539 results about "Insect trap" patented technology

A device is disclosed for trapping mosquitoes. The device includes a housing, a bag and a fan located in the housing. The fan creates capture zone with an air flow towards the bag. A plurality of light sources attract mosquitoes to the capture zone. The light sources include an ultraviolet light, a plurality of light emitting diodes, and an incandescent light. A heat source also attracts the mosquitoes to the capture zone.

An insect trap head that can be configured to contain one or two sets of threads to enable the invention to screw onto common household bottles with different opening diameters and different threading alignment and convert these bottles into an insect trap. The insect trap head has a cylindrical top section with an entry opening and a first set of threads being axially orientated to enable the top section to screw onto a bottle with an externally threaded neck. A conical insect entryway section is disposed in the entry opening of the top section. The insect entryway having an entryway skirt section gradually tapering as it projects downwards defining a bottom opening. A ring-shaped bottom section extends peripherally from the top section. The bottom section has a second set of threads that are axially orientated to enable the bottom section to screw onto an alternative bottle requiring a different orientation of threads than that of the first set of threads.

A trap for catching mosquitoes uses a plurality of housings that are disposed along a perimeter to be protected against the mosquitoes. Each housing has a heat source, a mesh for trapping the insects, and a fan to pull the insects into the mesh. A first container holds carbon dioxide while a second container holds octenol. The carbon dioxide is pumped through the octenol holding container and the combined carbon dioxide and octenol are passed are mixed and enter a first conduit. Each housing is fluid flow connected to the first conduit and some of the combined carbon dioxide and octenol passes to each housing in order to act as attractants for the insects. A second conduit runs parallel to the first conduit and carries electricity such that when each housing attaches to the first conduit it also attaches to the second conduit in order to provide an electrical connection to the housing's fan and light.

An intermittent insect trap, working time of which proceeds by alternating periods, and embodies two primary operations including actuation of ultrasonic waves to excite an attractant and form a mist and formation of a backpressure airflow, thereby ensuring that concentration of the mist is not disturbed and thus reduced by external forces during the course of vaporization, and thus preventing dilution of the attractant. Moreover, intermittent operation of a motor results in substantial savings in power. The insect trap primarily uses a mist excitation device to excite and disperse an insect attractant as attractant particles that suspend in the air and diffuse. After achieving a predetermined diffusion concentration, operation switches over to actuate a backpressure device, which pressures lured insects into a receiving chamber through a valve. The alternating working times and mechanical ensnaring of insects provide the insect trap with effective inducement and power saving features.

A flying insect trapping device configured to be used with a fuel supply containing combustible fuel. The device may include a supporting frame; an insect trap chamber carried on the supporting frame; and a combustion device which may also be carried on the supporting frame. The combustion device comprises an inlet port for connection with the fuel supply, an exhaust port, and a combustion chamber communicating the inlet port with the exhaust port. The inlet port enables the fuel from the fuel supply to flow into the combustion chamber for continuous combustion therein to create an exhaust gas within the combustion chamber. The combustion device further includes a catalyst element disposed within the combustion chamber. The catalyst element has a catalyst body with a plurality of essentially linear elongated conduits for enabling the exhaust gas created in the combustion chamber to flow therethrough towards the exhaust port. The catalyst body includes a catalytically active material that, during operation, converts carbon monoxide in the exhaust gas to carbon dioxide as the exhaust gas flows through the elongated conduits. An insect inlet is communicated with the insect trap chamber to enable flying insects to enter the trap chamber through the insect inlet. A vacuum device communicated to the insect inlet is constructed and arranged to draw insects attracted to the exhaust outlet through the insect inlet and into the insect trap chamber.

A flying insect trap containing a light, a fan, and a heater is disclosed. A light controller controls the operation of the light, so that the light can turn off or blink when it is time to change the adhesive paper that traps the insects or the bait that attracts the insects.

A flying inspect trap includes large, multi-directional, oppositely facing ingress openings to elongated chambers housing UV lamps emitting insect attractant light. A disposable cartridge has two sections which mate together to form a container for a roll of adhesive trapping medium. The cartridge sections are opened and spread apart to fit beneath the UV lamps. A motor indexes the adhesive medium so that some unused portion is always available for trapping insects until the roll is exhausted. The spent roll is then rolled into one cartridge section externally; and the two cartridge sections are coupled together to encase the spent roll for disposal.

An integrated system to reduce the entry of flying insects into a predefined area; the system includes a plurality of insect management devices that can act as flying insect traps or flying insect repellants that are controlled either remotely via radio signals or through wires, by a micro controller that utilizes several environmental variables such as current wind speed, wind direction, rainfall, humidity, and other variables to then control the release and/or generation of attractants and/or repellents only to selected insect management devices around the predetermined area to be protected. Insect attractant and/or repellant is pumped underground from a central source to selected insect management devices.

The present invention is directed towards an improved flying insect trap, in the form of a housing and internal disposable portion. In one embodiment, the exterior portion comprises roof and body panels which are manufactured from a poster board paper stock that is printed on opposing sides with contrasting colors. The interior portion comprises a self-adhesive assembly constructed from a heavy weight chipboard material that is preferably white that surrounds an internal attractive element.

The invention is a insect trapping device comprising a truncated, tapered hollow body such as a truncated cone or pyramid having a nondrying glue substantially covering its interior surface. The glue has a removable covering that protects it when it is in its package or ready to deploy configuration. It may be placed on a horizontal surface with the large opening facing down or hung in an overhead position with the large opening facing up. The device may be sized for different applications: a large version placed over dung in a field will capture house flies, while a smaller version put on a countertop using overripe fruit as an attractant will capture fruit flies. Various embodiments are presented that allow the embodiment to be folded, stacked, or flattened for storage. The invention traps members of the insecta class (e.g. flies), members of the arachnid class (e.g. spiders) and other arthropods.

An insect trapping device having a light source, a liquid container disposed beneath the light source having an open surface, and means for preventing the light source from being viewed from a position normal to the axis, wherein light from the light source is reflected from the surface of a liquid placed in said liquid container, and wherein the reflected light is visible when viewed from a position normal to the axis.

A multi-insect trap is capable of capturing a predetermined kind of insects, while preventing other undesirable insects from entering into the trap. The multi-insect trap includes a trap housing, an insect guider, and an ant isolation arrangement. The insect guider includes an attractant carrier supported within the trapping chamber and a plurality of cone-shaped guiding channels spacedly and inwardly extended from the surrounding wall for guiding the insect to enter into the trapping chamber. The ant isolation arrangement has two ant boundaries provided on a top ceiling and a bottom seat of the trap housing respectively, wherein the two ant boundaries are adapted for being filled with liquid as two ant resisting borders respectively for preventing ants to reach the surrounding wall so as to stop the ants from entering into the trapping chamber through the guiding channels.

An insect trap constructed in the form of a box having an open front end and a removable top. Disposed within the box is a ramp having an upwardly rising domain and a downwardly declining domain, the rising domain being disposed at an angle of between 125° and 165° from the declining domain. The box, removable top and ramp elements are fabricated from a material which provides a smooth and slippery surface. A traction-providing substrate is disposed over the rising domain of the ramp, thereby enabling insects to contact and crawl up the rising domain. In operation, insects enter the open front end of the box, crawl up the rising domain, slide down the declining domain and drop to the floor of the box where the insects remain trapped.

An insect trap having a rear cover attached to a wall which is connected to a separate and removable front cover. The front cover can be primarily round in shape with a plurality of slats and a shiny exterior appearance. An adhesive member, such as a sticky board, can be attached to the rear surface of the front cover. A light bulb is disposed within a ballast/socket member attached to the front of the rear cover. Once plugged in, light from the bulb is primarily and substantially retained within the trap by its capture in view of the rounded ends of the rear cover. The light illuminates the trap itself to attract insects to the area between the rear and front covers where the adhesive member is positioned.

An insect trap is provided that is constructed of a precut sheet of foldable material. The sheet includes vent slots and adhesive layers over selected solid exterior areas. One or more base score lines extend across the mid-portion of the sheet to divide the sheet into first and second side walls. A flap score line extends across the upper sheet width to define a flap section and lateral score lines extend along the longitudinal extent of the sheet inward from the sheet opposing lateral edges, to define end wall parts. The trap is assembled by folding inwardly the end wall parts and rotating together the first and second side walls about the base score lines. The side walls are held together by rotating the flap section about the flap score line and securing it to corresponding upper portions of the adhesive layers.

A process and device to attract a multitude of terrestrial and aerial arthropods using a plurality of light wavelengths emitted from light emitting diodes (LEDs). The selected light wavelengths increase trap capture rates by taking advantage of the insect's physiological and behavior instincts associated with vision and sensory perception. The LED wavelengths (light color) are selected to mimic the electromagnetic spectra of natural features, such as sugar and blood meal resources within the target insect's environment. Lighting platforms containing a plurality of LEDs produce the mimicking colors and can be optimally arranged in either a cylindrical fashion or on polygonal lighting chips. These two types of lighting platforms can be modified to fit existing insect traps, used in new light trap designs, or incorporated into insect traps currently lacking a lighting component.

A safe, indoor trapping device for trapping and killing flying insects can be used in areas containing food, containing animals, for food preparation, etc. The device includes at least one removable trap body, a toxicant panel, and an insect collector.

The invention relates to an insect trap which has been designed to facilitate simple and efficient servicing, maintenance and cleaning. The trap includes a back housing; a frame swing mounted to said housing; and a cover comprising openings allowing insects to enter the trap and the frame supports at least one light such that said frame and lights can be moved from a first position where they overlie the back housing, to a second position where they lie clear of the back housing such that an insect catching means which may be fitted over the back housing is readily accessible for replacement during servicing. Additionally, the trap is adapted for ease of servicing and jet cleaning by the provision of shields each of which sealably protect, from water ingress, the plurality of lights at the positions where they connect to electrical fittings.

An insect-trapping apparatus attracts insects with different phototaxis characteristics through a light emitting element of different wavelengths disposed on an inner side of a base, and absorbs and converts the light energy of the light emitting element to electric energy through the solar plate disposed on an inner surface of the base. This electric energy is provided as an alternative electric supply for the light emitting element and the electric mesh on an outer surface of the base, thereby achieving the goal of recycled power use, energy conservation, and trapping and killing insects.