An insect trap including a base having an upper end defining a cavity for receiving a removable bait cup. A main housing defining a plurality of openings is matable to the base in an upright position. The main housing defines a mounting structure for supporting a hanger for supporting an uncoiled roll of flypaper within the main housing. A spacer centers an uncoiled roll of flypaper within the main housing. An upper cap free from openings allowing passage of any incident water through the upper cap is matable with the upper end of the main housing. The insect trap is capable of free-standing outdoor use, outside of any enclosure or overhanging structure, while resisting penetration of rain/precipitation into the main housing. The base, main housing, hanger and upper cap are matable to define a weather-resistant enclosure for suspending flypaper within the main housing above the internal cavity of the base.

An insect trap including a base having an upper end defining a cavity for receiving a removable bait cup. A main housing defining a plurality of openings is matable to the base in an upright position. The main housing defines a mounting structure for supporting a hanger for supporting an uncoiled roll of flypaper within the main housing. A spacer centers an uncoiled roll of flypaper within the main housing. An upper cap free from openings allowing passage of any incident water through the upper cap is matable with the upper end of the main housing. The insect trap is capable of free-standing outdoor use, outside of any enclosure or overhanging structure, while resisting penetration of rain/precipitation into the main housing. The base, main housing, hanger and upper cap are matable to define a weather-resistant enclosure for suspending flypaper within the main housing above the internal cavity of the base.

Disclosed are compositions and methods for eliminating acarids, such as dust mites. The methods include contacting a sheet impregnated with an acarid attracting composition with an object containing acarids. Acarids enter the sheet, which can then be removed to eliminate the acarids. Also disclosed are to acarid attracting compositions and products and kits for attracting, trapping and eliminating acarids.

Disclosed are compositions and methods for eliminating acarids, such as dust mites. The methods include contacting a sheet impregnated with an acarid attracting composition with an object containing acarids. Acarids enter the sheet, which can then be removed to eliminate the acarids. Also disclosed are to acarid attracting compositions and products and kits for attracting, trapping and eliminating acarids.

The present invention relates to a device (1) for trapping ecdysozoans, in particular insects and arachnids such as bedbugs, cockroaches, ants and spiders. In particular, the trap of the present invention comprises a sticky substance (7) on the interior surface of the roof (3) and/or of the walls (5b). The present invention also relates to methods to trap ecdysozoans.

The present invention relates to a device (1) for trapping ecdysozoans, in particular insects and arachnids such as bedbugs, cockroaches, ants and spiders. In particular, the trap of the present invention comprises a sticky substance (7) on the interior surface of the roof (3) and/or of the walls (5b). The present invention also relates to methods to trap ecdysozoans.

The present teachings relate to a computerimplemented method comprising: receiving, at a processing means, a crop data indicative of the type of a crop; receiving, at the processing means, a region data indicative of at least one harmful organism that may be present at or around the location of the crop; selecting from a database, using the processing means, a sensor arrangement suitable for selectively genotyping at least one relevant harmful organism; wherein the at least one relevant harmful organism is among the at least one harmful organism, and wherein the selection is performed in response to the crop data and the region data. The present teachings also relate to: an electronic device comprising a processing means configured to execute the method steps disclosed; and, a computer software product.

The present invention provides an electrified garbage container cover that destroys insects that may attempt to access, or escape from a garbage container. The electrified garbage container cover frame is configured to fit in the opening of a garbage container enclosing or sealing the interior of the garbage container with the lower edge of the electrified garbage container cover. The electrified garbage container cover frame supports a mesh frame portion between the upper and lower edges, which supports an electrified mesh. The electrified mesh is capable of electrifying insects destroying them upon contact. The electrified garbage container cover also has a fastening mechanism supported by the frame, which is configured to attach the electrified garbage container cover to a garbage container. The electrified garbage container cover also has a power source which is able to provide electricity to the electrified mesh, and is capable of being recharged.

The insect trap includes a trap portion and a base portion. The trap portion includes an enclosure with an adhesive surface, to adhere to an insect, and a first opening, where the adhesive surface is at least partially contained within the enclosure. The base portion includes a lighting element, to provide light to the trap portion, and a mounting portion, which may communicate with and receive power from a power source. The trap portion may removably engage the base portion and receive light from the base portion when engaged therewith. The base portion includes a snap protrusion and the trap portion includes a snap recess for receiving the snap protrusion, such that when the snap protrusion is received by the trap portion, the base portion and trap portion are engaged in a snap fit.

Systems and methods for providing a combined mosquito staging and dissection system are disclosed. The system can include a mosquito staging subsystem; a robotic pick-and-place station; and a dissection, extrusion, collection, and disposal subsystem. The subsystems can include one or more stations to provide orientation, decapitation, extrusion of salivary glands, and disposal of carcasses of the mosquitoes. The resident live sporozoites from the salivary glands can be used to produce Plasmodium SPZ-based vaccines.