Abstract: A smart fluid application nozzle consisting of an optical based event locating system, a multi-port nozzle block, and a port switching mechanism is disclosed by the present application. The smart nozzle utilizes a unique arrangement of discharge ports, allowing the angle of the discharge agent to be controlled without moving the nozzle housing. Multiple ports are activated per event to create a uniform fluid distribution within the discharging jet while controlling the discharge angle, which cannot be achieved through a single port discharge. Upon receiving a detection signal, the event locating system determines the spatial location of the event region and activates the appropriate discharge ports, thereby directing agent toward the event zone and applying fluid while minimizing damage to nearby areas. The use of the system may be used wherever the precise directed application of as fluid is desired including, fire suppression.

Abstract: A smart fluid application system and method for the delivery of a fluid to a discreet location is disclosed in the present application. The system and method utilize a rigidly affixed port block with multiple discharge ports, where each port has at least two apertures, all of which are positioned and designed to dispense a fluid only to a pre-determined location. At least one sensor detects an event and directs the release of fluid through a specific port and ceases the release when the event is ended. Such a system and method may be used anywhere a precise application of fluid is required.

Abstract: A smart fluid application nozzle consisting of an optical based event locating system, a multi-port nozzle block, and a port switching mechanism is disclosed by the present application. The smart nozzle utilizes a unique arrangement of discharge ports, allowing the angle of the discharge agent to be controlled without moving the nozzle housing. Multiple ports are activated per event to create a uniform fluid distribution within the discharging jet while controlling the discharge angle, which cannot be achieved through a single port discharge. Upon receiving a detection signal, the event locating system determines the spatial location of the event region and activates the appropriate discharge ports, thereby directing agent toward the event zone and applying fluid while minimizing damage to nearby areas. The use of the system may be used wherever the precise directed application of as fluid is desired including, fire suppression.

Abstract: The structure for the reduction of noise occurring when a fluid flow passes over a surface is disclosed by the present application. The structure comprises a surface with a top face that is roughly parallel to the flow wherein the face has an array of multiple separate and discreet cavities inset into the surface. Each cavity may be tuned to mitigate the noise of a specific frequency of the flow by altering the size, shape, position, angle in relation to the flow and ratios of depth, width, and length of the cavity. The cavities may be divided by partitions into sub-cavities of differing sizes, shapes and positions to mitigate noise as well. The structures may be applied to any application where a flow exists over a surface including, but not limited to, aerospace, automotive, naval and electronics. The structure may be flat, curved, tubular or any other shape subject to fluid flow.

Abstract: The structure for the reduction of noise occurring when a fluid flow passes over a surface is disclosed by the present application. The structure comprises a surface with a top face that is roughly parallel to the flow wherein the face has an array of multiple separate and discreet cavities inset into the surface. Each cavity may be tuned to mitigate the noise of a specific frequency of the flow by altering the size, shape, position, angle in relation to the flow and ratios of depth, width, and length of the cavity. The cavities may be divided by partitions into sub-cavities of differing sizes, shapes and positions to mitigate noise as well. The structures may be applied to any application where a flow exists over a surface including, but not limited to, aerospace, automotive, naval and electronics. The structure may be flat, curved, tubular or any other shape subject to fluid flow.