TWM663996U - Physiological monitor - Google Patents

Abstract

A physiological monitor includes a storage device and a processor; the storage device stores a physiological monitoring program; the processor is connected to the storage device, and the processor executes the physiological monitoring program, and receives a plurality of preset physiological measurement information of a patient and external physiological measurement information through the physiological monitoring program, as well as physiological information input after manual evaluation, and generates a nursing record data after summarizing and uploading it to a server for storage. The physiological monitor automatically generates the nursing record data to assist medical staff in their work, reduce the workload of medical staff, and prevent the problem of human recording errors.

Description

Physiological monitor

A monitor, especially a physiological monitor.

Medical institutions generally have a variety of medical equipment to monitor patients' physiological parameters, thereby assisting medical staff in making appropriate medical treatments for patients. Physiological monitors are one of the important medical equipment.

Physiological monitors are mostly used to monitor the patient's heart rate, blood pressure, blood oxygen and other physiological parameters, and present a physiological monitoring screen through a display screen for medical staff to monitor. However, existing physiological monitors usually have preset monitoring items and connectable sensing devices when they are produced, making it impossible for physiological monitors to flexibly add monitoring items according to different medical needs.

In addition, in order to control and understand the changes in the patient's physiological functions, medical staff need to write nursing records based on the physiological parameters received by various medical devices and the medical staff's manual assessment of the patient. To this end, medical staff need to review the physiological parameters presented by various medical devices by themselves, and record various physiological parameters and manual assessment results through electronic devices such as computers, mobile phones, and tablets to complete the nursing records, and then upload the nursing records to the server for storage.

For example, a physiological monitor is preset to monitor heart rate, blood pressure and blood oxygen, and the physiological monitor only corresponds to the device interface set up to connect to the sensing equipment of heart rate, blood pressure and blood oxygen. When it is necessary to monitor the patient's blood sugar status, medical staff can only use a blood glucose meter for measurement. Moreover, the measurement results of the blood glucose meter cannot be directly integrated with the monitoring content of the physiological monitor, and medical staff need to record it manually to complete the nursing record.

Due to the functional limitations of existing physiological monitors and the need to write nursing records, medical staff need to spend time manually recording and organizing each patient's physiological information in addition to caring for the patients. This not only increases the workload of medical staff and increases the burden on medical staff in caring for patients, but also makes it more likely that errors in nursing record writing will occur.

It can be seen that there is still room for and necessity for further improvement of existing physiological monitors.

In view of this, the present invention provides a physiological monitor, which integrates various physiological information (including manual assessment and measurement) to generate nursing record data, and assists medical staff to directly upload nursing record data through the physiological monitor, thereby reducing the workload of medical staff and preventing errors in human recording.

To achieve the above-mentioned purpose, the novel physiological monitor includes: A storage device storing a physiological monitoring program; and A processor connected to the storage device, executing the physiological monitoring program, receiving a plurality of preset physiological information of a patient through the physiological monitoring program, and generating a nursing record data according to the plurality of preset physiological information.

In the novel physiological monitor, the processor automatically generates the nursing record data through the physiological monitoring program, thereby replacing the previous method of medical staff manually recording various physiological information to complete nursing records. This helps to reduce the workload of medical staff, allowing medical staff to focus more on caring for patients, saving the manpower and time costs required to produce nursing records, and avoiding the problem of human recording errors.

As shown in FIG. 1 , the novel physiological monitor 1 includes a storage device 10 and a processor 20. The physiological monitor 1 can be used to monitor various physiological values of the human body to assist medical personnel in understanding and monitoring the physiological conditions of patients. The various values of the human body include physiological information input after manual evaluation and physiological information measured by various sensing devices.

The storage device 10 stores a physiological monitoring program 11, which is used to monitor a plurality of preset physiological information of a patient; wherein the storage device 10 can be an electronic device with data storage function such as random access memory (RAM), read-only memory (ROM), traditional hard disk drive (HDD), solid-state disk (SSD), etc. The physiological monitoring program 11 can be used in the Android operating system, and the plurality of preset physiological information can include temperature, blood sugar, electrocardiogram signal, heart rate, blood oxygen, blood pressure, respiratory signal, ultrasound signal, heart sound, etc.

The processor 20 is connected to the storage device 10 and executes the physiological monitoring program 11 in the storage device 10. The processor 20 receives the plurality of preset physiological information through the physiological monitoring program 11 and generates a nursing record data according to the plurality of preset physiological information. The processor 20 uploads the nursing record data to an external server by wired communication or wireless communication through the physiological monitoring program 11. The server can be set in a medical institution to store the nursing record data of each patient for doctors, nurses and other medical staff to access at any time. The processor 20 can be an electronic device with computing and processing functions such as a microcontroller and an IC chip.

In a preferred embodiment, the storage device 10 stores at least one expansion program 12, each expansion program 12 is used to monitor an extended physiological information, the processor 20 executes the at least one expansion program 12 in the storage device 10, and receives the at least one extended physiological information through the at least one expansion program 12, and performs a processing operation according to the plurality of preset physiological information and the at least one The nursing record data is generated by expanding physiological information; wherein, the at least one expansion program 12 can be used in the Android operating system; the at least one expansion program 12 can include an ultrasound detection program, an electrocardiogram program, etc.; the at least one expanded physiological information can include temperature, blood sugar, electrocardiogram signal, heart rate, blood oxygen, blood pressure, respiratory information, ultrasound information, heart sounds, etc.

It can be seen that, in addition to receiving the plurality of preset physiological information with the physiological monitoring program 11 according to the preset monitoring items, the novel physiological monitor 1 can also install the corresponding at least one extended program 12 in the storage device 10 according to different medical needs, and then receive the at least one extended physiological information with the at least one extended program 12 according to the extended monitoring items, thereby improving the flexibility of the physiological monitor 1 in adjusting the monitoring items.

Please refer to FIG. 2 . The processor 20 of the physiological monitor 1 can be connected to a plurality of external devices via wired communication or wireless communication. The processor 20 receives the plurality of preset physiological information and the at least one extended physiological information from the plurality of external devices via the physiological monitoring program 11 and the at least one extended program 12. A housing of the physiological monitor 1 is provided with a plurality of connection holes, and the physiological monitor 1 can be connected to the plurality of external devices via the plurality of connection holes.

In a preferred embodiment, the plurality of external devices include a plurality of electrocardiogram sensors 2, and the processor 20 receives an electrocardiogram signal sensed by the plurality of electrocardiogram sensors 2 through the physiological monitoring program 11 or the at least one extended program 12 to obtain electrocardiogram information corresponding to the electrocardiogram signal. In other words, the plurality of preset physiological information and the at least one extended physiological information may include the electrocardiogram information. 2 takes the example of the physiological monitoring program 11 being signal-connected with the plurality of electrocardiogram sensors 2, i.e., the physiological monitor 1 receives the electrocardiogram information sensed by the plurality of electrocardiogram sensors 2 through the physiological monitoring program 11. However, the physiological monitor 1 may also be signal-connected with the plurality of electrocardiogram sensors 2 by one of the expansion programs 12 to receive the electrocardiogram information, which is not limited to the present embodiment.

In a preferred embodiment, the plurality of external devices include a blood pressure sensor 3, and the processor 20 receives a blood pressure signal sensed by the blood pressure sensor 3 through the physiological monitoring program 11 or the at least one extended program 12 to obtain blood pressure information corresponding to the blood pressure signal. In other words, the plurality of preset physiological information and the at least one extended physiological information may include the blood pressure signal. 2 takes the example of the physiological monitoring program 11 being connected to the blood pressure sensor 3 by signal, i.e., the physiological monitor 1 receives the blood pressure information sensed by the blood pressure sensor 3 through the physiological monitoring program 11. However, the physiological monitor 1 may also be connected to the blood pressure sensor 3 by signal through one of the expansion programs 12 to receive the blood pressure information, which is not limited to the present embodiment.

In a preferred embodiment, the plurality of external devices include a blood oxygen sensor 4, and the processor 20 receives a blood oxygen signal sensed by the blood oxygen sensor 4 through the physiological monitoring program 11 or the at least one extended program 12 to obtain blood oxygen information corresponding to the blood oxygen signal. That is, the plurality of preset physiological information and the at least one extended physiological information may include the blood oxygen information. In FIG. 2, the physiological monitoring program 11 is signal-connected to the blood oxygen sensor 4, that is, the physiological monitor 1 receives the blood oxygen information sensed by the blood oxygen sensor 4 through the physiological monitoring program 11 as an example, but the physiological monitor 1 may also be signal-connected to the blood oxygen sensor 4 through one of the extended programs 12 to receive the blood oxygen information, which is not limited to this embodiment.

In a preferred embodiment, the plurality of external devices include an ear thermometer 5, and the processor 20 receives a temperature signal sensed by the ear thermometer 5 through the physiological monitoring program 11 or the at least one extended program 12 to obtain temperature information corresponding to the temperature signal. In other words, the plurality of preset physiological information and the at least one extended physiological information may include the temperature information. In FIG. 2, one of the extended programs 12 is connected to the ear thermometer 5 by signal, that is, the physiological monitor 1 receives the temperature information sensed by the ear thermometer 5 through one of the extended programs 12. However, the physiological monitor 1 may also be connected to the ear thermometer 5 by signal through the physiological monitoring program 11 to receive the temperature information, which is not limited to this embodiment.

In a preferred embodiment, the plurality of external devices include a blood glucose meter 6, and the processor 20 receives a blood glucose signal sensed by the blood glucose meter 6 through the physiological monitoring program 11 or the at least one extended program 12 to obtain blood glucose information corresponding to the blood glucose signal. That is, the plurality of preset physiological information and the at least one extended physiological information may include the blood glucose information. In FIG. 2, one of the extended programs 12 is connected to the blood glucose meter 6 by signal, that is, the physiological monitor 1 receives the blood glucose information sensed by the blood glucose meter 6 through one of the extended programs 12 as an example. However, the physiological monitor 1 may also be connected to the blood glucose meter 6 by signal through the physiological monitoring program 11 to receive the blood glucose information, which is not limited to the present embodiment.

In a preferred embodiment, the plurality of external devices include a stethoscope 7, and the processor 20 receives a heart sound signal sensed by the stethoscope 7 through the physiological monitoring program 11 or the at least one expansion program 12 to obtain heart sound information corresponding to the heart sound signal. That is, the plurality of preset physiological information and the at least one expansion physiological information may include the heart sound information. In FIG. 2, one of the expansion programs 12 is signal-connected to the stethoscope 7, that is, the physiological monitor 1 receives the heart sound information sensed by the stethoscope 7 through one of the expansion programs 12. However, the physiological monitor 1 may also be signal-connected to the stethoscope 7 through the physiological monitoring program 11 to receive the heart sound information, which is not limited to the present embodiment.

In a preferred embodiment, the plurality of external devices include an ultrasound detector 8, and the processor 20 receives an ultrasound signal sensed by the ultrasound detector 8 through the physiological monitoring program 11 or the at least one extended program 12 to obtain ultrasound information corresponding to the ultrasound signal. In other words, the plurality of preset physiological information and the at least one extended physiological information may include the ultrasound signal. 2 takes one of the expansion programs 12 as an example of being connected to the ultrasound detector 8 by signal, i.e., the physiological monitor 1 receives the ultrasound information sensed by the ultrasound detector 8 through one of the expansion programs 12. However, the physiological monitor 1 may also be connected to the ultrasound detector 8 by signal through the physiological monitoring program 11 to receive the ultrasound information, which is not limited to the present embodiment.

Please refer to FIG. 3 , the novel physiological monitor 1 includes a display screen 30, preferably, the display screen 30 can be a touch display screen. The processor 20 controls the display screen 30 to display a physiological monitoring interface 111 of the physiological monitoring program 11, so that medical staff can view various physiological information presented by the physiological monitoring interface 111 through the display screen 30, and operate the physiological monitoring interface 111 through the display screen 30. The physiological monitoring interface 111 is used to present the physiological information of a patient, and includes a side block 112, a central block 113 and an additional block 114.

The processor 20 can display the corresponding values of the multiple preset physiological information in the side block 112. For example, the side block 112 can display the diastolic pressure and systolic pressure corresponding to the blood pressure information, the ear temperature corresponding to the temperature information, etc., so that medical staff can intuitively view the multiple preset physiological information of the patient through the side block 112. Among them, the side block 112 can further display the respiratory frequency, pulse rate, etc. corresponding to the multiple preset physiological information, which is not limited to this embodiment.

The central block 113 includes a body chart 1131 and a plurality of assessment result fields 1132. The body chart 1131 includes a plurality of body regions, and each assessment result field 1132 corresponds to one of the body regions of the body chart 1131. Medical staff can operate the physiological monitoring interface 111 through the display screen 30 to input a plurality of assessment results corresponding to different body regions in the plurality of assessment result fields 1132. The processor 20 receives the plurality of assessment results through the plurality of assessment result fields 1132, and generates the nursing record data according to the plurality of preset physiological information and the plurality of assessment results. In FIG. 3 , the multiple evaluation results are respectively represented by an evaluation level. The higher the evaluation level, the higher the criticality of the corresponding body area. However, the representation method of the multiple evaluation results is not limited to this embodiment.

In a preferred embodiment, the physiological monitoring program 11 is set with a warning value. When the assessment result in one of the assessment result fields exceeds the warning value, the physiological monitoring program 11 controls the body area corresponding to the assessment result field in the body chart 1131 to light up or flash to issue a warning, clearly indicating the patient's abnormal physical condition and the corresponding body part, and alerting medical staff.

The additional block 114 is used to display additional information. As shown in FIG3 , before logging in, the additional block 114 displays login information 1141 for the medical staff to enter relevant information for logging in. For example, fields such as patient number, patient gender, patient bed number, nurse number, and patient insurance card are displayed for the medical staff to enter relevant information for logging in.

4 , after logging in, the additional area 114 is used to display a note field 1142, a save/upload button 1143, and a temporary history list button 1144. The note field 1142 has a nursing record tab 1145, a picture tab 1146, and a memo tab 1147. The medical staff can operate the physiological monitoring interface 111 through the display screen 30, click the nursing record tab 1145, add nursing record items, and the nursing record tab 1145 has a recording button 1148 for adding nursing record items by voice. For example, when the medical staff clicks the recording button 1148, the nursing record items can be input by speaking. When the medical staff clicks the memo tab 1145, the memo tab 1145 also has the recording button 1148 for inputting a note in the memo tab 1147 by voice. In addition, the processor 20 receives the nursing record items and the notes through the notes field 1142, and generates the nursing record data according to the plurality of preset physiological information and the notes. In a preferred embodiment, the processor 20 generates the nursing record data according to the plurality of preset physiological information, the plurality of evaluation results, the nursing record items and the notes.

After the medical staff completes inputting the remarks, the medical staff can also operate the save/upload button 1143 through the display screen 30. When the save/upload button 1143 is triggered, the processor 20 will upload the nursing record data generated by the physiological monitoring program 11 to the external server for storage via wired or wireless communication.

In addition, when the save/upload button 1143 is triggered, the processor 20 can also store the nursing record data generated by the physiological monitoring program 11 in the storage device 10 and upload it to an external server for storage.

Furthermore, the medical staff can also operate the temporary history list button 1144 through the display screen 30. When the temporary history list button 1144 is triggered, the processor 20 presents each of the nursing record data previously stored in the storage device 10 so that the medical staff can review each of the past nursing record data.

In a preferred embodiment, the processor 20 controls the display screen 30 to display an expansion program interface of each expansion program 12, so that medical personnel can view various physiological information presented by the expansion program interface through the display screen 30 and operate the expansion program interface through the display screen 30.

Furthermore, the processor 20 has a program guide interface 115, and controls the display screen 30 to display the program guide interface 115 in the physiological monitoring interface 111 for medical personnel to view and operate. The physiological monitoring interface 111 is used to quickly and conveniently switch the physiological monitoring interface 111 of the physiological monitoring program 11 and the extended program interface of each extended program 12, and includes a plurality of control buttons corresponding to the physiological monitoring program 11 and each extended program 12. Medical personnel can switch and display the physiological monitoring interface 111 and each extended program interface by clicking different control buttons.

Please refer to FIG. 5 , when the medical staff clicks on one of the evaluation result fields 1132 in the central area 113, the side area 112 may be changed to display a teaching explanation corresponding to the selected evaluation result field 1132. For example, when the medical staff clicks on a pupil evaluation result field in the central area 113, the side area 112 may display a teaching explanation of pupil evaluation, such as + for response, - for no response, Represents a slow response.

As shown in FIG. 6 , the central block 113 has a nursing assessment tab 1133, a basic information tab 1134, and a reserved text tab 1135. The nursing assessment tab 1133 is used to display the body chart 1131 and the assessment result fields 1132. The basic information tab 1134 is used to display a plurality of basic information fields 1136. For example, basic information such as the patient's height, weight, input, output, etc. At the same time, when switching to the basic tab 1134, the side block 112 will also be changed to display a teaching description of one of the basic information fields 1136.

Please refer to FIG. 7 , when the central area 113 switches to the nursing assessment tab 1133, the side area 112 displays the corresponding values of the plurality of preset physiological information. When the medical staff clicks on the corresponding value of one of the preset physiological information in the side area 112, the physiological monitoring interface 111 will pop up an option window 116 for setting the measurement options. For example, when the medical staff selects a blood pressure value in the side area 112, the option window 116 displays a plurality of measurement interval time buttons, allowing the medical staff to select the interval time for blood pressure measurement.

Please refer to FIG8 , when a history list button 1151 among the control buttons of the program navigation interface 115 is clicked, the side block 112, the central block 113 and the additional block 114 are scaled down in equal proportion, and the physiological monitoring interface 111 adds a new block 117 from the left to display a history list.

Please refer to Figure 9. When the history list button 1151 among the control buttons of the program navigation interface 115 is clicked, the physiological monitoring interface 111 adds the display of the newly added block 117. The medical staff can also click the basic information tab 1134 in the central block 113 to switch the information displayed in the central block 113.

Please refer to FIG. 10 , when a history list button 1151 among the control buttons of the program navigation interface 115 is clicked, the physiological monitoring interface 111 adds and displays the newly added block 117, and a detailed data/trend chart switching button 1171 is further provided next to the newly added block 117. When the detailed data/trend chart switching button 1171 switches to a detailed data option, the side block 112, the central block 113, and the additional block 114 maintain the original display content, but are only scaled down. However, when the detailed data/trend chart switching button 1171 switches to a trend chart option, the side block 112, the central block 113 and the additional block 114 jointly display a trend chart 1172.

As shown in FIG. 11 , when a continuous measurement button 1152 among the control buttons of the program navigation interface 115 is clicked, the corresponding values of the plurality of preset physiological information are displayed, and the physiological monitoring interface 111 adds an option block 118 from the top of the program navigation interface 115 to display a plurality of options and detailed information. The central block 113 and the additional block 114 jointly display a continuous measurement waveform graph 1153 to display the continuous measurement waveform of the physiological information.

Please refer to FIG. 12 , when a continuous measurement button 1152 among the control buttons of the program navigation interface 115 is clicked, the physiological monitoring interface 111 adds and displays the option block 118 from the top of the program navigation interface 115, and the option block 118 has a blood pressure start measurement option 1181, an alarm pause option 1182, and a continuous upload option 1183. When the continuous upload option 1183 is clicked, the processor 20 uploads an electronic health record (EHR) having the continuous measurement waveform. When the upload is successful, the physiological monitoring interface 111 will pop up an upload success window 1184.

Please refer to FIG. 13 , when a parameter setting button 1154 among the control buttons of the program navigation interface 115 is clicked, the side block 112 , the central block 113 , and the additional block 114 jointly display a parameter setting screen 1155 for allowing medical personnel to select measurement items.

Please refer to Figure 14. When a 12-Lead EKG button 1156 among the control buttons of the program navigation interface 115 is clicked, the side block 112 continues to display the corresponding values of the multiple preset physiological information, while the central block 113 and the additional block 114 jointly display a 12-Lead EKG screen 1157 for medical personnel to refer to.

Please refer to Figure 15. When an EWS button 1158 among the control buttons of the program navigation interface 115 is clicked, the side block 112 continues to display the corresponding values of the multiple preset physiological information, while the central block 113 displays an EWS waveform 1159, and the additional block 114 displays an EWS value 1150 for medical personnel to refer to.

Please refer to FIG. 16 , when the continuous measurement button 1152 of the control buttons of the program guide interface 115 is clicked, in addition to the central block 113 and the additional block 114 jointly displaying the continuous measurement waveform 1153, the side block 112 displays the corresponding values of the plurality of preset physiological information, and also annotates and reminds when abnormal according to the settings of the medical staff. For example, when the values of the heart rate (HR) and the pulse (PR) are abnormal, the two values are annotated and reminded.

Please refer to Figure 17. When the continuous measurement button 1152 among the control buttons of the program navigation interface 115 is clicked, the medical staff can also directly click on the side block 112 to display one of the corresponding values of the multiple preset physiological information to adjust the parameters. For example, when blood sugar (BS) is clicked, a parameter adjustment window 119 will pop up, allowing the medical staff to set the upper and lower limit alarms.

As shown in FIG. 18 , the physiological monitoring interface 111 may also have a setting window 120 for allowing medical personnel to adjust the settings of the device, such as volume, brightness, or network settings.

In a preferred embodiment, the physiological monitoring interface 111 allows a medical staff to input patient information of the patient and medical staff information of the medical staff. The processor 20 generates and uploads the nursing record data of the patient recorded by the medical staff based on the patient information and the medical staff information to ensure that each nursing record data contains the name, number and other information of the corresponding patient and nurse.

The processor 20 of the novel physiological monitor 1 can receive the plurality of preset physiological information through the physiological monitoring program 11, and automatically generate and upload the nursing record data according to the plurality of preset physiological information, replacing the previous method in which medical staff need to record various physiological information by themselves to complete nursing records, reducing the workload of medical staff and avoiding the problem of easy errors in manual recording. In addition, the processor 20 can further set different extension programs 12 according to different medical needs, and receive corresponding extended physiological information through different extension programs 12, and then generate and upload the nursing record data according to the plurality of preset physiological information and each of the extended physiological information, thereby increasing the flexibility and applicability of physiological monitoring.

1: Physiological monitor 2: ECG sensor 3: Blood pressure sensor 4: Blood oxygen sensor 5: Ear thermometer 6: Blood glucose meter 7: Stethoscope 8: Ultrasound 10: Storage device 11: Physiological monitor program 111: Physiological monitor interface 112: Side area 113: Central area 1131: Body chart 1132: Assessment result field 114: Additional area 1141: Login information 1142: Notes field 1143: Save/upload button 1144: Temporary history list button 115: Programming guide interface 1151: History list button 1152: Continuous measurement button 1153: Continuous measurement waveform 1154: Parameter setting button 1155: Parameter setting screen 1156: 12-Lead EKG 1157: 12-Lead EKG screen 1158: EWS button 1159: EWS waveform 1150: EWS value 116: Option window 117: Add block 1171: Detailed data/trend chart switch button 1172: Trend chart 118: Option block 1181: Blood pressure measurement start option 1182: Alarm Pause Option 1183: Continuous Upload Option 1184: Upload Success Window 119: Parameter Adjustment Window 120: Settings Window 12: Extension Program 20: Processor 30: Display Screen

Figure 1: Block diagram of the new physiological monitor. Figure 2: Block diagram of the new physiological monitor connected to external devices. Figure 3: Login screen diagram of the physiological monitoring interface in the new physiological monitor. Figure 4: Nursing technology tab diagram of the physiological monitoring interface in the new physiological monitor. Figure 5: Teaching window diagram of the physiological monitoring interface in the new physiological monitor. Figure 6: Basic information tab diagram of the physiological monitoring interface in the new physiological monitor. Figure 7: Option window diagram of the physiological monitoring interface in the new physiological monitor. Figure 8: History list diagram of the physiological monitoring interface in the new physiological monitor. Figure 9: Another history list diagram of the physiological monitoring interface in the new physiological monitor. Figure 10: A trend diagram of the physiological monitoring interface in the new physiological monitor. Figure 11: A continuous measurement waveform diagram of the physiological monitoring interface in the new physiological monitor. Figure 12: A successful upload window diagram of the physiological monitoring interface in the new physiological monitor. Figure 13: A parameter setting screen diagram of the physiological monitoring interface in the new physiological monitor. Figure 14: A 12-Lead EKG screen diagram of the physiological monitoring interface in the new physiological monitor. Figure 15: A EWS screen diagram of the physiological monitoring interface in the new physiological monitor. Figure 16: Schematic diagram of the annotation reminder of the physiological monitoring interface in the new physiological monitor. Figure 17: Schematic diagram of the parameter adjustment window of the physiological monitoring interface in the new physiological monitor. Figure 18: Schematic diagram of the setting window of the physiological monitoring interface in the new physiological monitor.

1: Physiological monitor

10: Storage device

11: Physiological monitoring program

12: Extensions

20: Processor

30: Display screen

Claims (16)

A physiological monitor comprises: a storage device storing a physiological monitoring program; and a processor connected to the storage device, executing the physiological monitoring program, receiving a plurality of preset physiological information of a patient through the physiological monitoring program, and generating a nursing record data according to the plurality of preset physiological information. As described in claim 1, the storage device stores at least one extended program; the processor executes the at least one extended program and receives at least one extended physiological information of the patient through the at least one extended program, and generates the nursing record data based on the multiple default physiological information and the at least one extended physiological information. As described in claim 1, the processor uploads the nursing record data to a server for storage through the physiological monitoring program. In the physiological monitor as described in claim 2, the processor receives the plurality of preset physiological information from a plurality of external devices through the physiological monitoring program, and receives the at least one extended physiological information from a plurality of external devices through the at least one extended program. As described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include an electrocardiogram information; The processor obtains the electrocardiogram information corresponding to an electrocardiogram signal sensed by a plurality of electrocardiogram sensors through the physiological monitoring program or the at least one extended program. As described in claim 4, the plurality of preset physiological information and the at least one expanded physiological information include a blood pressure information; The processor obtains the blood pressure information corresponding to a blood pressure signal sensed by a blood pressure sensor through the physiological monitoring program or the at least one expanded program. As described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include blood oxygen information; The processor obtains the blood oxygen information corresponding to a blood oxygen signal sensed by a blood oxygen sensor through the physiological monitoring program or the at least one extended program. As described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include temperature information; The processor obtains the temperature information corresponding to a temperature signal sensed by an ear thermometer through the physiological monitoring program or the at least one extended program. In the physiological monitor described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include a blood glucose information; The processor obtains the blood glucose information corresponding to a blood glucose signal sensed by a blood glucose meter through the physiological monitoring program or the at least one extended program. In the physiological monitor as described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include a heart sound information; The processor obtains the heart sound information corresponding to a heart sound signal sensed by a stethoscope through the physiological monitoring program or the at least one extended program. In the physiological monitor described in claim 4, the plurality of preset physiological information and the at least one extended physiological information include an ultrasonic information; The processor obtains the ultrasonic information corresponding to an ultrasonic signal sensed by an ultrasonic examination instrument through the physiological monitoring program or the at least one extended program. The physiological monitor as described in claim 1 includes a display screen; The processor controls the display screen to display a physiological monitoring interface of the physiological monitoring program, and the physiological monitoring interface contains a physiological value block, and the corresponding values of the plurality of preset physiological information are displayed in the physiological value block. A physiological monitor as described in claim 12, wherein the physiological monitor interface includes a human assessment block; The human assessment block includes a body chart and a plurality of assessment result fields, each assessment result field corresponds to one of the body regions of the body chart, the processor receives a plurality of assessment results through the plurality of assessment result fields, and generates the nursing record data according to the plurality of preset physiological information and the plurality of assessment results. In the physiological monitor as described in claim 13, the physiological monitoring program is set with an alarm value. When the processor determines that the evaluation result in one of the evaluation result fields exceeds the alarm value, the physiological monitoring program controls the body area corresponding to the evaluation result field in the body chart to light up or flash. The physiological monitor as described in claim 12, wherein the physiological monitoring interface contains a remark block; The processor receives a remark item through the remark block and generates the nursing record data according to the plurality of preset physiological information and the remark item. As described in claim 12, the processor has a program guide interface and controls the display screen to display the program guide interface and an extension program interface of each extension program; The processor switches the display of the physiological monitoring interface of the physiological monitoring program and the extension program interface of each extension program through the physiological monitoring interface.