Abstract:
An embodiment of the present invention includes an advanced adjustable density misting delivery system (AMDS) for detecting and neutralizing a fire. The AMDS includes a bladder containing a fire suppressant material, a pump operatively connected to the bladder via a tube, and a nozzle operatively connected to the pump and the bladder via the tube. The AMDS also includes a controller electrically connected to the pump and a sensor in communication with the controller, where the sensor is configured to detect a parameter that indicates the presence of the fire. The controller is configured to transition the pump from a deactivated state to an activated state when the sensor detects the parameter, such that in the deactivated state the pump does not operate, and in the activated state the pump causes the fire suppressant to flow from the bladder, through the tube, and out the nozzle.
Abstract:
A sprinkler includes a sprinkler head (100) having at least one nozzle (106). The nozzle (106) includes a nozzle body (108) and a nozzle opening (110). Further, the nozzle (106) is configured to discharge a liquid jet (202) through the nozzle opening (110). A deflector (112) is provided downstream of the nozzle (106). The deflector (112) includes a deflecting surface (114) which is in contact with the liquid jet (202) to adjust a range of the liquid jet (202). Further, the deflector (112) includes an elongated guiding element (120) which is provided upstream of the deflecting surface (114). The guiding element (120) is in contact with the liquid jet (202) to direct splashed liquid from the deflecting surface (114) back into the liquid jet (202).
Abstract:
A sprinkler includes a sprinkler head (100) having at least one nozzle (106). The nozzle (106) includes a nozzle body (108) and a nozzle opening (110). Further, the nozzle (106) is configured to discharge a liquid jet (202) through the nozzle opening (110). A deflector (112) is provided downstream of the nozzle (106). The deflector (112) includes a deflecting surface (114) which is in contact with the liquid jet (202) to adjust a range of the liquid jet (202). Further, the deflector (112) includes an elongated guiding element (120) which is provided upstream of the deflecting surface (114). The guiding element (120) is in contact with the liquid jet (202) to direct splashed liquid from the deflecting surface (114) back into the liquid jet (202).
Abstract:
A sprinkler includes a sprinkler head (100) having at least one nozzle (106). The nozzle (106) includes a nozzle body (108) and a nozzle opening (110). Further, the nozzle (106) is configured to discharge a liquid jet (202) through the nozzle opening (110). A deflector (112) is provided downstream of the nozzle (106). The deflector (112) includes a deflecting surface (114) which is in contact with the liquid jet (202) to adjust a range of the liquid jet (202). Further, the deflector (112) includes an elongated guiding element (120) which is provided upstream of the deflecting surface (114). The guiding element (120) is in contact with the liquid jet (202) to direct splashed liquid from the deflecting surface (114) back into the liquid jet (202).
Abstract:
The invention relates to a fire-extinguishing mist projector (1) for producing a jet of mist oriented along an injection jet axis (7). Said mist projector comprises an ejector (8) which is supplied with high-pressure water, generates a jet of water (10) parallel to the injection jet axis (7), and is arranged in such a way that it can rotate about the injection jet axis (7). The inventive mist projector is characterised in that the projector is surrounded by a open-ended jacket tube (11) that is concentric to the injection jet axis (7).
Abstract:
An atomization device includes a pair of counter-rotating rollers (102, 104), a fluid source configured to coat at least one of the rollers in a feed fluid, and a baffle unit (200). The counter-rotation of the rollers (102, 104) stretches the feed fluid into a fluid filament between the two diverging surfaces of the rollers. The stretched fluid filaments break into a plurality of droplets at a capillary break-up point of the feed fluid. The baffle unit (200) introduces a baffle fluid within the interior of the device and the baffle fluid transports formed droplets of the feed fluid from the atomization device. Excess or misguided atomized fluid droplets are collected by the baffle unit (200) and are recycled back into the device for use in later atomization processes. The variation of atomization device parameters allows for the selection of droplets having desired physical parameters.
Abstract:
This disclosure provides a fluid whirl lighting apparatus (2), which comprises: a housing (20); a coil module (21), disposed on an inner wall of the housing; a rotor (22), disposed in the housing, provided with a plurality of blades (222) on an inner wall thereof and a magnetic module (221) on an outer wall corresponding to the coil module; a lighting module (23), disposed on the outer wall of the housing while electrically coupled to the coil module; and an alarm element (29), electrically connected to the coil module for issuing an alarm; wherein the outer wall of the rotor and the inner wall of the housing define an air-tight space (28) for accommodating a liquid (280), and the rotor is rotated by a flowing fluid (90) propelling the plural blades for enabling a relative movement between the coil module and the magnetic module for generating electricity; and the lighting module is used for providing illumination in response to the electricity.
Abstract:
The invention relates to a fire-extinguishing mist projector (1) for producing a jet of mist oriented along an injection jet axis (7). Said mist projector comprises an ejector (8) which is supplied with high-pressure water, generates a jet of water (10) parallel to the injection jet axis (7), and is arranged in such a way that it can rotate about the injection jet axis (7). The inventive mist projector is characterised in that the projector is surrounded by a open-ended jacket tube (11) that is concentric to the injection jet axis (7).