Abstract: A system for drying a container includes an air manifold. The air manifold includes a main body having multiple outlets and multiple arms. Each arm is coupled to a respective outlet, is disposed in a fixed position relative to the main body, and is configured to direct air received from the main body toward the container.

Abstract: Rotating spray systems and related methods for enhancing spray performance can include one of more rotating spray assemblies formed of a plurality of individual, linear distribution manifolds to define a rotary cage. The rotary cage is fluidly coupled to a rotating distribution block on a distribution valve, with each linear distribution manifold being fluidly coupled to one of a plurality of distribution conduits defined in the rotating distribution block. The distribution valve further includes a fixed distribution block having an arcuate aperture defined therein. The rotating distribution block rotates relative to the fixed distribution block to individually and sequentially engage each distribution conduit with the arcuate aperture.

Abstract: In this system, a device is placed inside the injectors on the manifold or inside three different design housings above the combustion chambers of engines. The device is a combine that has a cylinder that has a set of vanes. In one embodiment a small motor is used to turn the cylinder, which helps to atomize the fuel to a fine state. This atomization improves combustion in that the smaller fuel particles can burn more efficiently and more completely than larger drops of fuel that is simply squirted into a cylinder or manifold. In two other embodiments, the cylinder (combine) can be turned with a belt driven by the engine.

Abstract: A magnetically driven irrigation sprinkler is disclosed with a magnetic drive mechanism for rotating a fluid outlet relative to a fluid inlet. In one form, the drive mechanism includes a permanently polarized magnet and an electromagnet.

Abstract: An automated sprayer for spraying the walls of a shower enclosure with a liquid cleanser is disclosed. The sprayer includes a bottle suitable for containing the liquid, a housing, a pump located in the housing wherein the pump is in fluid communication with the bottle, a rotatable dome-shaped spray head extending away from an opening in a surface of the housing, a spray nozzle positioned such that an outlet of the spray nozzle is positioned within an opening in a side wall of the rotatable spray head wherein the spray nozzle is in fluid communication with an outlet of the pump, a motor located in the housing, and a transmission operably coupled to a shaft of the motor, the rotatable spray head, and the pump. The transmission transfers rotational motion of the shaft of the motor to drive the pump and cause rotation of the rotatable spray head such that the liquid is sprayed radially away from and around the housing thereby providing a circular spray pattern that contacts the walls of the shower enclosure.

Abstract: A device for dispensing a viscous fluid product, including a pump having an inlet; an outlet; a cylinder; a piston in the cylinder; and a piston rod attached to the piston with its first end being exposed. The pump pumps viscous fluid product from a container to the outlet when the inlet is submerged in the viscous fluid product and the piston rod is axially moved relative to the cylinder. The device further includes a handle attached to the piston rod; a nozzle rotatably mounted on the handle around a rotation axis, in fluid communication with the outlet, and having a discharge orifice offset from the rotation axis; and a mechanism for rotating the nozzle around the rotation axis when the piston rod is axially moved relative the cylinder so that the discharge orifice moves in a circular pattern for dispensing the viscous liquid product in a substantially helical pattern.

Abstract: A speed limiting mechanisms for turbine-driven fluid distribution apparatus usable with compressible fluid such as compressed air and incompressible fluid such as water. Dynamic viscous damping of the turbine output power train is used to control the rotational speed of the turbine. This prevents overspeeding when the turbine is air driven, and also when the turbine is water driven, under abnormal conditions such as blockage of a bypass area designed to control the turbine speed by limiting flow to the turbine. The same mechanism can be used to impose a lower rotational speed in the turbine during normal operation in conjunction with a turbine optimized for lower speed operation to reduce the required gear reduction in the power train.