A respiratory apparatus includes components to protect operations of the apparatus. For example, in some versions, the apparatus may include a power supply, a motor powered by the power supply, and a transient absorption diode circuit between the motor and the power supply. The transient absorption diode circuit may be configured to absorb energy generated by the motor from rotational kinetic energy. Such absorption may serve to protect the components of the apparatus. In some examples, the apparatus may include a fault mitigation integrated circuit (IC). The IC circuit may be included in the respiratory apparatus to detect one or more faults based on physical and system parameters of the apparatus. The fault mitigation integrated circuit may generate a signal to stop the motor based on the detected fault, and may digitally communicate with a processor information about the detected fault.

Many pneumonia diseases and lung malfunctions can be quickly repaired using an improved lung lavage technique where the patient is rotated in specific 3D orientations to increase the efficiency of the lavage procedure. The process involves filling and emptying the lungs with fluid and rotating the patient makes this process natural and effective. Supplementary, a hydro-pneumatic system facilitates the operations with the patient sustained in various positions such as being immersed in water and having various control mechanisms such as variable pressures, temperatures, and performing assisted breathing. Additionally, immersed devices are implanted that shake-up of alveolar wall and other devices perform ultrasound imaging with a 0.1 mm resolution, a resolution in competition with stereoscopic X-ray. The bio-medical data acquisition system allows physicians to completely assess patient status in real time and guide the treatment to ensure optimum patient care, under quality assurance procedures.

An atomizer for an inhaler includes a housing, a gasket, a liquid absorbing sheet, a wick, and an atomizing element. The housing includes a first housing and a second housing, the first housing and the second housing form a liquid reservoir therebetween for storing liquid. The gasket is sleeved on the first housing, the gasket defines a liquid conducting hole in communication with the liquid reservoir. The liquid absorbing sheet is sleeved on the first housing in contact with the gasket, the liquid absorbing sheet is configured to absorb the liquid in the liquid reservoir via the liquid conducting hole. The wick is in contact with the liquid absorbing sheet and configured to draw the liquid from the liquid absorbing sheet. The atomizing element is fixed to the wick and configured to atomize the liquid in the wick.

A driving structure of a drug infusion device, includes at least one driving unit and at least one driving wheel; a linear actuator connected with the driving unit; a switch unit electrically connected with the linear actuator; a power supply, the power supply, the switch unit and the linear actuator electrically connected to form a power supply circuit; and a program unit, including a timer electrically connected to the switch unit, when the timer works, the switch unit is closed to turn on the power supply circuit, and the linear actuator is powered; when the timer stops working, the switch unit is opened to disconnect the power supply circuit, and the linear actuator stops being powered, which makes the infusion device have multiple different infusion modes and improves user experience.

A device configured to delivery medication is disclosed. The device contains a plurality of sensors, including a magnetic proximity sensor and a temperature sensor. The proximity magnetic sensor can detect whether all the medication has been injected into a patient. The temperature sensor can ascertain whether the temperature of the medication has reached a predetermined or proper level for injection. The device also contains a locking device that can lock the device when the temperature of the medication is below this proper temperature and can automatically unlock the device when the temperature reaches or exceeds this proper temperature.

An intravenous (IV) pole assembly includes a non-conductive support element, distribution rails respectively disposed along a length of the non-conductive support element and a clamping element. The distribution rails are respectively configured for power distribution along the length of the non-conductive support element. The clamping element includes a hinged clamp, which is attachable to the non-conductive support element at an attachment point defined along the length of the non-conductive support element, and a connector by which power is selectively transmittable from the distribution rails to a powered device supportable on the hinged clamp.

A respiratory assistance apparatus includes a conduit connecting a flow generator and an outlet. The conduit includes a venture formation. The apparatus further includes an oxygen inlet in fluid communication or selective fluid communication with an oxygen outlet. The oxygen outlet is directed into the conduit and toward a mouth of the venture formation. The flow generator provides a flow path for air to enter the conduit when the flow generator is not operating.

An implantable system for delivering fluids, such as drugs, to one or more anatomical structures in a patient's (i.e., human or animal) body. A number of medical conditions require continual and/or periodic administration of fluids (e.g., drugs) to target regions (e.g., anatomic organs) of the body. Accessibility to those target regions might be limited technically for ex. and not limited to: frequent endoscopic, radiologically guided or surgical approaches. The system delivers the fluid needed in a continual or intermittent fashion to the target region. It controls the amount of fluid delivered to the target region and measures the intended physiologic effect of the fluid delivered.

A pump is provided for conveying body fluids, in particular blood, wherein the pump has a pump housing and a rotor mounted in the pump housing. The rotor comprises at least one sensor for detecting flow and/or movement parameters. Also provided is a method for operating the pump.

The present disclosure provides a coupling system for coupling a medical accessory to an accessory support is provided. The present disclosure also provides a system for powering a medical accessory with an accessory support.