19 results about "Medical ventilator" patented technology

Disclosed is an NO delivery device for supplying an NO-containing gas, including an NO injection line, a flow rate measurement device and a valve device. The valve device is normally closed. An emergency line connected to the injection line includes an emergency solenoid valve, which is normally open, and a flow rate control device. An operating unit operates these elements. In the event of malfunction of the operating unit, the emergency solenoid valve passes to an open position, whilst the valve device passes to a closed position. The flow rate control device supplies the gas at a pre-fixed emergency flow rate of gas, determined on the basis of the gas flow rate measurements supplied by the flow rate measurement device during the normal functioning of the device prior to the malfunction. Gas supply installation including such an NO delivery device and a medical ventilator.

1. The name of the design product: disposable heat and moisture exchange filter. 2. The use of the design product: for filtering air from the outlet end of a medical breathing machine. 3. The design points of the design product: in shape. 4. The picture or photo that best indicates the design points: perspective view.

Title “Medical Ventilator Adjustment Aid Device” The invention relates to a device (1) for adjusting a medical ventilator used to deliver breathing gas to a patient, comprising a main body (2) with two opposing surfaces (3, 4), a first series of slots (10) with locations (11) comprising an indication (12) relating to the patient's perception of the ventilation applied, and a second series of slots (20) with locations (21) comprising an indication for adjusting the ventilator (22). Indicator elements (13, 23) are movable relative to the slots (11) such that positioning the first indicator element (13) opposite one of the locations (11) of the first series of slots (10) simultaneously positions the second indicator element (23) opposite one of the locations (21) of the second series (20) of slots (20). Abstract figure: Figure 1

Title of the invention: Monitoring of a patient's intercostal muscle activity during assisted ventilation using a patch sensor. The invention relates to a monitoring system (1) for the respiratory muscle activity of a patient (P), in particular intercostal and / or diaphragmatic muscle activity, comprising a patch sensor (10) including mechanomyography measurement means (13) for performing successive measurements of the patient's muscle activity, and a medical ventilator (20) with control means (25) for processing the measurements performed by the mechanomyography measurement means (13). Display means (30) display an MMG curve (31) representing the patient's muscle activity, in particular intercostal and / or diaphragmatic muscle activity, over time (t) obtained from the processed measurements. Abstract figure: Figure 1

The invention relates to an installation (100) for supplying a gas mixture containing NO to a patient, comprising an NO delivery apparatus (1) and a medical ventilator (50), an NO injection device (24), a flow rate measurement device (25) and a gas sampling module (61). The medical ventilator (50) is an anaesthesia ventilator (150) comprising a gas outlet (151) to which the flow rate measurement device (25) is connected. The NO injection device (24) is arranged downstream of the flow rate measurement device (25), and the gas sampling module (61) is arranged downstream of the NO injection device (24), at a distance (D) of at least 30 cm.

1. The name of the design product: breathing mask. 2. The use of the design product: breathing mask for medical breathing machine. 3. The design points of the design product: in shape. 4. The picture or photo that best shows the design points: combination state figure 1.

The invention provides a medical breathing machine and a method and system for continuously measuring and calculating respiratory tract resistance and compliance of the medical breathing machine. The method comprises the steps that a pressure sensor obtains an airway opening pressure signal, and a flow sensor obtains a gas flow signal; the signal processing and calculating unit synchronously collects the two signals at a high sampling rate, and performs real-time integration on the flow signals to calculate the tidal volume; setting a sliding time window covering the current inspiration phase, and collecting data points containing pressure, flow and tidal volume values in the window; applying a least square method to perform linear regression fitting on data points, and solving respiratory tract resistance and respiratory system compliance based on a respiratory mechanics equation; recursively executing the steps of acquisition, calculation, window setting, data point collection and fitting; the man-machine interaction interface displays a calculation result trend chart, and an alarm is triggered when a numerical value exceeds a preset threshold value. According to the method, high-frequency synchronous sampling and recursive fitting of the sliding window and the least square method are adopted, continuous, real-time and high-precision measurement and calculation of successive respiration are achieved, and intermittency and hysteresis of a traditional method are overcome.

A portable medical ventilator that uses pulsed flow from an oxygen concentrator to obtain higher oxygen concentrations, includes a positive pressure source to deliver pressurized air to a patient and a negative pressure source to trigger the oxygen concentrator. A patient circuit attached to a patient interface mask connects the ventilator to the patient. The ventilator includes a controller module configured to generate a signal to the negative pressure device to trigger the concentrator to initiate one or more pulses of oxygen from the oxygen concentrator. The pulses of oxygen are delivered directly to the patient interface through a multi-tube or multi-lumen patient circuit. The oxygen is not mixed with air in the ventilator or patient circuit and bypasses leaks in the patient circuit and / or patient interface.

Title of the Invention: Electrostatic Discharge Protected Medical Ventilator. The invention relates to a medical ventilator (1) comprising an internal metal frame (2) with a first electronic board (3) comprising first grounding means (3.1) electrically connected (30) to said frame (2); a support arm (10) fixed to the frame (2) and carrying a monitor (20) with a display screen (28) comprising a second electronic board (21) comprising second grounding means (21.1). The monitor (20) comprises an internal metal casing (22) electrically connected (32) to the second grounding means (21.1) of the second electronic board (21), and also to the first grounding means (3.1) of the first electronic board (3). Abstract Figure: Figure 2

To provide a facility for supplying a gas mixture containing NO to a patient.SOLUTION: The equipment comprises a NO delivery apparatus, a medical ventilator 50, a NO infusion device 24, a flow measurement device 25 and a gas sampling module 61. The medical ventilator 50 is an anesthesia ventilator 150 comprising a gas outlet 151 to which the flow measuring device 25 is connected. The NO injection device 24 is arranged downstream of the flow measuring device 25, and the gas sampling module 61 is arranged at least 30cm distance D downstream of the NO injection device 24.SELECTED DRAWING: Figure 2

Title of the Invention: Non-Invasive Ventilation Monitoring System. The invention relates to a monitoring system for a person receiving non-invasive artificial ventilation (NIV) using a medical ventilator supplying a breathing mask with a respiratory gas. The medical ventilator provides ventilation variables. A computer server receives and processes these ventilation variables to determine several statistical indicators for each variable and derive a ventilation quality score using a mathematical model that compares these statistical indicators with stored thresholds obtained through machine learning. Finally, at least one significant ventilation variable is identified among these variables, impacting the ventilation quality score more than the other ventilation variables. Abstract Figure: Figure 1

A medical ventilator comprises a respiratory air connection for connecting a patient's respiratory apparatus, allowing the patient to be ventilated with breathable air. In addition, the ventilator comprises an actuator device for providing a respiratory air flow at the respiratory air connection. A control unit is configured to carry out a method as set forth in the claims when the respiratory apparatus is connected to the respiratory air connection.

The invention relates to the technical field of breathing machines, and discloses an efficient filtering and heat dissipation device of a medical breathing machine, the efficient filtering and heat dissipation device comprises a filtering frame, the top of the filtering frame is fixedly connected with the breathing machine, and a filtering part is arranged in the filtering frame; the filtering component comprises a triangular frame, the surface of the triangular frame is fixedly connected with the inner wall of the breathing machine, a mounting frame is fixedly connected to the bottom of the triangular frame, a clamping groove is formed in the inner wall of the mounting frame, and two side plates are arranged in the mounting frame. When oxygen flows in the filter frame, the sieve pore plate can treat the oxygen entering the filter frame, impurities such as cotton fibers in the oxygen are prevented from entering the filter frame, the filter plate can filter the oxygen again after the sieve pore plate filters the oxygen, and the situation that the quality of the oxygen is poor due to the fact that the oxygen contains the impurities is avoided; when the oxygen in the filter frame enters the breathing machine, the filter bag can filter small particles in the oxygen again.

The invention discloses an automatic process control detection method and system for a medical breathing machine, and the method comprises the steps: synchronously collecting the operation parameters of the breathing machine through a multi-sensor network, and carrying out the time alignment and normalization preprocessing, and fusing the operation parameters into comprehensive state data; time sequence feature analysis is carried out based on an improved long-short-term memory network, capture of respiratory cycle features is enhanced by introducing a periodic gate and utilizing the respiratory cycle features, and risk feature vectors are generated by fusing static parameters of a patient; adopting a particle swarm optimization algorithm to dynamically adjust control parameters such as inspiration pressure, respiratory rate and oxygen concentration by taking risk minimization as a target; and a weighted fusion strategy is utilized to comprehensively calculate a time sequence risk, a control deviation and a real-time abnormal index, an adaptive control instruction is executed according to a risk level, and continuous optimization is realized through a closed-loop feedback mechanism. The corresponding system integrates a data acquisition module, a time sequence analysis module, a decision control module and a man-machine interaction module in an embedded platform, and supports real-time data processing.

This application relates to the field of medical device technology, specifically providing a medical ventilator tubing support device. The medical ventilator tubing support device includes: a height adjustment layer for height adjustment via gas inflation; a bottom balloon fixedly connected to the lower end of the height adjustment layer; a support layer fixedly connected to the upper end of the height adjustment layer; an inflation nozzle for inflating the height adjustment layer and a fastening connector for connecting the medical ventilator tubing are provided on the upper part of the support layer; and an inflation / deflation component detachably connected to the inflation nozzle. The inflation / deflation component is used to inflate or deflate the height adjustment layer. This maintains the distance between the medical tubing and the patient's body, avoiding pressure sores caused by the weight of the tubing acting on a single point on the skin surface, thus improving patient comfort and safety.

Title of the Invention: Medical Ventilator Carrying Case. The invention relates to a carrying case (1) for a medical ventilator (50) comprising a case body (2) including a front panel (20) and defining an internal compartment (4) configured and sized to house a medical ventilator (50). The front panel (20) of the case body (2) includes at least one main window (5) comprising a first transparent pane (6) and a protective panel (3) including a second transparent pane (7), which is pivotally attached to the case body (2) so as to face the main window (5) when in a folded position (P1). Optionally, a detachable accessory bag (60) can be attached to a rear panel (21) of the case body (2). Abstract figure: Figure 1

The invention discloses a high-resilience and high-transparency corrugated hose material for a medical breathing machine. The high-resilience and high-transparency corrugated hose material is prepared from the following raw materials in parts by mass: 80 to 100 parts of allyl-elastomer, 0 to 20 parts of polypropylene resin, 0.1 to 0.5 part of nucleating agent, 0.05 to 0.5 part of antioxidant and 0.05 to 0.5 part of lubricating agent. The preparation method of the high-resilience and high-transparency medical breathing machine corrugated hose comprises an extrusion granulation process and an extrusion molding process, and the defects caused by medical breathing machine corrugated hoses prepared from other materials are overcome.