Abstract: A monitoring system, a data transmission method, a portable monitor, and a configurator. The system includes the portable monitor and the configurator; a mechanical detachable connection can be realized between the portable monitor and the configurator; the portable monitor is configured to work independently after the two are mechanically separated. The configurator is used for storing description information. The portable monitor includes a measurement module for collecting physiological data of a patient; a communication module for accessing to a network for a hospital and transmitting the physiological data; a connection detection circuit for outputting a control signal after detecting that the portable monitor is connected to the configurator; a processor for obtaining the description information from the configurator, and configuring the portable monitor according to the description information.

Abstract: A method for responding to an operation trajectory is disclosed. The method is applied to a monitor configured to monitor and display physiological data of a patient. The method includes displaying at least one physiological data of a first patient on a display interface. The at least one physiological data comprises at least one of electrocardiogram, blood oxygen, blood pressure, respiration rate, body temperature and heart rate. The method further includes detecting a screen-touching operation triggered by a user on the display interface and acquiring an operation trajectory corresponding to the screen-touching operation according to the screen-touching operation. The operation trajectory includes a start point and an end point, the start point corresponding to a first time point, the end point corresponding to a second time point, and the second time point being later than the first time point.

Abstract: A vital sign monitoring device including a human-computer interaction apparatus and a processor is disclosed. The human-computer interaction apparatus displays a measurement mode identifier list, a working mode definition area and a workflow configuration information definition area; the processor determines a working mode on the basis of a working mode definition instruction, determines workflow configuration information on the basis of a workflow configuration information definition instruction, and determines a monitoring page on the basis of the workflow configuration information; a target measurement mode corresponding to the target workflow configuration information is selected from the measurement mode identifier list on the basis of a measurement mode selection instruction; and the human-computer interaction apparatus displays a target monitoring page corresponding to the target measurement mode.

Abstract: An interface display method, and a monitor and a computer storage medium, are used for providing parameter layout pages corresponding to a plurality of measurement modes, such that a user selects a target parameter layout page suitable for an actual use situation. The method includes selecting a target measurement mode according to a usage scenario of a monitor or a working habit of the user; and after a measurement mode selection instruction is input to the monitor, the monitor determining, based on the measurement mode selection instruction, a target parameter layout page, and presenting the target parameter layout page to the user. Therefore, a monitor can display different parameter layout pages according to different usage scenarios or working habits of users, thereby meeting different measurement requirements of users, such that the monitor can adapt to a usage situation of users.

Abstract: This disclosure provides a monitoring device, which includes a display configured to display information and a processor. The processor is configured to: display a medical advice setup area in a display interface of the monitoring device at a first moment; and display at least one of criticality level information or medical advice information of a monitored subject in the medical advice setup area at a second moment, where the second moment is later than the first moment. The monitoring device in this disclosure may provide different display interfaces for medical staff; a doctor may first configure the criticality level and medical advice information of a monitored subject on an interface so as to prompt a nurse of information that requires attention and measurements requiring execution, after that the nurse may learn the nursing matters requiring attention, which improves the cooperation efficiency between doctors and nurses.

Abstract: A display method applied to a monitor is disclosed. The method includes acquiring a first partition configuration on a display interface of a touch display screen of the monitor; displaying at least one physiological data in the first physiological data display area; displaying data other than the at least one physiological data in the first function information display area; detecting a touch screen operation received by the touch display screen; acquiring a second partition configuration of the display interface if a first touch screen operation that meets a preset re-partitioning rule is detected, the second partition configuration including a second physiological data display area, a second function information display area, and a third function information display area; partially or fully displaying at least one physiological data in the second physiological data display area; and displaying data other than the at least one physiological data in the second function information display area.

Abstract: An monitor includes a host and a first display communicatively connected to the host. In a display screen switching method for the monitor, it is detected that a second display is connected, the second display is provided independently of the monitor. It is detected that a display screen switching instruction is received and a display file corresponding to configuration parameters of the second display is read, the display file includes one or more physiological parameters to be displayed, an interface layout and interface elements. Data of the one or more physiological parameters are acquired according to the display file and generating frame data for representing pixel values of pixels on a display interface. The frame data are output to the second display to display data of the one or more physiological parameters.

Abstract: Embodiments of this disclosure provide an orthostatic hypotension monitoring method. The method includes displaying a blood pressure monitoring interface having operation instruction information that instructs an operator to confirm a posture state of a monitored object; measuring physiological parameter data of the monitored object, in response to the state confirmation instruction of the operator, and acquiring an orthostatic hypotension monitoring result based on the physiological parameter data automatically. This method can provide the operator with an auxiliary interface according with the orthostatic hypotension assessment process, and guide the operator to complete the orthostatic hypotension assessment according to the standardized assessment criteria. Accordingly, the operation process is simple and convenient, and the accuracy of the monitoring results is relatively high. In additional, an orthostatic hypotension monitoring apparatus is further provided in this disclosure.

Abstract: A method for measuring physiological parameter, including: displaying a vital sign monitoring interface, the vital sign monitoring interface includes at least two measurement start control; according to the triggering operation input by a user through the measurement start control, determining the position information corresponding to the triggered measurement start control; after acquiring a blood pressure value collected by a blood pressure measurement accessory, associating the blood pressure parameter value with the position information and displaying the blood pressure parameter value in the vital sign monitoring interface by indicating the correspondence relationship between the blood pressure parameter value and the position information, to remind the user that the blood pressure parameter value is in which position of the monitored subject.

Abstract: This disclosure provides a monitoring device, which includes a display configured to display information and a processor. The processor is configured to: display a medical advice setup area in a display interface of the monitoring device at a first moment; and display at least one of criticality level information or medical advice information of a monitored subject in the medical advice setup area at a second moment, where the second moment is later than the first moment. The monitoring device in this disclosure may provide different display interfaces for medical staff; a doctor may first configure the criticality level and medical advice information of a monitored subject on an interface so as to prompt a nurse of information that requires attention and measurements requiring execution, after that the nurse may learn the nursing matters requiring attention, which improves the cooperation efficiency between doctors and nurses.

Abstract: A medical monitoring system includes: one or more signal sampling devices to detect parameter data corresponding to at least one physiological parameter; memory to store the parameter data corresponding to the at least one physiological parameter; a display to display parameter data obtained by at least one sensor; and a processor to obtain, according to the parameter data, abnormal event indications having a plurality of different attributes and transmit the abnormal event indications to the display; wherein the abnormal event indications are shown as anomalies identifiers on a timeline.

Abstract: A method for dynamically displaying a change of a parameter measured at an interval comprises: dynamically monitoring at least one type of hemodynamic parameters of a patient by means of a sensor on a monitor; obtaining a first monitoring value of the type of hemodynamic parameters monitored at a first monitoring time; displaying a first form corresponding to the first monitoring value in a simulated graph corresponding to each type of the hemodynamic parameters on a graphic display interface; obtaining a second monitoring value of the type of hemodynamic parameters monitored at a second monitoring time, and determining a second form of the corresponding simulated graph; and adjusting the simulated graph corresponding to each type of hemodynamic parameter from the first form to the second form on the graphic display interface. Also provided are a corresponding system and a dynamic monitor.

Abstract: A medical intensive care system includes one or more signal sampling devices to detect at least one physiological parameter and parameter data corresponding thereto; memory to store the parameter data, and provide historical parameter data by storing the parameter data in a chronological order; a processor to process the historical parameter data to obtain a plurality types of data in an intensive care time interval; a display to display the plurality types of the data and current parameter data, comparatively, and update, when a historical intensive care time interval is adjusted, the plurality types of the data according to a change in the time interval.

Abstract: Monitors and display screen switching methods therefor are disclosed. An exemplary monitor includes a host and a first display communicatively connected to the host. An exemplary display screen switching method for the monitor includes detecting that a second display is connected, the second display being provided independently of the monitor. The display screen switching method further includes detecting that a display screen switching instruction is received and reading a corresponding display file according to configuration parameters of the second display, the display file comprising one or more physiological parameters to be displayed, an interface layout and interface elements. The display screen switching method also includes acquiring data of the one or more physiological parameters according to the display file and generating frame data, the frame data being used for representing pixel values of pixels on a display interface.

Abstract: A monitoring device includes: a signal collection unit for collecting physiological parameters for representing a physiological status of a human body; a storage unit for storing guidance information of the physiological parameters, the guidance information corresponding to at least one measurement operation step of the physiological parameters; a processing unit for generating a monitoring interface for the physiological parameters and a measurement operation interface corresponding to current measurement operation step and for associating the guidance information corresponding to the current measurement operation step with the measurement operation interface; and a display unit for displaying at least one of the monitoring interface comprising the physiological parameters, the measurement operation interface, and the guidance information.

Abstract: A monitoring system, a data transmission method, a portable monitor, and a configurator. The system includes the portable monitor and the configurator; a mechanical detachable connection can be realized between the portable monitor and the configurator; the portable monitor is configured to work independently after the two are mechanically separated. The configurator is used for storing description information. The portable monitor includes a measurement module for collecting physiological data of a patient; a communication module for accessing to a network for a hospital and transmitting the physiological data; a connection detection circuit for outputting a control signal after detecting that the portable monitor is connected to the configurator; a processor for obtaining the description information from the configurator, and configuring the portable monitor according to the description information.

Abstract: A display method applied to a monitor is disclosed. The method includes acquiring a first partition configuration on a display interface of a touch display screen of the monitor; displaying at least one physiological data in the first physiological data display area; displaying data other than the at least one physiological data in the first function information display area; detecting a touch screen operation received by the touch display screen; acquiring a second partition configuration of the display interface if a first touch screen operation that meets a preset re-partitioning rule is detected, the second partition configuration including a second physiological data display area, a second function information display area, and a third function information display area; partially or fully displaying at least one physiological data in the second physiological data display area; and displaying data other than the at least one physiological data in the second function information display area.

Abstract: A method for responding to an operation trajectory is disclosed. The method is applied to a monitor configured to monitor and display physiological data of a patient. The method includes displaying at least one physiological data of a first patient on a display interface. The at least one physiological data comprises at least one of electrocardiogram, blood oxygen, blood pressure, respiration rate, body temperature and heart rate. The method further includes detecting a screen-touching operation triggered by a user on the display interface and acquiring an operation trajectory corresponding to the screen-touching operation according to the screen-touching operation. The operation trajectory includes a start point and an end point, the start point corresponding to a first time point, the end point corresponding to a second time point, and the second time point being later than the first time point.

Abstract: Methods and systems are disclosed for displaying clinical parameters in a chart that can be easily interpreted by medical personnel. A system includes a parameter acquiring device configured to acquire data signals indicative of depth of anesthesia in real time. The system also includes a data processor and a display device, which are in communication with the parameter acquiring device.

Abstract: A method for dynamically displaying a change of a parameter measured at an interval comprises: dynamically monitoring at least one type of hemodynamic parameters of a patient by means of a sensor on a monitor; obtaining a first monitoring value of the type of hemodynamic parameters monitored at a first monitoring time; displaying a first form corresponding to the first monitoring value in a simulated graph corresponding to each type of the hemodynamic parameters on a graphic display interface; obtaining a second monitoring value of the type of hemodynamic parameters monitored at a second monitoring time, and determining a second form of the corresponding simulated graph; and adjusting the simulated graph corresponding to each type of hemodynamic parameter from the first form to the second form on the graphic display interface. Also provided are a corresponding system and a dynamic monitor.