The present disclosure provides systems and methods for controlling gas-enrichment, e.g., oxygen-enrichment, therapy. One or more sensors and/or one or more imaging systems may be used to measure or determine one or more physiological parameters of the patient. Feedback regarding one or more physiological parameters or microvascular resistance may be provided for titrating or controlling the gas-enrichment therapy.

The present invention provides a system for enriching a flowing liquid with a dissolved gas inside a conduit. The system comprises two or more capillaries, each capillary delivering a stream of a gas-enriched liquid to the flowing liquid. The first ends of the capillaries are positioned to form an intersecting angle with respect to the effluent streams such that these streams of gas-enriched liquid collide with each other upon exit from the first ends of the capillaries, effecting localized convective mixing within the larger liquid conduit before these gas-enriched streams are able to come into close contact with the boundary surfaces of the conduit, whereby the gas-enriched liquid mixes with the flowing liquid to form a gas-enriched flowing liquid. In the preferred embodiment, no observable bubbles are formed in the gas-enriched flowing liquid. Methods of making and using such system are also provided.

A treatment device of a cerebrovascular disorder capable of reliably controlling an oxygen concentration of a brain tissue so as not to be excessively high while efficiently supplying oxygen to the brain is provided. The treatment device of a cerebrovascular disorder includes: a main body including an injection unit that is to be inserted into a living body and injects a fluid; oxygen concentration measurement units disposed at two or more locations in the living body; and a flow rate adjustment unit that adjusts a flow rate of the fluid to be injected by the injection unit, in which the flow rate adjustment unit adjusts the flow rate of the fluid to be injected by the injection unit according to oxygen concentrations at two or more locations in the living body measured by the oxygen concentration measurement units.

The present invention provides a system for enriching a flowing liquid with a dissolved gas inside a conduit. The system comprises two or more capillaries, each capillary delivering a stream of a gas-enriched liquid to the flowing liquid. The first ends of the capillaries are positioned to form an intersecting angle with respect to the effluent streams such that these streams of gas-enriched liquid collide with each other upon exit from the first ends of the capillaries, effecting localized convective mixing within the larger liquid conduit before these gas-enriched streams are able to come into close contact with the boundary surfaces of the conduit, whereby the gas-enriched liquid mixes with the flowing liquid to form a gas-enriched flowing liquid. In the preferred embodiment, no observable bubbles are formed in the gas-enriched flowing liquid. Methods of making and using such system are also provided.

Embodiments of the invention provide apparatus, systems and method for introducing fluids into a body cavity for treatment. One embodiment provides an apparatus for treating a patient including an access device for insertion into the peritoneal cavity of the patient including an infusion member in a lumen of the access device. An oxygenated solution may be infused and removed into and out of the cavity via the infusion member.

Embodiments of the invention provide apparatus, systems and method for introducing fluids into a body cavity for treatment. One embodiment provides an apparatus for treating a patient including an access device for insertion into the peritoneal cavity of the patient including an infusion member in a lumen of the access device. An oxygenated solution may be infused and removed into and out of the cavity via the infusion member.

A system delivers gas-enriched blood or liquid within the vasculature of a patient while partially obstructing a flow of blood within the vasculature of the patient. The system may include a first catheter configured for inserting into a vasculature of a patient to deliver gas-enriched blood or liquid to a region of the vasculature of the patient. The system may include a second catheter configured for inserting into the vasculature of the patient. The second catheter includes lumens and an occlusion structure configured to partially obstruct a flow of blood within the vasculature of the patient while allowing the first catheter to deliver the gas-enriched blood or liquid to the region of the vasculature, and to divert the blood flow to the region where the gas-enriched blood or liquid is delivered.

The present invention provides a system for enriching a flowing liquid with a dissolved gas inside a conduit. The system comprises two or more capillaries, each capillary delivering a stream of a gas-enriched liquid to the flowing liquid. The first ends of the capillaries are positioned to form an intersecting angle with respect to the effluent streams such that these streams of gas-enriched liquid collide with each other upon exit from the first ends of the capillaries, effecting localized convective mixing within the larger liquid conduit before these gas-enriched streams are able to come into close contact with the boundary surfaces of the conduit, whereby the gas-enriched liquid mixes with the flowing liquid to form a gas-enriched flowing liquid. In the preferred embodiment, no observable bubbles are formed in the gas-enriched flowing liquid. Methods of making and using such system are also provided.

The invention relates to an electrostatic aerosol disinfection and sterilization method. The method includes the following steps: atomizing liquid water without any medicine to obtain atomized particles of liquid water; and carrying the atomized particles on Static electricity of a first polarity; transporting atomized particles with static electricity to a predetermined surface of an object to be disinfected, the objects to be disinfected have static electricity of a first polarity; when the atomized particles reach the object to be disinfected When the predetermined surface is changed, the electrostatic polarity of the object to be disinfected is changed, so that the object to be disinfected has static electricity of a second polarity, wherein the second polarity is opposite to the polarity of the first polarity. The present invention is capable of treating and slowing down various respiratory diseases caused by viruses, including new pneumonia that threatens people all over the world, greatly improves the effect of disinfection and sterilization, is not only safe and reliable, but also has simple operation and low cost.

Some embodiments include methods of treating, inhibiting, or ameliorating ischemic stroke or a symptom thereof in a subject. Some embodiments include oxygenated fluid for use in treating, inhibiting, or ameliorating ischemic stroke. The oxygenated fluid may comprise charge-stabilized oxygen-containing nanostructures.