Abstract: A control system for a fire fighting component includes a detector for detecting a position of at least a portion of a fire fighting component relative to an axis, which generates an output position signal indicative of the position of the at least a portion of the fire fighting component, and a controller in communication with the detector and receiving the output position signal. The controller generates a display output signal based on the output position signal. The system further includes a display that is in communication with the controller and receives the display output signal. The display generates an icon that is a graphical representation of the fire fighting device, and configures the icon based on the output display signal wherein the configuration of the icon indicates the position of the at least a portion of the fire fighting device.

Abstract: A fire-fighting monitor includes a body that has a fluid passageway and an inlet and an outlet. The inlet is adapted to mount to a base on a fire truck, and the body is configured so that the outlet is rotatable about a vertical axis over a 360 degree range of motion. In addition, the body is configured such that the outlet is rotatable about a horizontal axis over one range of motion of about 195 degrees in one form and about 270 degrees in another form.

Abstract: A fire fighting nozzle includes a nozzle body with an inlet, an outlet, and a passageway extending from the inlet to the outlet. A stem is located in the passageway about which fluid flows when fluid is flowing through the passageway. And, a projecting body projects outwardly from the nozzle body away from the stem, which at least partially fills the space beyond the nozzle outlet where water exits the nozzle assembly.

Abstract: A control system for a fire fighting component includes a detector for detecting a position of at least a portion of a fire fighting component relative to an axis, which generates an output position signal indicative of the position of the at least a portion of the fire fighting component, and a controller in communication with the detector and receiving the output position signal. The controller generates a display output signal based on the output position signal. The system further includes a display that is in communication with the controller and receives the display output signal. The display generates an icon that is a graphical representation of the fire fighting device, and configures the icon based on the output display signal wherein the configuration of the icon indicates the position of the at least a portion of the fire fighting device.

Abstract: A control system for a fire fighting component includes a detector for detecting a position of at least a portion of a fire fighting component relative to an axis, which generates an output position signal indicative of the position of the at least a portion of the fire fighting component, and a controller in communication with the detector and receiving the output position signal. The controller generates a display output signal based on the output position signal. The system further includes a display that is in communication with the controller and receives the display output signal. The display generates an icon that is a graphical representation of the fire fighting device, and configures the icon based on the output display signal wherein the configuration of the icon indicates the position of the at least a portion of the fire fighting device.

Abstract: A fire-fighting monitor includes a body that has a fluid passageway and an inlet and an outlet. The inlet is adapted to mount to a base on a fire truck, and the body is configured so that the outlet is rotatable about a vertical axis over a 360 degree range of motion. In addition, the body is configured such that the outlet is rotatable about a horizontal axis over one range of motion of about 195 degrees in one form and about 270 degrees in another form.

Abstract: A rotary control for controlling an electromechanical device includes a body adapted to mount to a surface and an outer ring pivotally connected to the body. The outer ring has an outer perimeter with a generally undulating profile having peaks and valleys, and has an outer face with a plurality of protrusions extending from the outer face, with the protrusions substantially corresponding with the peaks. The rotary control also includes a sensor adapted to sense rotation of the outer ring and output a signal corresponding to the rotation, and a control adapted to receive the signal and control the electromechanical device in response to the rotation of the outer ring.

Abstract: A fire-fighting monitor includes a base, an outlet, and a plurality of jointed hollow members forming a flexible body. The hollow members are pivotably coupled together and extend between the base and the outlet to provide a flexible fluid path. A base-end hollow member is coupled to the base, and an outlet-end hollow member is coupled to the outlet. Each of the hollow members has a ball portion and a socket portion, with the socket portions adapted to receive the ball portions and form a seal therebetween. Optionally, a drive unit may be incorporated into the base for rotatably driving the fire-fighting monitor.

Abstract: A fire fighting nozzle includes a nozzle body with an inlet, an outlet, and a passageway extending from the inlet to the outlet. A stem is located in the passageway about which fluid flows when fluid is flowing through the passageway. And, a projecting body projects outwardly from the nozzle body away from the stem, which at least partially fills the space beyond the nozzle outlet where water exits the nozzle assembly.

Abstract: A fire fighting device for a fire truck includes a frame, which is adapted for mounting to the deck of a fire truck and has a mounting surface for mounting a fluid monitor to the frame. A flexible fluid conduit extends through the frame, which is in fluid communication with a supply of fluid and provides fluid communication with a fluid monitor mounted to the mounting surface for delivering fluid to the fluid monitor.

Abstract: A method of forming a fire fighting monitor includes forming a core in the shape of a non-linear waterway of a monitor body, applying a composite material over the core, and then curing the composite material to thereby form the fire fighting monitor body.

Abstract: A control system for a fire fighting component includes a detector for detecting a position of at least a portion of a fire fighting component relative to an axis, which generates an output position signal indicative of the position of the at least a portion of the fire fighting component, and a controller in communication with the detector and receiving the output position signal. The controller generates a display output signal based on the output position signal. The system further includes a display that is in communication with the controller and receives the display output signal. The display generates an icon that is a graphical representation of the fire fighting device, and configures the icon based on the output display signal wherein the configuration of the icon indicates the position of the at least a portion of the fire fighting device.

Abstract: A fire-fighting monitor includes a base, an outlet, and a plurality of jointed hollow members forming a flexible body. The hollow members are pivotably coupled together and extend between the base and the outlet to provide a flexible fluid path. A base-end hollow member is coupled to the base, and an outlet-end hollow member is coupled to the outlet. Each of the hollow members has a ball portion and a socket portion, with the socket portions adapted to receive the ball portions and form a seal therebetween. Optionally, a drive unit may be incorporated into the base for rotatably driving the fire-fighting monitor.