The invention relates to a portable respirator with potential equilibrium and carbon oxygen exchange which includes a cover, a filtering device and an oxygen supply device. The cover is provided with a sealing ring, an elastomeric headband and a potential balancer. A plurality of fan-shaped filters are stacked in the cavity of the filtering device in a circumferential direction. The oxygen supply device includes a first tank and a second tank. The first tank is provided with a lithium battery, a miniature air pump and a reaction tank. A plurality of radiating copper pipes are circumferentially arranged on the outer wall surface of the first tank. A miniature liquid oxygen tank, an electric pressure reducing valve, a tension spring and an end cap are arranged in the second tank. One end of the miniature liquid oxygen tank is in contact with the end cap by the tension spring. The potential equilibrium and carbon oxygen exchange of the invention has advantages of having reasonable and simple structure, easy to use, small volume, light weight, and portability, etc., which effectively solves the problem of traditional respirators being inconvenient to be carried and used.

A self-rescuer device comprises an intake pump that creates a gas stream. The gas stream enters a first sieve that separates carbon dioxide, carbon monoxide, and oxygen from the gas stream to create a mixture. The remaining gas stream flows to a second sieve that separates nitrogen from the remaining gas stream and vents the residual gas to outside of the self-rescuer device through a residual output. The separated mixture is directed to a gas processor separates the oxygen from the mixture. A nitrogen storage canister coupled to the separated output of the second sieve stores the separated nitrogen, and an oxygen storage canister coupled to the separated output of the first sieve stores and concentrates the separated oxygen until a purity threshold is met. Habitable nitrogen and oxygen are metered from their storage canisters and supplied to a user through a breathing mask within an exterior mask shell.

A self-rescuer device comprises an intake pump that creates a gas stream. The gas stream enters a first sieve that separates carbon dioxide, carbon monoxide, and oxygen from the gas stream to create a mixture. The remaining gas stream flows to a second sieve that separates nitrogen from the remaining gas stream and vents the residual gas to outside of the self-rescuer device through a residual output. The separated mixture is directed to a gas processor separates the oxygen from the mixture. A nitrogen storage canister coupled to the separated output of the second sieve stores the separated nitrogen, and an oxygen storage canister coupled to the separated output of the first sieve stores and concentrates the separated oxygen until a purity threshold is met. Habitable nitrogen and oxygen are metered from their storage canisters and supplied to a user through a breathing mask within an exterior mask shell.

The present invention is directed to a device for generating oxygen, comprising at least one oxygen source, at least one ionic liquid, and at least one metal salt, wherein the oxygen source comprises a peroxide compound, the ionic liquid is in the liquid state at least in a temperature range from 10 C. to +50 C., and the metal salt has an organic and/or an inorganic anion, and comprises one single metal or two or more different metals. The present invention also relates to charge components for filling or refilling the devices, and to the use of ionic liquids as dispersants or solvents for the reaction participants.

The present invention is directed to a device for generating oxygen, comprising at least one oxygen source, at least one ionic liquid, and at least one metal salt, wherein the oxygen source comprises a peroxide compound, the ionic liquid is in the liquid state at least in a temperature range from 10 C. to +50 C., and the metal salt has an organic and/or an inorganic anion, and comprises one single metal or two or more different metals. The present invention also relates to charge components for filling or refilling the devices, and to the use of ionic liquids as dispersants or solvents for the reaction participants.

An oxygen generator includes a bag body and supporting components. The bag body is configured to contain a reactive liquid, a reactant and a catalyst, and the bag body includes a bag piece, a circumferential sealing part and separation parts. The circumferential sealing part is bound with a part of the periphery of the bag piece, so as to define a range of an inner space, and a range of the rest part of the periphery of the bag piece defines an opening. Both ends of each separation part are connected to the circumferential sealing part so as to separate the inner space into a plurality of separate spaces, and the plurality of separate spaces respectively contain the reactant and the catalyst. The supporting components are contained in one of the plurality of separate spaces, and the positions, corresponding to the supporting components, of the bag body are incompressible.

An oxygen generator includes a bag body and supporting components. The bag body is configured to contain a reactive liquid, a reactant and a catalyst, and the bag body includes a bag piece, a circumferential sealing part and separation parts. The circumferential sealing part is bound with a part of the periphery of the bag piece, so as to define a range of an inner space, and a range of the rest part of the periphery of the bag piece defines an opening. Both ends of each separation part are connected to the circumferential sealing part so as to separate the inner space into a plurality of separate spaces, and the plurality of separate spaces respectively contain the reactant and the catalyst. The supporting components are contained in one of the plurality of separate spaces, and the positions, corresponding to the supporting components, of the bag body are incompressible.

Provided relates to a capsule for the generation of oxygen, typically a disposable capsule. The generation of oxygen is by a chemical reaction of a reactant with water. The capsule is configured to be coupled with an appliance for the supply of oxygen and its utilization within the appliance. The chemical reaction occurs within the capsule when coupled with the appliance upon introduction of water thereinto through an a priori sealed port.

Provided relates to a capsule for the generation of oxygen, typically a disposable capsule. The generation of oxygen is by a chemical reaction of a reactant with water. The capsule is configured to be coupled with an appliance for the supply of oxygen and its utilization within the appliance. The chemical reaction occurs within the capsule when coupled with the appliance upon introduction of water thereinto through an a priori sealed port.

A portable oxygen-generating breathing apparatus comprising a user interface configured to receive an exhalation air stream from and supply a breathable inhalation air stream to a user, a reaction chamber configured to house a reaction composition that reacts with the exhalation air stream in order to convert the exhalation air stream into the breathable inhalation air stream, an inflatable member configured to receive the breathable inhalation air stream from the reaction chamber, and an interface junction disposed between the user interface and the reaction chamber in a flow direction of the exhalation air stream and between the inflatable member and the user interface in a flow direction of the breathable inhalation air stream, the interface junction having an exhale valve to allow the flow of the exhalation air stream and an inhale valve to allow the flow of the breathable inhalation air stream one-directionally.