Abstract: Circuits are provided for detecting an electrosurgical unit signal. An example circuit includes: a filter configured to process a floating ground signal associated with measuring a bio potential signal of a patient, and a detector configured to output a sensing signal based at least in part on the floating grounding and the Earth ground for detecting an electrosurgical unit signal.

Abstract: A device (10), a method and a computer program detect an optical image and generate optical image data of a patient positioning device (20). The device (10) is configured to detect optical image and generate optical image data of a patient positioning device (20) and to determine the position of at least two partial segments (20a; 20b; 20c; 20d) of the patient positioning device (20) on the basis of the image data. The device (10) has, further, an interface (16) for outputting information on the position of the at least two partial segments (20a; 20b; 20c; 20d).

Abstract: A method selects the setting of a first operating parameter of a ventilation system that includes devices for feeding breathing air to and removing from a patient (7), a display device (13) with a screen (15) and a computer (11). The method includes presetting a first target value range for a first ventilation parameter, calculating permissible first operating parameter values by the computer (11) for the first operating parameter, so that the first ventilation parameter value is within the target value range if a permissible first operating parameter value is set; calculating values of a preset cost function, which is a function of at least one operating parameter, by the computer (11); selecting a first operating parameter value by the computer (11), at which the value of the cost function has an optimum; and outputting the selected first operating parameter value on the screen (15) of the display device (13).

Abstract: A thermotherapy device (incubator) includes a lying surface bordered by side walls with a side wall part suspended via a hinge allowing downward pivoting with a lock for an upright closed position. The locking mechanism has a closing projection that can enter an open side receptacle, with guide curve, to lock the side wall part in the upright closed position on a stationary structure of the heat therapy device. The closing projection or the receptacle is suspended so as to be linearly movable in the direction of connection lines thereof to the pivot axis of the hinge, such that the closing projection can be moved to a position in front of the open side of the receptacle. A preloading apparatus ensures that the closing projection and the receptacle are pressed together in form-closed engagement when the closing projection and the open side of the receptacle are oriented toward each other.

Abstract: A device for determining the regional distribution of a parameter for lung perfusion includes an electrical impedance tomography unit with electrodes (E1, . . . EN), which can be placed on the thorax, that are connected to a control and analysis unit (2) and an administering device (4) for the intravenous administration of a conductivity contrast medium. The control and analysis unit (2) is configured to display changes in impedance distribution occurring as a consequence of the administration of conductivity contrast medium as a parameter for lung perfusion in the section plane as a function of time. The administering device (4) has a controllable dispensing device. The control and analysis unit and the dispensing device are connected with one another via a data link (3). A start time and an end time and a quantity of an administered bolus of the conductivity contrast medium are available to the control and analysis unit (2).

Abstract: A method for operating an air-drying device (10) and an air-drying device (10) are provided. The air-drying device (10) has at least one adsorption device (20) with a first adsorption section (21), a second adsorption section (22), an air feed line (11), an air removal line and an analysis unit (13). The first adsorption section (21) and the second adsorption section (22) can be used alternatingly to dry air (70). The air feed line (11) feeds air (70) to be dried and is connected to an inlet opening (24) of the adsorption device (20) in a fluid-communicating manner. The air removal line (12) removes dried air (70) and is connected to an outlet opening (25) of the adsorption device (20) in a fluid-communicating manner. A compressed air system (60) for providing compressed air (70) has such an air-drying device (10).

Abstract: A device (10) for processing data (3), which were obtained from a medical device suitable for imaging the lungs or the thorax, particularly an electrical impedance tomography device (30), provides improved visualization of a three-dimensional thoracic dimension (350) of the lungs. A characteristic contour (34, 350) is determined continuously by continuous reference to a previously determined outer contour (905) of the lungs as a comparison variable and is outputted, provided and visualized as an output signal (35).

Abstract: An apparatus, for assisted ventilation (1), includes at least one ventilatory device (2) connected to and controlled by a driver (3), and at least one sensor device (4) connected to the driver (3) and adapted to provide it with a signal of electrical activity produced by the diaphragm. The apparatus further includes at least one calculation device (5) connected to the driver (3), to the sensor device (4) and to the ventilatory device (2), the calculation device (5) receiving from the sensor device (4) a signal of diaphragmatic activity (Eadi) and from the ventilatory device (2) a ventilatory pressure signal (Paw) and providing the driver (3) with calibration parameters (Cal) calculated on the basis of a signal of diaphragmatic electrical activity (Eadi*) and a ventilatory pressure signal (Paw*) upon switching-off said ventilatory device (2) so as to cause an expiratory pause.

Abstract: A process is provided for operating a respirator and/or anesthesia device in the APRV mode with at least one pressure release phase with the step of setting a first point in time for terminating the pressure release phase. The process includes measuring the electrical impedance and/or impedance change of the lungs and setting the first point in time such that the measured impedance and/or impedance change are taken into account. A device is provided for carrying out the process according to the present invention.

Abstract: A respiration system for noninvasive respiration includes a respiration drive, which is controlled by a control device, and includes a patient module (4) with electrodes for picking up electrode signals from the surface of the chest of a patient. The control device is set up to suppress ECG signals in the electrode signals in order to obtain electromyographic signals (EMG signals) representing the breathing effort and to control the respiration drive as a function of the EMG signals. Provisions are made for deriving ECG signals from the electrode signals before said ECG signals are suppressed and for making data representative of the ECG available for display.

Abstract: A device detects electric potentials with measuring inputs (7) for connection to measuring electrodes (9), which can be placed on the body of a patient (3). Measuring amplifiers (Op1, . . . , OpN) have a first and a second input as well as an output (11). A summing unit (13, 23) is connected to the outputs of the measuring amplifiers and sends a signal proportional to a mean value of the signals of the outputs of the measuring amplifiers to an output (15, 17) of the summing unit. Each of the measuring inputs is connected to a first input of a measuring amplifier. The second input of each measuring amplifier is connected to the output (17) of the summing unit. A potential output (19) connects to an electrode and to an output of a further amplifier Opc), with an input connected to the output (15) of the summing unit.

Abstract: A device and process generates an alarm during a machine-assisted ventilation of a patient. A minute volume is measured and a median of the minute volume and a lower critical limit value of the minute volume and a time delay are determined and are recorded in a control device. A reference signal is determined as a function of the lower critical limit value for the minute volume and the time delay based on the median of the minute volume. From the reference signal an alarm limit value located below the lower critical limit value as well as a value for a maximum tolerated duration of apnea of the patient are derivable. An alarm signal is generated both during an undershooting of the lower critical limit value over a period of time that is longer than the established time delay and during an undershooting of the alarm limit value.

Abstract: An EMG measuring system has a signal processing unit (8) and with at least one electrode (4) for measuring a potential difference in a muscle, a muscle fiber or in a skin area of a patient. At least one measured signal representing the potential difference is transmitted from the electrode (4) to the signal processing unit (8). Another signal, which is transmitted to the at least one external device (9), is generated in the signal processing unit (8) on the basis of this measured signal. A signal transmitted from the at least one external device (9) is processed by the signal processing unit (8) and at least one control signal is generated on the basis of this signal.

Abstract: A device for detecting electric potentials includes a plurality of measuring inputs (9) for connecting to measuring electrodes (11), which can be placed on the body of a patient (3), a plurality of measuring amplifiers (Op1, . . . , OpN), and a potential output (27) for connecting to an additional electrode (31), which can be placed on the body of the patient (3), to which a preset voltage can be applied. A summing unit (17) sends a signal, which is an indicator of the mean value of the signals sent by the measuring amplifiers (Op1, . . . , OpN). A current-measuring device (29) sends a current signal, which is proportional to the current flowing through the potential output. An analyzing unit (35) is connected to receive a potential output voltage signal, the summing unit output (19) signal and the current-measuring device signal. The analyzing unit is configured to generate an impedance signal from the fed signals.

Abstract: A nose adapter (2) and system, for use in noninvasive respiratory support, has a proximal end, for coupling to the nose, and a distal end for coupling to a ventilation device. An inspiratory channel (6) and an expiratory channel (7) extend between the proximal and distal end. The distal ends of the channels terminate in a respective connection adapter (30, 31) for connecting ventilation tubes (4). The proximal ends of the inspiratory and the expiratory channels are bent inwards 90° such that the openings of the channels face each other. A cylindrical tube element (34), rotatably held between the openings, has a through-opening in the cylindrical circumferential surface of the tube element. A connection nozzle (13) connects to a prong or a nose mask and is formed on the outer face of the rotatable tube element (34), in alignment with the through-opening, such that the connection nozzle can pivot.