Wearable oxygen generator and docking station enabling higher oxygen flow capacity
A wearable oxygen concentrator can be used in both an ambulatory mode and a stationary mode. The wearable oxygen concentrator is physically connected to a docking station in the stationary mode such that it can draw power from the docking station and remain energy efficient in both modes. The disclosed oxygen generation system incorporates effective gas flow by means compressor configurations for use in lower flow ambulatory modes and higher flow stationary modes.
1. An oxygen concentration system, the system comprising:
a patient portable unit having an oxygen concentrator configured to generate a constant level of gaseous oxygen flow and deliver the gaseous oxygen to a patient, the patient portable unit being portable by the patient and weighing less than nine pounds, wherein the patient portable unit is configured to deliver gaseous oxygen solely generated therein to a patient up to a first maximum flow rate, wherein the first maximum flow rate is greater than 1.5 lpm, when in a standalone mode and not attached to a docking station, the portable unit including a rechargeable battery;
a docking station without an oxygen concentrator that is configured to be at least electrically and fluidly connected to the patient portable unit, wherein the patient portable unit is configured to deliver continuous gaseous oxygen to a patient up to a second maximum flow rate greater than the first when in a stationary mode and attached to the docking station, wherein the second maximum flow rate is at least two times greater than the first maximum flow rate and the second maximum flow rate is generated without the use of an additional oxygen concentrator,
and wherein the patient portable unit draws power from the docking station to operate its oxygen concentrator when the patient portable unit is attached to the docking station, which drawn power is greater than the power drawn from the rechargeable battery.
2. The system of claim 1 , wherein the oxygen concentrator is fluidly connected to an air feed and an exhaust.
3. The system of claim 1 , wherein a compressor portion of the oxygen concentrator is physically connected to a compressor pump of the docking station, and a vacuum portion of the oxygen concentrator is connected to a vacuum pump of the docking station when in the stationary mode.
4. The system of claim 3 , wherein the compressor pump and the vacuum pump of the docking station are integrated on a single, rotatable shaft.
5. The system of claim 1 , wherein a compressor portion of the oxygen concentrator is physically connected to a compressor pump of the docking station, and a vacuum portion of the oxygen concentrator is also connected to the compressor pump of the docking station when in the stationary mode.
6. The system of claim 5 , wherein the compressor pump and a vacuum pump of the docking station are integrated on a single, rotatable shaft.
7. The system of claim 5 , wherein the vacuum portion of the oxygen concentrator exhausts to ambient air via an outlet conduit connected to the compressor pump.
8. The system of claim 7 , wherein the compressor side of the oxygen concentrator draws ambient air via an input conduit.