摘要:
A device is provided for increasing humidity for respirating patients, especially for a respiration humidifier or an anesthesia reflector. The device includes a gas channel for passing through breathing air, a control and/or regulating device, a temperature sensor and a dew sensor for measuring the humidity present in the breathing air by electromagnetic radiation with a generating device and with a detection device for electromagnetic radiation. The humidity of the breathing air is determined at a low cost and in a reliable manner and condensation is avoided in the respiration system without any additional effort for sterilization. Humidity in the breathing air is determined by the a dew sensor by the change in the reflection of the electromagnetic radiation as a function of dew formation at a condensation-fogged and condensation-free boundary surface between breathing air and a medium having an optical density higher than that of breathing air.
摘要:
A device is provided for measuring the velocity of flow of a fluid in a respiration system and includes a first thermal sensor element (5) provided with a controllable heating element (50) and a second thermal sensor element (6). The thermal sensor elements (5, 6) are arranged at spaced locations from one another at a path of flow, so that a thermal signal generated by the first sensor element (5) with the heating element (50) is transmitted to the second sensor element (6), and the second sensor element (6) is designed to detect the thermal signal from the fluid flow. The second sensor element (6) is connected to the first sensor element (5) via feedback (12) which triggers another thermal signal. A controlling and analyzing device (13, 15) is connected to the sensor elements (5, 6) to start the generation of a first thermal signal and to read and analyze the signal frequency as an indicator of the velocity of flow.
摘要:
A medical electrode is provided for detecting and transmitting electrical pulses from the body surface of a patient to a device for processing the electrical pulses. The medical electrode includes a contact element (1) with a conductive material (4) for passing on the electrical pulses to the device processing the electrical pulses and with a conductive area (3) for establishing contact with the body surface of the patient. A first adhesion area (6) is provided adjoining the conductive area (3) for positioning the contact element (1) on the body surface of the patient. An attaching element (2) is provided with a second adhesion area (7) formed on the underside of the attaching element (2) for attaching the contact element (1) on the body surface of the patient. Said attaching element is arranged concentrically in relation to said contact element.
摘要:
A medical workstation and workstation system for patients includes a bed for positioning the patient in the lying position, a plurality of mobile work units, which are connected to the bed, a control unit, which is arranged at the bed and which can be connected via a first supply cable to a stationary media port, on the one hand, and via a second supply cable to a mobile media port, on the other hand, for supplying a work unit. The control unit is designed as a distribution unit, to which a plurality of mobile work units (4, 4′) are connected via connection cables.
摘要:
A contactless temperature-measuring device especially for a respiration humidifier with a flow channel for breathing gas, which is improved in respect to handling and reliability of measurement. The device includes: a hollow body (1), which is closed towards the flow channel (2, 6), extends into the flow channel (2, 6) for assuming the temperature in the flow channel (2, 6); and an infrared detector (3, 7) is directed toward the inner surface of the hollow body (1) extending into the flow channel (2, 6) for the contactless detection of the temperature of the hollow body (1).
摘要:
Operating a respirator with an inspiration pressure-vs.-time curve (1), which has an airway target pressure (paw—target) and a PEEP (3), in which the inspiration pressure-vs.-time curve (1) reaches the airway target pressure (paw—target) on a ramp-like curve (17) starting from a starting airway pressure (paw—Start), which is greater than the PEEP (3).
摘要:
A process for operating a respirator and/or an anesthesia device with measurement of a set percent Peak Expiratory Flow (% PEF) (15) or percent Peak Inspiratory Flow (% PIF) and regulation ofthe measured % PEF (15) or % PIF to the set % PEF (15) or % PIF. Furthermore, a suitable respirator and/or anesthesia device are provided.
摘要:
For the first time ever, a device (1) for shortening the wake-up phase of an anesthetized patient (Pa) is provided. Furthermore, a process is provided for operating a device (1) as well as a process is provided for respirating a patient (Pa) with gaseous anesthetic (17).
摘要:
A modular respiration system is provided for the mechanical respiration of a patient. The respirator system has a modular respiration module (1) for connection to the patient (20), wherein the respiration module (1) contains a respiration system (30) with a respiration drive (3), an electric energy unit (5) and a memory with a control unit (ES II). One or more stationary parts (2) are provided for detachably accommodating the complementary modular respiration module (1). At least one detachable connection interface (8) is provided for data, electric energy and breathing gas exchange between the respiration module (1) and the stationary part or parts (2) accommodating the respiration module (1).
摘要:
A method for automatically determining the resistance of the respiratory system of a spontaneously breathing intubated patient. The method includes measuring flow (V′) and airway pressure (Paw) as a function of time; determining the airway pressure at the end of the occlusion period as end of occlusion airway pressure Paw(tc)=Poccl; analyzing a time dependence of the flow starting at the end of the occlusion period to determine a transition time td at which the slope of the flow changes from a first high value to a second lower value, and/or analyzing a time dependence of the airway pressure starting at the end of the occlusion period to determine a transition time td at which the slope at the airway pressure changes from a first high value to a second lower value, or by detecting an increase of the airway pressure over a predetermined threshold value to determine the transition time td; determining the flow at the transition time as transition time flow V′(td)=V′peak and determining the airway pressure at the transition time as transition time pressure Paw(td); and calculating the resistance on the basis of the ratio of an estimated driving pressure at the transition time Pdrv(td) and the transition time flow V′peak, wherein the value of the transition time driving pressure Pdrv(td) is calculated as sum of the transition time airway pressure Paw(td) and the muscular effort Pmus(td) at the transition time, which muscular effort Pmus(td) is extrapolated based on a predetermined time dependence of Pmus(t) during the occlusion period and based on value of the end of occlusion airway pressure Poccl.