Abstract: A method of generating a low-CFM fog with a portable, battery-powered fogging apparatus is provided. Airflow is initiated through at least one passageway of fogging apparatus with a DC powered blower motor receiving power from at least one battery. A quantity of pressurized fogging liquid is expelled through a nozzle positioned proximate to an opening within a mixing chamber, wherein the quantity of pressurized fogging liquid exits the nozzle with at least 90% of an atomized micron particulate size between 5 and 60 microns. The expelled quantity of pressurized fogging liquid is atomized with the airflow to produce a fog at 190 CFM and at a velocity of less than 190 MPH.

Abstract: A portable fogger apparatus includes a portable fogger body having at least one airflow passageway. A DC blower motor is connected to the fogger body proximate to the airflow passageway and receives power from a battery, wherein the DC blower motor produces an airflow through the passageway. A mixing chamber is positioned along the at least one passageway, wherein at least a portion of the airflow is movable through the mixing chamber. A quantity of pressurized fogging liquid is housed within a container connected to the fogger body. The pressurized fogging liquid is dispensable from the container into the mixing chamber where it is expelled through a nozzle and mixed with the airflow to produce a fog. The fog has an atomized micron particulate size between 5 and 60 microns. An activation switch controls activation of the DC blower motor and/or dispensing of the pressurized fogging liquid.

Abstract: An automated chemical fluid applicator apparatus includes a container of fluid chemical having an integrated pressurization device and an outlet for releasing the fluid chemical. A portable, battery-powered fluid pumping apparatus is retrofitable to the container and has housing having at least one fluid inlet port and at least one fluid outlet port, wherein the at least one fluid inlet port is connectable to the outlet of the container. A liquid diaphragm pump is positioned within the housing. A battery is removably connectable to a battery terminal connector formed on the housing, wherein the battery powers the liquid diaphragm pump. A control switch is positioned on the housing and controls activation of the liquid diaphragm pump to expel the quantity of fluid chemical from the at least one fluid outlet port.

Abstract: An automated chemical fluid applicator apparatus includes a container of fluid chemical having an integrated pressurization device and an outlet for releasing the fluid chemical. A portable, battery-powered fluid pumping apparatus is retrofitable to the container and has housing having at least one fluid inlet port and at least one fluid outlet port, wherein the at least one fluid inlet port is connectable to the outlet of the container. A liquid diaphragm pump is positioned within the housing. A battery is removably connectable to a battery terminal connector formed on the housing, wherein the battery powers the liquid diaphragm pump. A control switch is positioned on the housing and controls activation of the liquid diaphragm pump to expel the quantity of fluid chemical from the at least one fluid outlet port.

Abstract: A fogger apparatus and related methods are disclosed. The fogger apparatus includes a portable fogger body. A DC blower motor is positioned on the portable fogger body and is powered with a battery, wherein the DC blower motor produces air flow through at least one passageway within the portable fogger body. A quantity of fogging liquid is housed within a container positioned on the portable fogger body, wherein at least a portion of the quantity of fogging liquid is dispensable from the container. An activation switch controls at least one of activation of the DC blower motor and dispensing of the portion of the quantity of fogging liquid. A mixing chamber receives the air flow and the dispensed portion of the quantity of fogging liquid. The dispensed portion of the quantity of fogging liquid is expelled through a nozzle as a particulate having adjustable droplets sizes.

Abstract: An automated chemical fluid applicator apparatus includes a container of fluid chemical having an integrated pressurization device and an outlet for releasing the fluid chemical. A portable, battery-powered fluid pumping apparatus is retrofitable to the container and has housing having at least one fluid inlet port and at least one fluid outlet port, wherein the at least one fluid inlet port is connectable to the outlet of the container. A liquid diaphragm pump is positioned within the housing. A battery is removably connectable to a battery terminal connector formed on the housing, wherein the battery powers the liquid diaphragm pump. A control switch is positioned on the housing and controls activation of the liquid diaphragm pump to expel the quantity of fluid chemical from the at least one fluid outlet port.

Abstract: A portable fogger apparatus includes a portable fogger body having at least one airflow passageway. A DC blower motor is connected to the fogger body proximate to the airflow passageway and receives power from a battery, wherein the DC blower motor produces an airflow through the passageway. A mixing chamber is positioned along the at least one passageway, wherein at least a portion of the airflow is movable through the mixing chamber. A quantity of pressurized fogging liquid is housed within a container connected to the fogger body. The pressurized fogging liquid is dispensable from the container into the mixing chamber where it is expelled through a nozzle and mixed with the airflow to produce a fog. The fog has an atomized micron particulate size between 5 and 60 microns. An activation switch controls activation of the DC blower motor and/or dispensing of the pressurized fogging liquid.

Abstract: A portable fogger apparatus includes a portable fogger body having at least one airflow passageway. A DC blower motor is connected to the fogger body proximate to the airflow passageway and receives power from a battery, wherein the DC blower motor produces an airflow through the passageway. A mixing chamber is positioned along the at least one passageway, wherein at least a portion of the airflow is movable through the mixing chamber. A quantity of pressurized fogging liquid is housed within a container connected to the logger body. The pressurized fogging liquid is dispensable from the container into the mixing chamber where it is expelled through a nozzle and mixed with the airflow to produce a fog. The fog has an atomized micron particulate size between 5 and 60 microns. An activation switch controls activation of the DC blower motor and/or dispensing of the pressurized fogging liquid.

Abstract: A portable fogger apparatus includes a portable fogger body having at least one airflow passageway. A DC blower motor is connected to the fogger body proximate to the airflow passageway and receives power from a battery, wherein the DC blower motor produces an airflow through the passageway. A mixing chamber is positioned along the at least one passageway, wherein at least a portion of the airflow is movable through the mixing chamber. A quantity of pressurized fogging liquid is housed within a container connected to the logger body. The pressurized fogging liquid is dispensable from the container into the mixing chamber where it is expelled through a nozzle and mixed with the airflow to produce a fog. The fog has an atomized micron particulate size between 5 and 60 microns. An activation switch controls activation of the DC blower motor and/or dispensing of the pressurized fogging liquid.

Abstract: One embodiment of the present invention provides a rodent proofing and entrapment system, the system comprising: a rodent proof shell; a opening disposed in the shell communicating with a rodent passage; a bridge having a proximal end disposed proximate to the first opening and a distal end disposed proximal to a trap chamber, the bridge being configured to pivot on a pivot axis; a door, engaged by the proximal end of the bridge, such that when a rodent crosses the pivot axis towards the distal end of the, the door closes; a flap depending from the distal end of the bridge excluding rodent access beneath the bridge and closing the trap chamber when the distal end of the bridge is in an upright position.

Abstract: One embodiment of the present invention provides a rodent proofing and entrapment system, the system comprising: a rodent proof shell; a opening disposed in the shell communicating with a rodent passage; a bridge having a proximal end disposed proximate to the first opening and a distal end disposed proximal to a trap chamber, the bridge being configured to pivot on a pivot axis; a door, engaged by the proximal end of the bridge, such that when a rodent crosses the pivot axis towards the distal end of the, the door closes; a flap depending from the distal end of the bridge excluding rodent access beneath the bridge and closing the trap chamber when the distal end of the bridge is in an upright position.

Abstract: Some embodiments include an event detector to subscribe to solution members of a condition definition, to receive changes to the solution members, and to evaluate a state of the condition definition a subscription manager to identify users associated with the condition definition, and a notification manager to determine a notification routing for each of the identified users.

Abstract: A system is provided for the spraying of a fluid, that system having: a spray handle; a fluid channel disposed within the handle, through which the fluid is introduced into the handle; a trigger disposed within the handle; a stopper actuated by the trigger whereby flow of the fluid from the fluid channel is regulated; a wand removably coupled to a distal end of the fluid channel and through which the fluid exits the system.

Abstract: An engine (10) having a series of cylinders (12, 14, 16 and 18) in which pistons (30, 32, 34 and 36) are arranged for reciprocation and which are connected to a crankshaft (38). Two of the cylinders (12 and 18) operate in an Otto cycle, and water is injected through injectors (74) into the exhaust gases of those cylinders for conversion into steam which is directed to the other cylinders (14 and 16) for expansion to drive the pistons (32 and 34).