 400 MHz RF module to receive the variable resistance value for the amount of fluid injected from the wireless communication unit 142 of the regulator module 140 and information on whether or not the syringe is attached or detached from the wireless communication unit 122 of the syringe module 120. works with

The wireless communication unit 172 of the relay may also be configured in a wireless manner, such as the wireless communication unit 142 of the regulator module 140 and/or the wireless communication unit 122 of the syringe module 120, and eventually, the relay is a regulator module ( 140) and the injector module 120 are made through wireless communication, and communication with the terminal 160 is made through short-range wireless communication through the short-range wireless communication unit 174.

The short-range wireless communication unit 174 is a means capable of short-range wireless communication such as NFC, Bluetooth, WiFi, Zigbee, and beacon, and is configured to enable short-range communication with the short-range communication unit of the terminal.

In particular, short-range wireless communication allows the terminal to monitor infusion management using the application of the present invention by providing infusion information related to the present invention to the terminal when the terminal is close to the repeater 170.

In particular, if a beacon is used, it can operate with a small amount of packet transmission, does not require pairing to connect two devices, and communicates with low power, so it can recognize location at a low cost compared to other short-range wireless communication technologies.

The beacon is non-contact and supports long-distance communication up to 50m.

In addition, the location of the device can be identified within an error range of 5 cm, and since both one-to-many and many-to-many services are available, various active services can be provided.

The beacon itself serves as a reference point for informing the location, and actual information transmission is based on short-range communication technologies such as Bluetooth and infrared. It is preferable to use a Bluetooth beacon combined with Bluetooth.

In the present invention, it is described that Bluetooth is used to search for a terminal in a close range.

The MCU 175 activates the application, receives the variable resistance value for the amount of fluid injected from the wireless communication unit 142 of the regulator module 140 and information on whether or not the syringe is attached or detached from the wireless communication unit 122 of the syringe module 120 to display the unit. 173, and when an abnormality occurs, that is, when an event occurs, the occurrence of an abnormal situation is notified through the terminal 160 owned by the manager and the alarm unit 176 to prevent abnormal accidents in advance.

The application screen related to the fluid management monitoring of the present invention displayed on the display unit 173 of the repeater and the display unit 163 of the terminal is about the injection status of each livestock for each livestock and barn, the status of the syringe, and the infusion treatment information including barn information. By displaying, it is configured to monitor the fluid management device.

An example of such an application screen is illustrated in FIG. 7 .

7 is a Display Monitor GUI related to an application according to an embodiment of the present invention. As shown, the application screen of the present invention has an embedded monitor system in the barn for the user's convenience, and the administrator can remotely control the barn anytime, anywhere. It is configured to monitor the fluid status.

Referring to the drawing, the top of the screen is configured to include a display unit for the number of livestock to be treated with fluid (60), a version display unit (31) for the application, and a display unit for the name of the company that provided this application.

The screen shows that the number of pigs is 24, the Ver. of the fluid management system is version 1.0, and that Sungwon Medical is providing this system.

Below that, information on fluid injection and syringe status for each livestock is displayed.

That is, various ID numbers necessary for livestock management such as livestock ID (62), corresponding barn ID (63), and fluid ID (64) are displayed, fluid injection speed (ml/h) (65), injection start time (hour: min) (66), remaining time (67) (hour: min), and syringe ejection status (68) are displayed.

In addition, a setting button 69 that can be set by touching the screen for each livestock can be displayed.

Therefore, the manager configures the UI to set the livestock ID, barn ID, fluid injection speed, injection start time, and remaining injection time using the setting button.

In addition, the repeater 170 stores infusion-related information (infusion speed, infusion time, etc.) stored for each livestock ID, and when a livestock with the corresponding ID is registered, it automatically displays previously performed infusion-related information for convenience. can be set

In addition, in order to enhance the discrimination of the screen, 8 livestock are displayed by ID on one screen, and when the number of livestock exceeds one page, the number of pages can be added according to the number of livestock by displaying them on the next page screen.

For example, on the application screen, livestock with pig ID number 1 is managed at barn ID 12, fluid ID is 102567, and fluid information is displayed at an injection speed of 250 ml/h, starting at 15:30 and currently 2 hours 40 minutes. It remains, and the dropout state of the syringe is indicated as normal.

On the other hand, livestock with pig ID number 2 is managed in barn ID 12, fluid ID is 102567, fluid information starts at 15:30 with an injection rate of 200 ml/h and currently has 3 hours and 20 minutes remaining, and syringe is marked as missing.

In this case, the repeater 170 can warn through the alarm unit 176 that the syringe of the pig number 2 of the 12th barn is missing, and the screen flickers so that it can be quickly recognized that an emergency has occurred.

In addition, the relay 170 may deliver the event situation to the registered manager or the terminal 160 so that it can be quickly dealt with.

The terminal 160 is a terminal possessed by a manager and is equipped with an application for performing the infusion management function of the present invention, and displays information received through short-range wireless communication with the repeater 170, or, if necessary, a warning sound and announcement The same audio data can be output to be configured with caution.

6 is a configuration diagram of a terminal according to an embodiment of the present invention, wherein the terminal 160 is configured to perform wireless communication through short-distance wireless communication and an Internet network, and when the terminal 160 approaches the repeater 170 By pairing, short-range wireless communication is performed, applications loaded in the terminal are driven, and application contents displayed on the repeater 170 can be displayed on the terminal display unit.

Further, in the present invention, communication between the terminal 160 and the repeater 170 is described as an example of short-distance wireless communication, but a wireless communication network such as the Internet can be used as a matter of course.

That is, in the present invention, communication between the regulator module 140, the injector module 120, and the repeater 170 is performed by the first communication method consisting of wireless communication, and the communication between the manager's terminal 160 and the repeater 170 It is paired by short-range wireless communication and activates an application to exchange information in a second communication method.

These terminals may include personal digital assistants (PDAs), desktop PCs, tablet PCs, slate PCs, notebook computers, etc., as well as smart phones. , It is natural that the terminal to which the present invention can be applied is not limited to the above-mentioned types, and may include all terminals capable of short-distance wireless communication and Internet wireless communication with an external device.

That is, the terminal 160 is a terminal possessed by a manager, or a terminal that can be used as a control room monitor, a control sensor monitor, and the like.

Meanwhile, the terminal 160 has been described as communicating with the repeater 170 through the short-distance communication unit 167, but is not limited thereto and may be communicated through the Internet network or wireless communication through the communication module 161. .

Specifically, the terminal 160 includes a user app (App) unit 165 for executing an application that operates to receive and display transfusion information and syringe information so as to monitor the function of the infusion management device of the present invention, and a key input unit ( 164), the terminal display unit 163, and the terminal control unit 162 for displaying the transfusion information received from the repeater 170 on the terminal display unit 163 by driving the application.

As described above, the user app unit 165 can be configured to download and store related apps through an app store or the like, or download and install applications by accessing a cloud server that operates as a web server through a mobile communication network. there is.

Preferably, the application may be installed through an authentication process during the installation process of the App.

In this authentication process, personal information of the manager may be authenticated as authentication information.

That is, in the present invention, an app may be downloaded and installed by accessing a cloud server that operates as a website, but a method of uploading and distributing an app suitable for each OS to an app store regardless of IOS or Android may be used.

The process of downloading and installing the App and the authentication step are general, so a detailed description thereof will be omitted.

The key input unit 164 is configured to input data for the corresponding key with a touch screen or keypad, but is necessary for controlling the infusion management function, such as a key required for normal smartphone function control and a setting button for inputting infusion-related information. It can be configured including a specific button for executing and displaying a service.

In addition, the key input unit 164 may be provided with a button for requesting transfusion-related information.

The communication module 161 is configured to receive data through wireless communication with the repeater 170, the regulator module 140, and the injector module 120 through various communication methods (wireless communication such as Wi-Fi).

In the storage unit 166, the information received from the repeater 170 and the transmitted time may be converted into a DB and stored so as to manage the history.

Hereinafter, an ICT-based animal infusion management method according to an embodiment of the present invention using the above configuration will be described.

5 is a flowchart of a program of a terminal according to an embodiment of the present invention. As shown, the infusion injection management method of the present invention initializes the short-range wireless communication unit 174 operating as a BLE Bluetooth driver when the program is executed (S110 ).

When the short-distance wireless communication unit 174 is initialized in step S110, it searches and scans whether there are accessible Bluetooth terminals nearby (S120).

After Bluetooth scanning in step S120, communication is connected by pairing a transfusion treatment device that matches the set ID (S120 to S130).

When communication is connected in step S140 (S140), transfusion treatment information such as the number of pigs, ID, regulator injection amount information, and syringe status is received (S150).

In step S150, the number of animals to be treated with sap, livestock ID, and barn ID are obtained as the sap treatment information, and in step S160, the obtained sap treatment information is analyzed to calculate the sap injection rate and remaining time.

In this step, if an error occurs, that is, an alarm is generated from the alarm unit, the error is checked to determine what error has occurred in the syringe, and the treatment is completed (S170).

If the alarm state is maintained again despite the error handling in step S170 (S180), a warning sound is warned through the alarm unit 176, a vibration sound, or the display unit 173 is flashed so that the manager is in an alarm state (S190).

That is, the state of the syringe is checked in real time and repeated.

When the alarm condition is processed by repeating this process, the repeater 170 extracts and displays the injection rate, start time, remaining time, etc. using the infusion treatment information received from the regulator 140 through the wireless communication unit 172, In addition, information on whether or not the syringe is attached or detached is received from the syringe module 120, and the syringe state is displayed as normal or missing (S200).

The remaining time can display the status of the remaining time for fluid injection by receiving fluid injection speed information and calculating the remaining amount.

After the fluid treatment information is displayed using the application, the information update cycle of the regulator is repeatedly performed at 10-second intervals (S210), and additionally, the screen is changed to the previous and next page button on the setting screen, and the ID of the regulator and needle module, etc. Allows the user to input information, the total amount of fluid injection, the number of pigs, etc. (S220).

If there is a user input in step S220, the communication connection is disconnected and reconnected, and the on/off is performed so that information can be updated on the previous and next pages (S230).

As described above, the present invention recognizes the injection needle using the variable resistor value that exactly matches the scale of the fluid syringe and the electrostatic touch sensor in the syringe module using the smart regulator, thereby injecting the fluid injection amount. Since the speed and remaining amount can be recognized remotely, the amount of infusion and replacement can be accurately performed accordingly, and since information on the detachment state of infusion can be checked in real time, abnormal accidents can be prevented, safe and efficient And, it can be expected to have a great economic and industrial effect of establishing an economical farmhouse management system.

Although the present invention has been described in detail with respect to the specific embodiments described above, it is obvious to those skilled in the art that various changes and modifications are possible within the scope of the technical idea of the present invention, and it is natural that these changes and modifications fall within the scope of the appended claims.

110: injection needle 120: syringe module
122: wireless communication unit 125: MCU
123: power unit 126: Touch Sensor
127: USB-C type connector 130: ringer bag
140: regulator module 141: regulator antenna
142: wireless communication unit 143: power supply unit
144: charging unit 145: MCU
146: VR sensor unit 147: USB-C type connector
150: fluid tube 160: terminal
160: terminal 161: communication module
162: terminal control unit 163: terminal display unit
164: key input unit 165: user app unit
166: storage unit 167: short-range communication unit
170: repeater 172: wireless communication unit
173: display unit 174: short-range wireless communication unit
175: MCU 176: alarm unit
77: power unit 180: Ringer stand

Claims (5)

A regulator module that obtains the amount of change in the amount of animal fluid injection and transmits it to an external repeater in an RF wireless transmission method;
Syringe module for transmitting the syringe state information, including the missing state of the needle of the infusion syringe to the external relay;
a repeater for receiving and transmitting the change amount of the infusion injection amount of the regulator module and the injector state information of the injector module to an external terminal; and
a terminal on which an application capable of receiving transmission information of the repeater and remotely monitoring a state of the repeater in real time is executed;
including,
Communication between the regulator module, the injector module, and the repeater is performed using a 400 MHz band RF wireless transmission method, and communication between the repeater and the terminal is performed using a 2.4 GHz Bluetooth short-range wireless communication method.
The application of the terminal is
The number of livestock to be treated with fluid, livestock ID, barn ID, and fluid ID are displayed, and on the right side, fluid injection speed (ml/h), injection start time (hour:minute), remaining time (hour:minute), injection It is composed of a GUI to display the omission status of
When the terminal approaches and is paired with the repeater, the terminal automatically activates the application and displays the data received from the repeater on the display unit of the terminal.
The method of claim 1,
The amount of change in the injection amount of animal fluid of the regulator module is
An ICT-based animal fluid injection management device characterized in that the information of the VR resistance (Variable Resistor) value matches the scale corresponding to the rotation amount of the smart regulator according to the change in the amount of animal fluid injection.
The method of claim 1,
The syringe module
An ICT-based animal fluid injection management device further comprising an electrostatic touch sensor that recognizes the attachment/detachment of an animal's fluid injection needle in real time, and transmits data from the sensor through an RF wireless transmission method.



















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