Abstract: A method for cleaning an object includes steps of delivering a cleaning medium to a surface of the object, delivering ultrasonic waves to the object to atomize the cleaning medium, and applying a vacuum airflow to collect atomized cleaning medium.

Abstract: A method for cleaning an object having a surface, the method including steps of (1) delivering acoustic waves to the object to dislodge debris from the surface; (2) delivering a cleaning medium to the surface to collect dislodged debris; (3) delivering the acoustic waves to the object to acoustically treat and atomize the cleaning medium and the dislodged debris; (4) applying a vacuum airflow to collect atomized cleaning medium and dislodged debris; (5) delivering a rinsing medium to the surface; (6) delivering the acoustic waves to the object to acoustically treat and atomize the rinsing medium; and (7) applying the vacuum airflow to collect atomized rinsing medium.

Abstract: A method for cleaning an object having a surface, the method including steps of (1) delivering acoustic waves to the object to dislodge debris from the surface; (2) delivering a cleaning medium to the surface to collect dislodged debris; (3) delivering the acoustic waves to the object to acoustically treat and atomize the cleaning medium and the dislodged debris; (4) applying a vacuum airflow to collect atomized cleaning medium and dislodged debris; (5) delivering a rinsing medium to the surface; (6) delivering the acoustic waves to the object to acoustically treat and atomize the rinsing medium; and (7) applying the vacuum airflow to collect atomized rinsing medium.

Abstract: A system for cleaning an object may include an acoustic device configured to deliver acoustic waves to the object, a cleaning medium dispenser configured to deliver a cleaning medium to a surface of the object, a rinsing medium dispenser configured to deliver a rinsing medium to the surface, a vacuum configured to deliver a vacuum airflow proximate the surface, wherein the acoustic waves generate acoustic vibrations in the object to dislodge debris from the surface, acoustically treat the cleaning medium and the rinsing medium, and atomize the cleaning medium, the debris collected by the cleaning medium and the rinsing medium.

Abstract: A cleaning apparatus is provided that includes a first nozzle configured to direct a cleaning jet towards a contaminated surface at a pressure sufficient to remove contaminants from the surface. At least one second nozzle is configured to direct a rinsing jet towards the contaminated surface to remove cleaning fluid therefrom, wherein the rinsing jet is directed at a pressure sufficient to isolate the cleaning jet from an ambient environment.

Abstract: A method for cleaning an object includes steps of delivering a cleaning medium to a surface of the object, delivering ultrasonic waves to the object to atomize the cleaning medium, and applying a vacuum airflow to collect atomized cleaning medium.

Abstract: A system for cleaning an object may include a cleaning medium dispenser configured to deliver a cleaning medium to a surface of the object, wherein the cleaning medium dislodges and captures debris from the surface, an ultrasonic device configured to deliver ultrasonic waves to the object, wherein the ultrasonic waves generate ultrasonic vibrations in the object to atomize the cleaning medium from the surface and a vacuum configured to provide a vacuum airflow, wherein the vacuum airflow collects atomized cleaning medium and debris from the surface.

Abstract: The present disclosure provides a system and method for providing an improved protective coating for a substrate that may be inspected using the unaided eye or other apparatus under available light. The protective coating is mixed with an additive including flakes or particles that, when applied to the substrate as part of the protective coating, allow the user to empirically determine if the surface has received an adequate protective coat. The determination of whether or not any defects exist may include comparing the observed appearance of the specialty pigment particles with a comparative standard.

Abstract: Example systems and methods for nondestructive ultrasonic testing are provided. One example system includes at least one air-coupled ultrasonic transducer configured to emit primary ultrasound waves that interfere with each other. The primary ultrasound waves include fundamental frequency components that are multiples of each other and emitted simultaneously in locked phase. Further, the interference of the primary ultrasound waves generates a plurality of frequency harmonics in the air. The system also includes at least one receiver configured to receive ultrasonic waves emitted from an object under test.

Abstract: An environment sensitive coating system is disclosed that includes a pressure sensitive component comprising a first portion of an oxygen sensitive light emitting material dispersed in an oxygen permeable binder; and a pressure reference component comprising a second portion of the oxygen sensitive light emitting material dispersed in an oxygen impermeable binder.

Abstract: The present disclosure provides a system and method for providing an improved protective coating for a substrate that may be inspected using the unaided eye or other apparatus under available light. The protective coating is mixed with an additive including flakes or particles that, when applied to the substrate as part of the protective coating, allow the user to empirically determine if the surface has received an adequate protective coat. The determination of whether or not any defects exist may include comparing the observed appearance of the specialty pigment particles with a comparative standard.

Abstract: The present disclosure provides a system and method for providing an improved protective coating for a substrate that may be inspected using the unaided eye or other apparatus under available light. The protective coating is mixed with an additive comprising flakes or particles that, when applied to the substrate as part of the protective coating, allow the user to empirically determine if the surface has received an adequate protective coat. The determination of whether or not any defects exist may include comparing the observed appearance of the specialty pigment particles with a comparative standard.

Abstract: Example systems and methods for nondestructive ultrasonic testing are provided. One example system includes at least one air-coupled ultrasonic transducer configured to emit primary ultrasound waves that interfere with each other. The primary ultrasound waves include fundamental frequency components that are multiples of each other and emitted simultaneously in locked phase. Further, the interference of the primary ultrasound waves generates a plurality of frequency harmonics in the air. The system also includes at least one receiver configured to receive ultrasonic waves emitted from an object under test.

Abstract: A method of manufacturing a cleaning apparatus may include forming a plurality of apertures in an inner wall of a cleaning head having an annular steam chamber open at a lower edge and enclosing a vacuum chamber. The apertures may fluidly couple the annular steam chamber to the vacuum chamber. The method may include locating the plurality of apertures in vertically spaced relation to the lower edge of the cleaning head. The method may additionally include providing a steam nozzle fluidly coupled to the annular steam chamber.

Abstract: A cleaning apparatus is provided that includes a first nozzle configured to direct a cleaning jet towards a contaminated surface at a pressure sufficient to remove contaminants from the surface. At least one second nozzle is configured to direct a rinsing jet towards the contaminated surface to remove cleaning fluid therefrom, wherein the rinsing jet is directed at a pressure sufficient to isolate the cleaning jet from an ambient environment.

Abstract: A cleaning apparatus is provided that includes a first nozzle configured to direct a cleaning jet towards a contaminated surface at a pressure sufficient to remove contaminants from the surface. At least one second nozzle is configured to direct a rinsing jet towards the contaminated surface to remove cleaning fluid therefrom, wherein the rinsing jet is directed at a pressure sufficient to isolate the cleaning jet from an ambient environment.

Abstract: An environment sensitive coating system is disclosed that includes a pressure sensitive component comprising a first portion of an oxygen sensitive light emitting material dispersed in an oxygen permeable binder; and a pressure reference component comprising a second portion of the oxygen sensitive light emitting material dispersed in an oxygen impermeable binder.

Abstract: A system for cleaning an object may include an acoustic device configured to deliver acoustic waves to the object, a cleaning medium dispenser configured to deliver a cleaning medium to a surface of the object, a rinsing medium dispenser configured to deliver a rinsing medium to the surface, a vacuum configured to deliver a vacuum airflow proximate the surface, wherein the acoustic waves generate acoustic vibrations in the object to dislodge debris from the surface, acoustically treat the cleaning medium and the rinsing medium, and atomize the cleaning medium, the debris collected by the cleaning medium and the rinsing medium.

Abstract: A system for cleaning an object may include a cleaning medium dispenser configured to deliver a cleaning medium to a surface of the object, wherein the cleaning medium dislodges and captures debris from the surface, an ultrasonic device configured to deliver ultrasonic waves to the object, wherein the ultrasonic waves generate ultrasonic vibrations in the object to atomize the cleaning medium from the surface and a vacuum configured to provide a vacuum airflow, wherein the vacuum airflow collects atomized cleaning medium and debris from the surface.

Abstract: A method of manufacturing a cleaning apparatus may include forming a plurality of apertures in an inner wall of a cleaning head having an annular steam chamber open at a lower edge and enclosing a vacuum chamber. The apertures may fluidly couple the annular steam chamber to the vacuum chamber. The method may include locating the plurality of apertures in vertically spaced relation to the lower edge of the cleaning head. The method may additionally include providing a steam nozzle fluidly coupled to the annular steam chamber.