Abstract: Disclosed are insecticidal compositions and associated methods that comprise an insecticide, C2-4 alkylene carbonate, C2-6 polyalkylene glycol, and a block co-polymer of C2-5 polyalkylene glycol and C3-6 polyalkylene glycol.

Abstract: Insecticidal compositions have at least one active agent and at least one insecticide. The active agent can include perilla oil, a component found in perilla oil, or a perillaldehyde or carvone analog. The insecticide can include a pyrethrum, pyrethrin, pyrethroid, neonicotinoid, chlofenapyr, ethiprole, sulfoxoflor, carbamate, organophosphate, or organochlorine. Methods for controlling insects include contacting an insect with an effective amount of a composition described in this specification. Modified plants that produce an active agent can be contacted with an insecticide.

Abstract: A method of operating a fluid sprayer includes dispersing a first fluid selected from a group consisting of larvicide, adulticide, and a barrier repellant from the fluid sprayer with a first nozzle assembly at a first volumetric flow rate, replacing the first nozzle assembly with a second nozzle assembly, and dispersing a second fluid selected from the group from the fluid sprayer with the second nozzle assembly at a second volumetric flow rate different than the first volumetric flow rate.

Abstract: Disclosed are insecticidal compositions and associated methods that comprise an insecticide, C2-4 alkylene carbonate, C2-6 polyalkylene glycol, and a block co-polymer of C2-5 polyalkylene glycol and C3-6 polyalkylene glycol.

Abstract: Disclosed are insecticidal compositions and associated methods that comprise an insecticide, C2-4 alkylene carbonate, C2-6 polyalkylene glycol, and a block co-polymer of C2-5 polyalkylene glycol and C3-6 polyalkylene glycol.

Abstract: A system and method are provided and include an infrared emitter that emits a predetermined pattern of pulses of infrared light and an infrared receiver that detects the predetermined pattern of pulses of infrared light after the predetermined pattern of pulses of infrared light reflect off of a container. A proximity detection module is configured to determine a transmission time when the infrared emitter emits the predetermined pattern of pulses of infrared light, a detection time when the infrared receiver detects the predetermined pattern of pulses of infrared light, an elapsed time between the transmission time and the detection time, and a distance to the container based on the elapsed time. A control module for a dispenser is configured to receive the determined distance from the proximity detection module and to activate the dispenser when the determined distance to the container is less than a predetermined threshold.

Abstract: Insecticidal compositions have at least one active agent and at least one insecticide. The active agent can include perilla oil, a component found in perilla oil, or a perillaldehyde or carvone analog. The insecticide can include a pyrethrum, pyrethrin, pyrethroid, neonicotinoid, chlofenapyr, ethiprole, sulfoxoflor, carbamate, organophosphate, or organochlorine. Methods for controlling insects include contacting an insect with an effective amount of a composition described in this specification. Modified plants that produce an active agent can be contacted with an insecticide.

Abstract: A method of operating a fluid sprayer includes supplying a first fluid selected from a group consisting of larvicide, adulticide, and a barrier repellant to a nozzle assembly at a first regulated pressure. The method further includes changing the first regulated pressure to a second regulated pressure different than the first regulated pressure. The method further includes supplying a second fluid selected from the group to the nozzle assembly at the second regulated pressure.

Abstract: A fluid sprayer includes a tank containing fluid therein and a rotary atomizer in communication with the tank to receive fluid therefrom and to atomize the fluid. The fluid sprayer also includes a blower assembly positioned upstream of the rotary atomizer for dispersing the atomized fluid from the rotary atomizer into the surroundings of the fluid sprayer and a discharge chute positioned downstream of the blower assembly into which the atomized fluid from the rotary atomizer is sprayed before being discharged upward and into the surroundings of the fluid sprayer. The rotary atomizer includes a plurality of fan blades coupled to a hub. The fan blades are operable to impart rotation to the hub in response to an airflow generated by the blower assembly flowing around the fan blades.

Abstract: Insecticidal compositions have at least one active agent and at least one insecticide. The active agent can include perilla oil, a component found in perilla oil, or a perillaldehyde or carvone analog. The insecticide can include a pyrethrum, pyrethrin, pyrethroid, neonicotinoid, chlofenapyr, ethiprole, sulfoxoflor, carbamate, organophosphate, or organochlorine. Methods for controlling insects include contacting an insect with an effective amount of a composition described in this specification. Modified plants that produce an active agent can be contacted with an insecticide.

Abstract: A system and method are provided and include an infrared emitter that emits a predetermined pattern of pulses of infrared light and an infrared receiver that detects the predetermined pattern of pulses of infrared light after the predetermined pattern of pulses of infrared light reflect off of a container. A proximity detection module is configured to determine a transmission time when the infrared emitter emits the predetermined pattern of pulses of infrared light, a detection time when the infrared receiver detects the predetermined pattern of pulses of infrared light, an elapsed time between the transmission time and the detection time, and a distance to the container based on the elapsed time. A control module for a dispenser is configured to receive the determined distance from the proximity detection module and to activate the dispenser when the determined distance to the container is less than a predetermined threshold.

Abstract: A precise and versatile hybrid sensor system and method of use that senses the location of a movable element traveling along a linear path. The system includes a magnetostrictive sensor along with a tried and proven converting mechanism that converts the linear movement of the movable element to rotational movement and then to a greatly reduced linear movement of a magnet that is directly proportional to the movement of the movable element. The magnetostrictive sensor has a sensor probe having an active length that is in close proximity and parallel to the movement of the magnet such that the magnetostrictive sensor can sense the location of the magnet to determine the location of the movable element. The magnetostrictive sensor is located exterior to the vessel to eliminate wiring within the vessel itself so as to allow the hybrid sensor to be readily used in difficult, high pressure or subsea environments.

Abstract: A system and method are provided and include a sensor module and a control module for a dispenser. The sensor module has an infrared emitter that emits infrared light and an infrared receiver that detects the infrared light emitted by the infrared emitter and reflected off of a container. The sensor module determines a time period between emission of the infrared light by the infrared emitter and detection of the infrared light by the infrared receiver and determines a distance to the container based on the determined time period. The control module is configured to receive the determined distance from the sensor module, activate the dispenser when the determined distance to the container is less than the predetermined threshold, and deactivate the dispenser when the determined distance to the container is greater than the predetermined threshold.

Abstract: A fluid sprayer includes a tank containing fluid therein and a nozzle assembly in communication with the tank to receive fluid therefrom and to atomize the fluid. The fluid sprayer also includes a blower assembly positioned upstream of the nozzle assembly for dispersing the atomized fluid from the nozzle assembly into the surroundings of the fluid sprayer and a discharge chute positioned downstream of the blower assembly into which the atomized fluid from the nozzle assembly is sprayed before being discharged upward and into the surroundings of the fluid sprayer.

Abstract: A system and method are provided and include a sensor module and a control module for a dispenser. The sensor module has an infrared emitter that emits infrared light and an infrared receiver that detects the infrared light emitted by the infrared emitter and reflected off of a container. The sensor module determines a time period between emission of the infrared light by the infrared emitter and detection of the infrared light by the infrared receiver and determines a distance to the container based on the determined time period. The control module is configured to receive the determined distance from the sensor module, activate the dispenser when the determined distance to the container is less than the predetermined threshold, and deactivate the dispenser when the determined distance to the container is greater than the predetermined threshold.

Abstract: A fluid sprayer includes a fluid storage module having at least one fluid tank, and a dispersion module having a rotary spray head assembly in fluid communication with the tank to receive fluid therefrom. The rotary spray head assembly further atomizes the fluid, and the dispersion module further includes a blower assembly positioned upstream of the rotary spray head assembly for dispersing the atomized fluid from the rotary spray head assembly into the surroundings of the fluid sprayer. The fluid storage module is detachably coupled to the dispersion module to effect reconfiguration of the fluid sprayer between a first configuration in which the fluid storage module and the dispersion module are positioned in a side-by-side manner, and a second configuration in which the fluid storage module and the dispersion module are positioned in-line with each other.

Abstract: A linear position sensing system includes a sensor, a conduit and an enclosure. The sensor has a connector and a converting element, where the connector includes a first end attached to the converting element and a second end that passes through the conduit and is configured for attachment to a moveable element of an external device. The enclosure houses the sensor. The conduit includes a first end fitting that is attached to the enclosure and a second end fitting that is affixed at a port or other aperture of the external device. The second end of the connector is configured to be inserted in the port other aperture and attached to the moveable element without disassembly of the external device.

Abstract: Provided are mosquito larvicide compositions comprising a mineral oil and a methylated coconut oil. The compositions may further comprise a silicone and at least one surfactant. The compositions can kill mosquito larvae in swamps, floodwater areas, and other areas where mosquitoes develop. Further provided are methods for mosquito control. The methods may comprise coating the surface of a body of water.

Abstract: A valve apparatus for a fluid transmission line. The valve apparatus comprising a housing; a drive mechanism; a leadscrew selectively rotatable in a first or second rotational leadscrew direction by the drive mechanism; a drive gear mounted to the housing, the drive gear configured to be selectively driven in a first or second drive gear direction during rotation of said leadscrew in the first or second leadscrew direction to operate an iris mechanism.

Abstract: A linear position sensing system includes a sensor, a conduit and an enclosure. The sensor has a connector and a converting element, where the connector includes a first end attached to the converting element and a second end that passes through the conduit and is configured for attachment to a moveable element of an external device. The enclosure houses the sensor. The conduit includes a first end fitting that is attached to the enclosure and a second end fitting that is affixed at a port or other aperture of the external device. The second end of the connector is configured to be inserted in the port other aperture and attached to the moveable element without disassembly of the external device.