The present invention is about turning the gaseous envelope that encoats, protects certain arthropods from their external environment against them. It teaches to apply radiation to the arthropods body in order to dysfunction the exacting geometry needed to maintain this protective envelope. This absorbed radiation thus makes the arthropod vulnerable to pesticides and other chemical agents. It also interferes with the arthropods ability to adequately breathe through their plastron covering by forcing it to increase its rate of metabolism via this absorbed radiation.

A system for sterilizing a physical space, such as a hotel room. The system generates and distributes heated air to the physical space to elevate the temperature of the space to a level sufficient to achieve a desired sterilization effect of eradicating insects and microoganisms. The system is portable and self-contained. The system includes a hydrogen fuel cell that generates electrical power. An electrical system conditions and stores the electrical power and supplies stored electrical power to the system components and peripherals. System components include a source of hydrogen, a heater, an air distributor, and a filter. Peripherals include a UV light source and an aerosol dispenser. The combination of heat, UV light and aerosol disinfectant effectively eradicates insects, microorganisms, allergens, and odors in the physical space.

A software architecture and system for delivering selected sanitation protocols for multiple pathogens and pests for sanitizing a physical space. The software architecture and system generally includes a plurality of protocol identifiers linked to sanitation protocols arranged as pages in a protocol storage. Each sanitation protocol comprises a plurality of parameters arranged in tabular form for carrying out a sanitation process for one or more pathogens and/or pests. Also included are a control panel/display, controller, heat source, UV light source, and sensors. The protocol identifiers are displayed on the control panel/display and the controller retrieves the parameters of a selected sanitation protocol from the protocol storage. The controller operates in a closed-loop control arrangement with the heat source, UV light source, and sensors to automatically carry out a sanitation process according to the parameters of the selected sanitation protocol.

Disclosed is a mechanical technology that kills parasitic pests, harmful bacteria and weed seeds in the soil by using high-temperature steam while moving forward by using a caterpillar with a self-powered device in order to smoothly perform the eco-friendly high-temperature steam soil disinfection in all types of soils, such as clays and sandy soils, having suitable moisture content; a mechanical technology in which the steam boiler is operated with power of an A/C generator to produce steam the steam is supplied to the re-heater installed on an upper portion of a nozzle through a high-pressure steam hose to increase the steam temperature to reheat the steam with high-temperature dry steam, thereby increasing the efficiency and effectiveness of high-temperature steam soil disinfection.

The present disclosure describes an apparatus, system, and method for trapping and exterminating arthropods, particularly red mites. The apparatus includes an opaque housing and a heat strip configured to have separate temperature zones. The method includes warming the heat strip to lure the mites into the trap, heating outer heat strip segments to drive the mites toward the center of the trap, and then raising the entire heat strip to a temperature sufficient to exterminate the mites. The system includes placing one or more of the traps in animal hold structures, including nesting boxes in poultry houses.

An air treatment system includes an air duct separate from any existing HVAC system. A burner is communicated and is configured to heat the air received in the air duct to a temperature sufficient to reduce the pathogen load of the air passing therethrough. A cooling apparatus will create a cool air stream having a temperature of not more than 10° F. higher than the ambient temperature of the indoor space from which the air was received.

The present disclosure generally relates to the field of pest elimination including all life stages of bed bugs. The present disclosure includes articles, systems, and methods of heat treatment to target and kill pests.

A system, method, and apparatus for thermal management of Varroa mite infestations in manmade beehives includes a portable direct current controller that selectively controls power to a heated bottom board that is installed underneath the bottommost brood box of the beehive. The bottom board elevates the temperature within the brood boxes to a constant temperature of approximately 107° F. The bottom board provides an entrance that is movable between a closed condition and an open condition. An adjustable queen excluder is disposed between the uppermost brood box and the honey super box, wherein the queen excluder is moveable between a passage position and an exclusion position preventing passage of the entire honeybee colony between the brood boxes and the honey super boxes. The excluded position prevents leakage of the heat as well as keeps the honey super boxes below the elevated temperature.

A device for applying, for a predetermined interval, heated air, which is heated to a pest extermination temperature to a to-be-treated automobile, which is housed in a freely accessible manner in a treatment chamber to exterminate pests inside the automobile includes a circulation fan device arranged in the treatment chamber, a suction part of which is oriented toward the inside of the treatment chamber, a heating member mounted in a discharge part of the circulation fan device, and a rectification member for adjusting the flow direction of the heated air delivered into the chamber via the heating member.

An aerosol dispensing system includes a container having a liquefied petroleum gas (LPG) composition disposed therein, and an overcap assembly having an actuator and an exit orifice, the overcap assembly being coupled to the container. The pest control composition is sprayed wherein the pest control composition is sprayed at a spray rate of between about 1.8 g/s and about 2.6 g/s and at a temperature of less than −20° C. at least 18 inches from an exit orifice of the dispensing system.