Abstract: An antibiological sorbent can include sorbent material (e.g., porous carbon, activated carbon, inorganic carbon, organic carbon, etc.), antibiological material, optionally a functionalizing material, and/or any other suitable material. The antibiological material (and/or the functionalizing material) can coat, intercalate within (e.g., within a porous network of), form structures on, be disposed on, bind to, and/or otherwise be interfaced to the sorbent material. A method for manufacturing the antibiological sorbent can include: mixing sorbent material with a precursor; optionally, functionalizing (e.g., activating) the sorbent material; forming antibiological material from the precursor; optionally, post-processing (e.g., washing) the resulting material; and/or any suitable steps.

Abstract: An improvement to UV sterilization and disinfection devices and methods is disclosed. An apparatus for sterilization and disinfection includes: a compact, highly effective air sterilization and disinfection apparatus, which delivers clean, pure air directly into a blower/warmer device for clean and effective management of patient body temperature.

Abstract: In some embodiments, a firefighting solution can include: water; a firefighting foam stabilizer the can include an ionic liquid surfactant and a nanoparticle encapsulating a second ionic liquid surfactant. In some embodiments, a firefighting solution can include water, an ionic liquid surfactant, and a firefighting foam stabilizer comprising a metallosurfactant.

Abstract: A system comprising a housing; a filter retained within the housing; an activation mechanism configured to, during operation, activate the filter; and a flow controller configured to urge fluid through the filter. The activation mechanism functions to emit at least a threshold amount, or less, of energy or energy density, a predetermined energy or energy density, and/or any suitable amount of energy and/or energy density to activate the filter and remove contaminants.

Abstract: A firefighting system can include an aqueous solution, including an ionic liquid surfactant, and an application mechanism configured to disperse the solution toward a fire.

Abstract: A robotic surface cleaning device is disclosed. The robotic surface cleaning device may be configured to traverse over a floor surface in a room area to disinfect various surface as well as disinfect the air in the room. The robotic surface cleaning device may include a maneuvering base. The robotic surface cleaning device may also include a support tower coupled to the maneuvering base and at least one deployable structure attached to the support tower, wherein the at least one deployable structure is capable of extending and retracting to pass over surfaces in the room area. The at least one deployable structure may include one or more ultraviolet (UV) light source configured to disinfect the surfaces in the room area. The support tower may include at least one air inflow vent configured to draw in room air, at least one air sanitizing unit configured with at least one array of UV light emitting diodes (LEDs), and at least one discharge vent configured to emit sanitized air.

Abstract: A sanitizing unit configured for use in an air distribution system of a passenger aircraft is disclosed. The sanitizing unit may include an input structure connected to a cabin air supply plenum, a UV reflective insert that defines an irradiation chamber, at least one ultraviolet (UV) light emitting diode (LED) positioned to provide UV radiation to an airflow within the irradiation chamber, a UV attenuator; and an output structure connected to at least one overhead passenger vent, wherein the at least one overhead passenger vent is configured to output a treated airflow.

Abstract: An airflow sterilizing unit configured to airflow in a heating, ventilation, and air conditioning (HVAC) system is disclosed. The airflow sterilizing unit includes a portion of a duct at least partially lined with an ultraviolet (UV) reflective material, a plurality of hollow structures positioned within the portion of the duct, each comprising an external UV reflective surface, and at least one array of UV light emitting diodes (LEDs) mounted on a surface of at least one of the plurality of hollow structures. The sterilizing unit is configured to replace a section of an existing duct in the HVAC system such that air within the HVAC system passes through the sterilizing unit before exiting from one or more vent.