Abstract: A bedside patient monitor comprises a clinician support system. The clinician support system comprises at least one of the following modules of: a disease-specified decision module (11), disease-specified treatment module (13) or disease-specified observation module (15). The bedside monitor comprises a first interface (105) for manual patient-related input and a second interface (107) for continuous input of a sensor signal. The clinician is supported to deliver requested information and execute the treatment in a predetermined way supported by the clinician support system.

Abstract: A patient monitoring system includes a display that displays a plurality of sectors including one or more icons. A controller is configured to display patient data received from a patient monitoring system in a corresponding sector of the display. The controller programmed to determine patient status from the patient data and display the patient status as an icon on the display. The icon is color-coded with the severity or deviation from normal of the patient status. The icon can also include an arrow that indicates if the patient status is improving or deteriorating.

Abstract: A patient monitor system (10) includes a signal processor (30) which analyzes signals from physiological parameter sensors (20) to derive physiological data values, plots, and alarms. A display (12) displays physiological values and plots (42). An advisor engine, routine, or processor (34) is connected with the signal processor to analyze at least alarm occurrences, also in combination with user interactions, and provide directly actionable advice for reducing alarm frequency which is displayed unobtrusively on the display. The directly actionable advice includes specific actions or adjustments which are specific to a current patient, a present situation, or a present mode or setting of the patient monitor system. The unobtrusively displayed directly actionable advice is displayed without the use requesting it.

Abstract: A patient monitor system (10) includes a signal processor (30) which analyzes signals from physiological parameter sensors (20) to derive physiological data values, plots, and alarms. A display (12) displays physiological values and plots (42). An advisor engine, routine, or processor (34) is connected with the signal processor to analyze at least alarm occurrences, also in combination with user interactions, and provide directly actionable advice for reducing alarm frequency which is displayed unobtrusively on the display. The directly actionable advice includes specific actions or adjustments which are specific to a current patient, a present situation, or a present mode or setting of the patient monitor system. The unobtrusively displayed directly actionable advice is displayed without the use requesting it.

Abstract: A controlling device (110) is configured for controlling a state of an alarm limit of an alarm device (108). The alarm device (108) is configured for generating an alarm signal in association with a monitored physiological parameter of a patient. The alarm limit triggers the generation of the alarm signal. In order to automatically control the state of the alarm limit, the controlling device (110) comprises a receiving unit (146) configured for receiving information indicating an administration of a treatment to the patient, a determining unit (148) configured for determining whether the treatment is administered to the patient based on the received information, and a controlling unit (150) configured for controlling the state of the alarm limit based on a result of the determination of the determining unit (148).

Abstract: When monitoring physiological parameters (e.g., blood pressure, heart rate, etc.) of a patient, a threshold limit (30) is set (e.g., automatically or manually) and the monitored parameter is continuously compared to the threshold limit, which may be constant or may vary with time. An alarm (36) is triggered if the monitored parameter exceeds the threshold limit at any time, or if the monitored parameter has not reached a target value by the end of a predefined time period by which an administered drug or therapy should have been effective.

Abstract: A controlling device (110) is configured for controlling a state of an alarm limit of an alarm device (108). The alarm device (108) is configured for generating an alarm signal in association with a monitored physiological parameter of a patient. The alarm limit triggers the generation of the alarm signal. In order to automatically control the state of the alarm limit, the controlling device (110) comprises a receiving unit (146) configured for receiving information indicating an administration of a treatment to the patient, a determining unit (148) configured for determining whether the treatment is administered to the patient based on the received information, and a controlling unit (150) configured for controlling the state of the alarm limit based on a result of the determination of the determining unit (148).

Abstract: The invention concerns a system for monitoring and controlling a patient (1), with a patient sensor (2) for capturing a patient signal, and a user interface (6) for providing a user with information on the captured patient signal, wherein the system comprises an integrated closed loop controller (4) which is fed with the patient signal and which controls a patient treating device (5) for treating the patient (1). Thus, an easy and efficient way of monitoring and controlling a patient is provided.

Abstract: A patient monitoring system includes a display that displays a plurality of sectors including one or more icons. A controller is configured to display patient data received from a patient monitoring system in a corresponding sector of the display. The controller programmed to determine patient status from the patient data and display the patient status as an icon on the display. The icon is color-coded with the severity or deviation from normal of the patient status. The icon can also include an arrow that indicates if the patient status is improving or deteriorating.

Abstract: In a method of automatically displaying medical measurement data, a computer receives medical measurement data, automatically, in real time, converts the received measurement data into data for histograms, and outputs the converted data as picture signals. A readout (10) displays histogram columns (12) and a cumulative curve (14).

Abstract: When monitoring physiological parameters (e.g., blood pressure, heart rate, etc.) of a patient, a threshold limit (30) is set (e.g., automatically or manually) and the monitored parameter is continuously compared to the threshold limit, which may be constant or may vary with time. An alarm (36) is triggered if the monitored parameter exceeds the threshold limit at any time, or if the monitored parameter has not reached a target value by the end of a predefined time period by which an administered drug or therapy should have been effective.

Abstract: The invention concerns a system for monitoring and controlling a patient (1), with a patient sensor (2) for capturing a patient signal, and a user interface (6) for providing a user with information on the captured patient signal, wherein the system comprises an integrated closed loop controller (4) which is fed with the patient signal and which controls a patient treating device (5) for treating the patient (1). Thus, an easy and efficient way of monitoring and controlling a patient is provided.

Abstract: A bedside patient monitor comprises a clinician support system. The clinician support system comprises at least one of the following modules of: a disease-specified decision module (11), disease-specified treatment module (13) or disease-specified observation module (15). The bedside monitor comprises a first interface (105) for manual patient-related input and a second interface (107) for continuous input of a sensor signal. The clinician is supported to deliver requested information and execute the treatment in a predetermined way supported by the clinician support system.

Abstract: The present invention relates to a method and system (1) of medical monitoring. Furthermore the present invention relates to a computer program for controlling a medical monitoring system (1). In order to provide an improved monitoring technique that allows a more effective analysis of monitored data, a medical monitoring method is provided, the method comprising the steps of acquiring medical data of a patient, analyzing the medical data with respect to a number of event parameters (17, 18, 19, 20), whereas a number of user-definable trigger conditions (10) are assigned to each of the event parameters (17, 18, 19, 10), and in case a number of said trigger conditions (10) are detected providing medical context information (15) and activating an event notification (22). In other words, not only is medical information (15) provided, additionally an event notification (22) is activated, if a number of trigger conditions (10) are detected.

Abstract: The invention relates to a method of automatically displaying medical measurement data in which a computer receives the medical measurement data, automatically, in real time, converts the received measurement data into data for histograms and outputs the converted data picture signals.

Abstract: The present invention relates to a method for monitoring a system in which a datum-line display (11) is generated on a viewing screen (4) for at least one parameter of the system, comprising a baseline (14) that represents a base value for the parameter concerned, a continuous curve (15) that represents a variation with time of the values of the parameter concerned and is normal with respect to the baseline (14), and a deviation bar (16) that represents the instantaneous deviation between the base value and current parameter value and is normalized with respect to the baseline (14).

Abstract: The present invention relates to a method for monitoring a system in which a datum-line display (11) is generated on a viewing screen (4) for at least one parameter of the system, comprising a baseline (14) that represents a base value for the parameter concerned, a continuous curve (15) that represents a variation with time of the values of the parameter concerned and is normalized with respect to the baseline (14), and a deviation bar (16) that represents the instantaneous deviation between the base value and the current parameter value and is normalized with respect to the baseline (14).

Abstract: A medical monitoring device includes a system for monitoring and recording physiological parameters of a patient. The monitored physiological parameters are compared by a comparator with a predetermined threshold or an alarm limitassociated with the respective physiological parameter, the presence of an event being detected, if a physiological parameter exceeds the associated threshold or the associated alarm limit for a predetermined period of time, depending on an operation mode set by a user. If the presence of an event is detected, the fact that an event was detected, the parameter value which caused the event and, optionally, further recorded parameter values as well as the respective time at which the event was detected are stored in a memory. Finally, the medical monitoring device includes a display on which a representation of the events which were stored during a predetermined, preceding period of time is produced in relation to time.

Abstract: An input device, in particular for a medical monitoring system, comprises a keyboard, a screen and a control processor. The keyboard comprises various hardkeys enabling access to an object mode in which the user may enter an object to be manipulated. Once an object is selected, the device enters a task/action mode in which the user may define an action to be performed on the selected object.

Abstract: An input device, in particular for a medical monitoring system, comprises a keyboard, a screen and a control processor. The keyboard comprises various hardkeys enabling access to an object mode in which the user may enter an object to be manipulated. Once an object is selected, the device enters a task/action mode in which the user may define an action to be performed on the selected object.