Apparatus and associated methods relate to selectively inducing ingress and/or egress of live food creatures (FCs) relative to a reservoir using a controllable light source based on innate behavior(s) of the FCs. In an illustrative example, a feeder for dispensing live food to a carnivore may have a (partially) opaque chamber configured to receive FCs. A controlled light source may, for example, be selectively operable to illuminate at least part of the chamber. A carnivore interface may, for example, be in communication with the chamber via at least one dispensing aperture and be configured to present a dispensed FC to the carnivore. Operation of the controlled light source in a dispensing mode may induces motion of the FCs in the chamber towards the carnivore interface to be presented as food to the carnivore. Various embodiments may advantageously induce self-dispensing and/or self-retention of insects as food.

Apparatus and associated methods relate to selectively inducing ingress and/or egress of live food creatures (FCs) relative to a reservoir using a controllable light source based on innate behavior(s) of the FCs. In an illustrative example, a feeder for dispensing live food to a carnivore may have a (partially) opaque chamber configured to receive FCs. A controlled light source may, for example, be selectively operable to illuminate at least part of the chamber. A carnivore interface may, for example, be in communication with the chamber via at least one dispensing aperture and be configured to present a dispensed FC to the carnivore. Operation of the controlled light source in a dispensing mode may induces motion of the FCs in the chamber towards the carnivore interface to be presented as food to the carnivore. Various embodiments may advantageously induce self-dispensing and/or self-retention of insects as food.

The present application describes a pollinator species detection and monitoring device and system that utilizes specifically positioned and spaced receptacles for determining and conveying the numbers, health and movements of pollinator species ranging from real-time to intermittent transmittance of detected information for an area, region, areas or regions, singularly and in the aggregate. The detected information is collected and recorded via a pair of closely related sensors, residing at 180 degrees from one another, wherein pollinator species' entrance, exit, number, gender and activity are sensed, analyzed algorithmically and stored locally for eventual transmittance from a transmitting device to an external computer or mobile device for data observance, collection, storage and analysis. Detected information may be species specific or across a plurality of species.

The present application describes a pollinator species detection and monitoring device and system that utilizes specifically positioned and spaced receptacles for determining and conveying the numbers, health and movements of pollinator species ranging from real-time to intermittent transmittance of detected information for an area, region, areas or regions, singularly and in the aggregate. The detected information is collected and recorded via a pair of closely related sensors, residing at 180 degrees from one another, wherein pollinator species' entrance, exit, number, gender and activity are sensed, analyzed algorithmically and stored locally for eventual transmittance from a transmitting device to an external computer or mobile device for data observance, collection, storage and analysis. Detected information may be species specific or across a plurality of species.

Disclosed herein is an insect trapping device comprising an inner passageway structure defining an inner passageway which, when in an upright orientation, extends from an insect entry zone to an insect delivery zone, the inner passageway structure bordered by at least a pair of opposed insect-facing traction-reducing boundary surface regions to cause an insect to progress toward the insect delivery zone under gravity, with each boundary surface region including at least one of at least a pair of electrode surface regions, wherein each electrode surface region is configured for operative coupling with an electrode power supply to deliver electrical power thereto, the electrode surface regions configured to form an electrocution zone therebetween, with a designated spacing which is configured to initiate electrocution of an instance of the insect descending through the electrocution zone.

An Air-Water-Food-Fabric-Space-Utility sanitizer (all in one) comprises a detachable blower chamber, a detachable UVC lamp holder, a detachable UVC lamp chamber, a detachable water chamber and a detachable lid. Said invention transforms to an air purifier, a chamber-style sanitizer, or a stand-style sanitizer when one or more chambers are detached. Germicidal lamps surround a target such as air, water, food (meats, plants), fabric (masks, towels), space, utility and soil to kill pests, parasites, insects and pathogenic spores. Said invention also develops seed germination. Water converts gas (MVOC) to liquid and arrests airborne contaminants. A blower drives them to water to enable the use of optimal dosage of UVC light. By either UVC-irradiating water or oxidizing water, pathogens are destroyed in the water chamber. Filters activate spore dispersal when disposed by burning. By not using potentially hazardous waste or an air outlet, pathogenic spores cannot reproduce or return to the environment.

An Air-Water-Food-Fabric-Space-Utility sanitizer (all in one) comprises a detachable blower chamber, a detachable UVC lamp holder, a detachable UVC lamp chamber, a detachable water chamber and a detachable lid. Said invention transforms to an air purifier, a chamber-style sanitizer, or a stand-style sanitizer when one or more chambers are detached. Germicidal lamps surround a target such as air, water, food (meats, plants), fabric (masks, towels), space, utility and soil to kill pests, parasites, insects and pathogenic spores. Said invention also develops seed germination. Water converts gas (MVOC) to liquid and arrests airborne contaminants. A blower drives them to water to enable the use of optimal dosage of UVC light. By either UVC-irradiating water or oxidizing water, pathogens are destroyed in the water chamber. Filters activate spore dispersal when disposed by burning. By not using potentially hazardous waste or an air outlet, pathogenic spores cannot reproduce or return to the environment.

Problems associated with the use of fluorescent tubes in insect traps are resolved by providing a replacement lamp array employing multiple sets of light emitting diodes that each emit light at different specific wavelengths and are positioned within a one or more translucent sleeves having a surface coated with an environmentally safe light diffusion material creating a pattern comprising areas of more intense light dominated by the light cast by a single LED separated by areas of less intense light.

An attracting element (14) attachable to a flying pest trap (10), the attracting element (14) comprising: a plurality of LEDs (42) arranged on a support section (41), wherein the support section (41) is configured to be detachably secured to a receiving section of the flying pest trap (10), the receiving section having higher thermal conductivity than the support section (41), so as to transfer heat generated by the LEDs (42) to the receiving section.

The present disclosure relates to the sensor based observation of arthropods in a region where plants grow. The subject matter of the present disclosure is a device, system, method and computer program product for the sensor based observation of arthropods, by means of a camera.