A system may comprise a connection member configured to be connected to an anatomic orifice device. The anatomic orifice device may be configured for insertion into a patient. The system may also comprise a mounting bracket coupled to a robot-assisted medical system. The mounting bracket may also include a movable mounting component coupled to a fixed mounting component. The movable mounting component may have a first configuration for mounting to the connection member in a first engagement and a second configuration for mounting to the connection member in a second engagement. The connection member may be spaced apart from the fixed mounting component in the first engagement and may be in direct contact with the fixed mounting component in the second engagement.

The invention is a wearable breast pump system including a housing shaped at least in part to fit inside a bra and a piezo air-pump. The piezo air-pump is fitted in the housing and forms part of a closed loop system that drives a separate, deformable diaphragm to generate negative air pressure. The diaphragm is removably mounted on a breast shield.

A connector having a connector body with an inlet and an outlet defining a gas flow passage therebetween. The connector body has an overlap portion that is configured to overlap with a portion of a second connector when connected. An access passage extends through the overlap portion to the gas flow passage.

A syringe pump is disclosed that includes a pressure sensor assembly, a plunger, first and second pressure sensors, and a processor. The pressure sensor assembly senses a force and includes the plunger having a sensing surface configured to receive the force, the first pressure sensor operatively coupled to the plunger and configured to estimate the force applied to the sensing surface, and the second pressure sensor operatively coupled to the plunger and configured to estimate the force applied to the sensing surface. The processor is coupled to the first and second pressure sensors to estimate a magnitude of the force.

An intravenous fluid bag supporting assembly includes a mobile base having a plurality of wheels, a telescoping pole having a lower end connected with the base and an inverted polyhedron structure connected with an upper end of the pole and configured to receive at least one intravenous fluid bag. An adjustable light assembly is arranged on the pole in spaced relation between the inverted polyhedron structure and the base. A support platform is arranged on the pole in spaced relation between the light assembly and the base, the support platform supporting a plurality of housings configured to receive a plurality of displays and pumps or other medical instruments, respectively. A hang grip and basket are also arranged on the pole.

An embodiment of a single use nitrous oxide solution delivery system can be used in a prehospital setting such as in ambulances. A container can be filled with a predetermined relative concentration of nitrous oxide and oxygen gases. The container is sized to be stored in a repository within an automated dispensing cabinet (ADC) for medications. The container is connected to a regulator which includes a main control dial configured to allow a health care provider to adjust the volumetric flow rate of the nitrous oxide and oxygen gas mixture used by a patient. A scavenger can be optionally connected to a patient's mask and configured to remove exhaled gas. Another embodiment of a single use nitrous oxide solution delivery system can be used within hospitals and other medical buildings.

A system for mounting a ventilator on a wheelchair is provided. The system comprises a first member and a second member. The first member is configured to be releasably fastened to the wheelchair. The first member comprises a first coupler structure. The second member is coupled with the ventilator. The second member comprises a second coupler structure that is configured to be releasably coupled with the first coupler structure to mount the ventilator on the wheelchair.

The present specification is directed to systems, devices, and methods of portable enteral pump systems for feeding and/or flushing an ambulatory patient. Embodiments provide an enteral pumping device that may be loaded by a patient from a front and a top side of the pumping device and is therefore more convenient to use. Further, embodiments incorporate a single rotor pump for dual-use purposes of feeding nutrients and flushing fluids to the patient. A pinch valve is placed between the parallel sides of the two tubes to cut off fluid flow when required. At least one sensor is also placed between the rotor pump and an outlet. The sensors are used to detect occlusions and the type of disposables used, among other purposes.

A high flow therapy system for delivering heated and humidified respiratory gas to an airway of a patient, the system including a respiratory gas flow pathway for delivering the respiratory gas to the airway of the patient by way of a non-sealing respiratory interface; wherein flow rate of the pressurized respiratory gas is controlled by a microprocessor.

The IV pole clamp is a mechanical structure. The IV pole clamp is configured for use with an IV pole. The IV pole is a prism-shaped post structure used to elevate an IV bag. The IV bag is elevated such that a pharmacologically active media can be gravity fed into the patient. The IV pole clamp attaches the IV pole to a mounting surface such as a counter. The IV pole clamp is a rotating structure such that the cant between the center axis of the IV pole and the force of gravity is adjustable. The IV pole clamp comprises a pedestal structure, a stanchion, and a clamp structure. The pedestal structure and the clamp structure attach to the stanchion. The pedestal structure attaches the stanchion to the mounting surface. The clamp structure attaches the IV pole to the stanchion.