Patent classifications
A62C33/00
SYSTEM AND METHOD OF INTEGRATION OF A FIRE HOSE WITH A BREATHABLE AIR SUPPLY SYSTEM
A breathable air supply system within a structure includes a fixed piping system permanently installed therewithin serving as a source of breathable air, and an emergency air fill site communicatively coupled to the fixed piping system to port a regulated, pressurized volume of the breathable air out through a first connector thereof. The first connector is connectably complementary to a second connector of a fire hose configured to carry a fire suppression agent through a first channel thereof. The second connector is communicatively coupled to a second channel of the fire hose separate from the first channel and configured to carry the regulated, pressurized volume of the breathable air therethrough to an SCBA of a user. Connection of the first connector to the second connector supplies the regulated, pressurized volume of the breathable air through the second channel to an end of the fire hose couplable to the SCBA.
High volume low level strainer
Methods for drafting or transferring water from a water supply to a fire pump in fire service include a strainer, the strainer having a hood member with an open bottom inlet having an inlet aperture, an outlet having an outlet aperture, a suctioning structure extending away from the open bottom inlet of the hood member, and the suctioning structure having a base offset from the open bottom inlet. Method of using the strainer including immersing a strainer in a water supply, fluidly connecting the outlet to a suction side of a pumping apparatus, activating the pumping apparatus, transferring water through the hood member, directing the strainer toward the bottom of the water supply and maintaining the strainer at the bottom of the water supply.
High volume low level strainer
Methods for drafting or transferring water from a water supply to a fire pump in fire service include a strainer, the strainer having a hood member with an open bottom inlet having an inlet aperture, an outlet having an outlet aperture, a suctioning structure extending away from the open bottom inlet of the hood member, and the suctioning structure having a base offset from the open bottom inlet. Method of using the strainer including immersing a strainer in a water supply, fluidly connecting the outlet to a suction side of a pumping apparatus, activating the pumping apparatus, transferring water through the hood member, directing the strainer toward the bottom of the water supply and maintaining the strainer at the bottom of the water supply.
Integrated panel for fire suppression system
The present system provides an integrated fire suppression system that includes all components other than system piping to nozzles or emitters in a single integrated panel. The system allows the entire panel to be inspected and analyzed, and installed, repaired, or maintained in a single operation, dramatically reducing time spent on site and reducing the qualifying process as well. The assembly of the panel is off-site, typically under the inspection of any qualifying agencies. Once assembled, the system can remain qualified for rapid installation at any future time, allowing easy replacement of faulty panels or consumables.
Integrated panel for fire suppression system
The present system provides an integrated fire suppression system that includes all components other than system piping to nozzles or emitters in a single integrated panel. The system allows the entire panel to be inspected and analyzed, and installed, repaired, or maintained in a single operation, dramatically reducing time spent on site and reducing the qualifying process as well. The assembly of the panel is off-site, typically under the inspection of any qualifying agencies. Once assembled, the system can remain qualified for rapid installation at any future time, allowing easy replacement of faulty panels or consumables.
SYSTEMS AND METHODS FOR SCANNING AN EMERGENCY RESPONSE VEHICLE FOR A TOOL
A system includes an emergency response vehicle transitionable between a motive state and a non-motive state and a tool. The tool includes an identifier and is configured to be removably secured to the emergency response vehicle. The system further includes a scanner coupled to the emergency response vehicle and operable to identify the identifier when the tool is secured to the emergency response vehicle. A control module is communicatively coupled to the scanner and includes a processor and a memory storing instructions which cause the processor to determine that the emergency response vehicle has transitioned between the motive state and the non-motive state, and, in response to determining that the emergency response vehicle has transitioned between the motive state and the non-motive state, cause the scanner to scan the emergency response vehicle for the identifier to determine whether the tool is secured to the emergency response vehicle.
Systems and methods for coding hose appliance to a fire-fighting device
A method for coding a hose appliance with a fire-fighting device is provided. The method includes providing a codable hose appliance on the fire-fighting device, where the hose appliance includes a unique identifier. The method further includes sensing the unique identifier with a sensor associated with a portion of the fire-fighting device, and coding, using a control module communicatively coupled to the sensor, the hose appliance to the portion of the fire-fighting device in response to the sensor sensing the unique identifier. Coding the hose appliance to the portion of the fire-fighting device enables the hose appliance to control fluid flow from the fire-fighting device.
Systems and methods for coding hose appliance to a fire-fighting device
A method for coding a hose appliance with a fire-fighting device is provided. The method includes providing a codable hose appliance on the fire-fighting device, where the hose appliance includes a unique identifier. The method further includes sensing the unique identifier with a sensor associated with a portion of the fire-fighting device, and coding, using a control module communicatively coupled to the sensor, the hose appliance to the portion of the fire-fighting device in response to the sensor sensing the unique identifier. Coding the hose appliance to the portion of the fire-fighting device enables the hose appliance to control fluid flow from the fire-fighting device.
Fire hydrant assembly
A fire hydrant assembly for use with an irrigation riser stub may include a generally cylindrically-shaped main body having an open end and a closed end. The open end of the main body has an inside diameter that is sized to slidably receive an end portion of the irrigation riser stub. A seal disposed within the open end of the main body is sized to sealingly engage the irrigation riser stub. A nipple having a threaded end and a plain end is mounted within an opening provided in a side portion of the main body so that the threaded end may be threaded onto a fire hose assembly. An actuator shaft extends through a shaft opening defined by the closed end of the main body so that a head end of the actuator shaft is disposed outside the main body and so that a distal end of the actuator shaft is disposed within an interior cavity defined by the main body. A yoke mounted to the distal end of the actuator shaft is sized to operatively engage a valve stem associated with the irrigation riser stub.
Measuring device with self-powering annular turbine
The disclosed portable self-powered flow measuring device has a non-metallic housing through which a fluid flows. An annular turbine spins within the housing, and has a set of inwardly-extending vanes set to reduce the pressure of the flowing fluid by more than 10%. A set of magnets that are spaced circumferentially about the turbine. Coils are mounted to the housing with axes that are radial to the axis of the central waterway. A set of circumferentially spaced reinforcing arms, one for each coil, are positioned outside the coils, the circumferential width of each reinforcing arm near the axial position of the turbine being no more than the radius of the coil.