Abstract: A bow shaped pulse meter for new-born patients, comprising a control unit arranged in a central portion of the pulse meter, a first arm with an integrated first electrode and a second arm with an integrated second electrode extending respectively in a bow from opposite sides of the central portion, the integrated electrodes are configured to be in contact with a patient body (not shown) when in use, the electrodes being further electrically connected to the control unit.

Abstract: A bow shaped pulse meter for new-born patients, comprising —a control unit (21) arranged in a central portion (3) of the pulse meter (1), a first arm (2) with an integrated first electrode and a second arm (2) with an integrated second electrode extending respectively in a bow from opposite sides of said central portion (3), —said integrated electrodes are configured to be in contact with a patient body (not shown) when in use, said electrodes being further electrically connected to said control unit (21).

Abstract: A fetal heart rate measuring assembly having a transducer housing with an ultrasound transducer. The transducer housing is adapted to be coupled to the abdomen of a pregnant woman. The assembly has display unit comprising a display, and a wire extending between the transducer housing and the display unit. The assembly further comprises a dry electrode pair, by means of which the fetal heart rate measuring assembly is adapted to measure the heart rate of the pregnant woman. The dry electrode pair is arranged on the display unit.

Abstract: A fetal heart rate measuring assembly (1) comprising an ultrasound transducer (71) adapted to perform fetal heart rate measurements when attached to the abdomen of a pregnant woman, a logic unit (31) connected to the ultrasound transducer (71), a battery (39), and a measurement presentation unit (35), wherein the entire assembly (1) is adapted to be attached to said pregnant woman. The assembly further comprises an accelerometer (73) adapted to sense movement of the pregnant woman.

Abstract: Pulse meter comprising a first electrode (4) and second electrode (5), which are adapted to be arranged in contact with a patient body part (9). The first and the second electrode (4, 5) are arranged on a first arm (1) and a second arm (2), respectively. The first and second arm (1, 2) extend out from a central portion (3), and the respective first ends (4a, 5a) of the first and second arm (1, 2) are arranged to be bent away from each other when the pulse meter (10) is being arranged into the applied position on the patient body part (9).

Abstract: Embodiments are directed to a ventilation device and method to be used on a patient during CPR. In one embodiment, the ventilation device comprises a housing having at least one opening for interfacing with a patient's airway, at least one valve configured to permit outflow of respiratory gases/air from the airway to ambient, a release mechanism for opening and closing an inlet passage to permit inflow of respiratory gases/air to the airway, and a control device for controlling the opening/closing of the inlet passage.

Abstract: Embodiments of the present invention are directed toward a system and method of determining real time chest compression depth of a CPR patient or manikin from acceleration and a reference signal, such as force. In one embodiment, an acceleration signal is filtered and integrated to determine a raw depth signal. A force signal is adjusted to having a similar amplitude, phase, and shape as the raw depth signal. The force signal is filtered. The adjusted force signal is subtracted from the filtered force signal to obtain a compensation signal. The chest compression depth is obtained by adding the raw depth signal to the compensation signal.

Abstract: A device for monitoring respiration comprises a duct, a flow restricting element in the duct, and a pressure sensor arranged in the duct. The pressure sensor measures a pressure drop across the flow restricting element as a pressure difference between a pressure at a location in the duct on a first side of the flow restricting element and a substantially constant pressure on a second side of the flow restricting element opposite the first side.

Abstract: Embodiments are directed to a device and method for detecting heart beats and/or monitoring ventilation and/or respiration of a patient using air pressure. In one embodiment, a monitoring device comprises a gas duct and at least one pressure sensor configured to measure pressure in the duct. The duct may be in fluid communication with a patients airways. Based on the sensed pressure, a heart beat of the patient may be detected. In another embodiment, a flow rate of the air expired from the patient may be calculated based on the pressure and a known flow resistance.

Abstract: Embodiments are directed to a ventilation device and method to be used on a patient during CPR. In one embodiment, the ventilation device comprises a housing having at least one opening for interfacing with a patient's airway, at least one valve configured to permit outflow of respiratory gases/air from the airway to ambient, a release mechanism for opening and closing an inlet passage to permit inflow of respiratory gases/air to the airway, and a control device for controlling the opening/closing of the inlet passage.

Abstract: The present invention relates to a device and method for providing ventilation and perfusion in a patient. The device comprises an airway pressure supply device and a controller for controlling the airway pressure of the airway pressure supply device. In one embodiment, the airway pressure supply device comprises a piston moveably arranged in a cylinder and a motor connected to the piston. Activation of the airway pressure supply device is performed by moving the piston in the cylinder by the motor.

Abstract: A device for monitoring respiration comprises a duct, a flow restricting element in the duct, and a pressure sensor arranged in the duct. The pressure sensor measures a pressure drop across the flow restricting element as a pressure difference between a pressure at a location in the duct on a first side of the flow restricting element and a substantially constant pressure on a second side of the flow restricting element opposite the first side.

Abstract: An embodiment of the invention is a method for recommending actions to be taken during resuscitation of a patient. Input signals related to the resuscitation are received during the resuscitation. The input signals are processed to generate output signals based on the input signals and predetermined criteria. The output signals are representative of the actions to be taken and are provided for further action.

Abstract: Embodiments of the present invention are directed toward a system and method of determining real time chest compression depth of a CPR patient or manikin from acceleration and a reference signal, such as force. In one embodiment, an acceleration signal is filtered and integrated to determine a raw depth signal. A force signal is adjusted to having a similar amplitude, phase, and shape as the raw depth signal. The force signal is filtered. The adjusted force signal is subtracted from the filtered force signal to obtain a compensation signal. The chest compression depth is obtained by adding the raw depth signal to the compensation signal.

Abstract: A system is disclosed for providing feedback regarding chest compressions in CPR comprises a measuring unit, a processing unit and a display unit, where the measuring unit comprises a depth measuring device, a force measuring device, or both. The processing unit comprises a depth signal device and/or a force signal device and a threshold device. The processing unit is structured to output a signal depending on the values of depth and/or force signals with respect to the thresholds. The display unit comprises at least one indicator and is structured to activate the indicators based on the output from the processing device. The system thus measures and processes chest compressions and provide feedback to the user with respect to the characteristics of the compressions.

Abstract: Method and system for monitoring the ventilation of a patient, especially during chest compressions, comprising the steps of: essentially continuously measuring the impedance in the patients chest using at least two electrodes coupled to the patients chest, said impedance measurements being performed by applying an alternating current or voltage to at least two of said electrodes and measuring the impedance between at least two of said electrodes, measuring chosen parameters affecting said impedance measurements, e.g. chest compressions, and analyzing the impedance measurements for detection and characterizing of impedance variations from ventilations, said analysis including the removal of the effects said chosen parameters.