The respirator comprises an air bag that is pressurized to provide air to a user, wherein the air bag is a tubular membrane (2) housed within a pressure chamber (1). Furthermore, the pressure chamber (1) comprises fluid inlets and outlets, the fluid pressurizing the tubular membrane (2) to provide air to a user, and protrusions (9) that pressurize the tubular membrane (2). It provides a respirator with reduced dimensions, number of parts, weight, and cost, as well as reusable after autoclave disinfection of the auto-inflatable bag as a standard element.

A cricothyrotomy device comprises an incision member and an insertion member that are joined together but separable. The incision member further comprises a scalpel, a scalpel cap, a spring assembly, and an incision holder. The insertion member comprises a cannula, a cannula cap, and an insertion handle.

A thermogenic emergency airway management device configured to prevent or treat hypothermia in a patient. The device may be configured to receive inlet air and modify one or more properties of the inlet air to output air at a temperature and/or humidity associated with the prevention and/or treatment of hypothermia. In an embodiment, the device may receive input via a user interface to determine a temperature and/or humidity associated with the air to be output to the patient. In an embodiment, the input may additionally include an amount of air to be output to the patient. In such an embodiment, the device may be configured to cause the amount of air to be output to the patient to prevent and/or treat hypothermia.

Devices and methods for delivering air to a patient are provided. A device includes a first portion having a first airflow inlet and a sensor configured to sense airflow, the first portion defining a first airflow path, and a second portion comprising a second airflow inlet, an impeller, and an outlet for communicating airflow to a patient, the second portion defining a second airflow path. The device includes means for coupling the first portion and the second portion, such that the sensor sensing airflow in the first portion causes corresponding movement of the impeller, wherein the impeller is configured to impel air through the second airflow inlet and out of the outlet to the patient, upon movement of the impeller.

A ventilator apparatus includes a linear electro-mechanical actuator that interfaces with a self-inflating bag including an inlet configured to receive air and an outlet configured to expend the air. A three-way valve is coupled to the outlet via a first flowmeter, an ambient environment via a second flowmeter, and a patient via an endotracheal tube. The first and/or second flowmeters are coupled to pressure transducer(s). A control unit is coupled to the linear electro-mechanical actuator and the first and second flowmeters and includes a control panel, memory including programmed instructions stored thereon, and processor(s) configured to execute the stored programmed instructions to set an inhalation time and an exhalation time. A current inspiratory pressure and a current tidal volume are obtained from the pressure transducer(s) and/or the first flowmeter. A stroke of the linear electro-mechanical actuator is then controlled to facilitate inspiratory and expiratory phases of a respiratory cycle.

Devices, systems, and/or methods for immobilizing a patient's head and simultaneously providing emergency respiration for the patient includes, in some embodiments, a head immobilizer, a bag valve mask (BVM), an endotracheal tube (ET) bracket, and/or an oxygen face mask. In some embodiments where head immobilization is not needed, a cardiopulmonary resuscitation (CPR) board may be used in lieu of the head immobilizer. Each such embodiment is configured to require reduced manual intervention by a caregiver without reducing the effectiveness of each medical device and/or system. An adjustable BVM holder integrated into the head immobilizer secures the BVM on the patient. In embodiments with a BVM, only a single hand is necessary to provide emergency respiration, freeing the caregiver's other hand for other caregiving tasks. Such a head immobilizer may secure an ET bracket and/or face mask to a patient, allowing for hands-free operation during patient treatment, movement, and transportation.

A system for actuating a volume and/or pressure-controlled manual ventilator including a manual ventilator, a storage case, and an actuating mechanism. The manual ventilator includes a compressible body, an output one-way valve at an output end, and an input one-way valve at an input end. The storage case includes an inner housing surface configured to accommodate the manual ventilator. The actuating mechanism includes a power unit mechanically coupled to a linear rod mechanism and one or more applicator pads mechanically coupled to the linear rod mechanism and proximal to the compressible body. The linear rod mechanism is configured to convert a rotating motion of the power unit into an axial movement of the linear rod mechanism. The actuating mechanism is configured to apply pressure to the compressible body of the manual ventilator via the one or more applicator pads such that a volume of the compressible body is deflated.

A spatially sensitive augmented reality system for providing resuscitative feedback in a mixed reality environment to an acute care provider during occurrence of a cardiac event in a patient includes a wearable augmented reality device having at least one three-dimensional sensor, a visual display for viewing by the acute care provider, and at least one processor. The at least one processor is configured to receive and process three-dimensional information of a scene of the cardiac event; produce a three-dimensional representation of a field of view of the acute care provider based on the processed three-dimensional information; identify one or more physical objects associated with the cardiac event in the three-dimensional representation; generate at least one virtual three-dimensional object within the three-dimensional representation; and generate an image of the virtual three-dimensional object within the three-dimensional representation on the visual display.

The resuscitator (1) includes a self-inflating squeeze bag (2) having an inlet opening accommodating an inlet valve arrangement (6) adapted to allow inflow of air into the squeeze bag and to prevent outflow of air from the squeeze bag through the inlet opening and an outlet opening accommodating a patient valve arrangement (8) adapted to allow outflow of air from the squeeze bag into the patient valve housing and adapted to prevent inflow of air into the squeeze bag through the outlet opening. The patient valve housing includes a patient connection port (9) for ventilation of a patient and a patient expiration outlet port (10) for outlet of exhaled gas from the patient valve housing to the surroundings. The resuscitator includes a filter arrangement (11) located upstream the outlet opening of the squeeze bag in order to filter air before reaching the patient valve arrangement from the squeeze bag.

A resuscitation management system may include a first accelerometer and a second accelerometer mounted on opposite sides of a resuscitation bag of a manual resuscitation device. The resuscitation management system may include a processing unit that may be configured to receive the measured acceleration vectors from the first accelerometer and the second accelerometer and then subtract the measured acceleration vectors from each other to obtain a resultant acceleration vector representing an acceleration magnitude and a spatial acceleration direction of compression/decompression of the resuscitation bag. The processing unit may then be configured to calculate the breathing parameters based at least in part on the acceleration magnitude and the spatial acceleration direction of compression/decompression of the resuscitation bag.