Patent classifications
A01M5/00
GRASSHOPPER HARVESTING SYSTEM
A grasshopper harvesting system for collecting grasshoppers featuring a vehicle, a collection array, a transfer mechanism, and a storage container or shredder. The system can be attached to an existing vehicle such as a tractor, ATV, truck, or a GPS-controlled autonomous vehicle that can be programmed to collect grasshoppers according to a particular desired route of a particular field, to protect crops or for consumption purposes. Further, the system may feature a detachable bin that empties the grasshoppers when the bin is full. The system may collect grasshopper pests in organic fields, reduce locust swarm densities in breeding grounds, and harvest grasshoppers from rangeland. The grasshoppers may either be destroyed or processed as edible insects for food and feed.
System and method for locating and eliminating insects
Systems and methods are provided for locating an insect in a space and for indicating to a user the location of the insect and/or for eliminating the insect. The system includes a camera to obtain an image of the space and a processor to detect an object by comparing at least two images of the space and determine that the object is an insect based on a characteristic of the object in an image of the space. In some embodiments an independently mobile device may be controlled to eliminate the insect at the location of the insect in the space.
DEVICE AND METHOD FOR STORAGE TRANSPORTATION AND RELEASE OF FRAGILE INSECTS AND OTHER FRAGILE ITEMS
A fragile substance storage transportation and release device comprises a frame for inserting cartridges to hold the fragile substance; a propulsion unit for propelling the fragile substance out of successive cartridges, cartridge by cartridge; and an opening mechanism for opening each cartridge one by one in coordination with a propulsion mechanism. The device is useful for distribution of fragile insects such as mosquitoes and there is a mechanism for automatic collection of insects from pupae.
Mosquito destructor system
A moving assembly has a base with a base bottom, a side wall, a rectangular conduit formed in the base bottom, and a fan with a motor mounted on the base bottom, and a collector box for collecting mosquitos. The fan functions to create a vacuum for drawing in mosquitos. A killing assembly has an upper dish and a lower dish. The upper dish has electrically charged wires. A pool in the lower dish constitutes a container for standing water. Air tubes are laterally spaced and vertically oriented. The air tubes have upper ends disposed above the pool to draw in mosquitos entering the vicinity of the upper ends and lower ends received in the rectangular conduit.
Mosquito destructor system
A moving assembly has a base with a base bottom, a side wall, a rectangular conduit formed in the base bottom, and a fan with a motor mounted on the base bottom, and a collector box for collecting mosquitos. The fan functions to create a vacuum for drawing in mosquitos. A killing assembly has an upper dish and a lower dish. The upper dish has electrically charged wires. A pool in the lower dish constitutes a container for standing water. Air tubes are laterally spaced and vertically oriented. The air tubes have upper ends disposed above the pool to draw in mosquitos entering the vicinity of the upper ends and lower ends received in the rectangular conduit.
Mobile insect killing system
A base assembly has an upward plate, a downward plate, a side wall, a front, a back, and laterally spaced sides. A drive assembly has drive wheels which extend downwardly from the downward plate and has a caster wheel. The drive assembly also has proximity sensors. A vacuum assembly has a vacuum slit formed in the downward plate between the laterally spaced sides. A source of vacuum pulls a vacuum through the vacuum slit. A tower assembly attracts and kills insects while the base assembly and tower assembly are driven by the drive assembly and the vacuum assembly vacuums up insects.
Squirrel bungee apparatus
A squirrel bungee apparatus is shown. A first plate member is suspended from an overhead structure. A second plate member is pivotally secured to the first plate member whereby the first and second plate members may be moved between first and second positions. A torsion spring interconnects the first and second plate members and yieldably maintains the first and second plate members in their first position. An elongated flexible chain has its upper end secured to the second plate member and has a food item or the like at the lower end thereof. When a squirrel jumps onto the food item, the weight of the squirrel causes the first and second plate members to move from their first position to their second position thereby causing the food item and the squirrel to move downwardly and thence upwardly in a bungee fashion due to the action of the torsion spring.
LUMINAIRE DISEASE VECTOR ATTENUATOR AND SURVEILLANCE DEVICE
Provided is an insect monitoring device including a tube. An attractor is positioned at an entrance to the tube, and an imaging device is configured for producing data associated with a monitored insect, wherein the data being usable in machine learning.
LUMINAIRE DISEASE VECTOR ATTENUATOR AND SURVEILLANCE DEVICE
Provided is an insect monitoring device including a tube. An attractor is positioned at an entrance to the tube, and an imaging device is configured for producing data associated with a monitored insect, wherein the data being usable in machine learning.
Flexible Diffuse-Reflective Smart Chamber for Effective Target Dosing of Complex Plant Surfaces and Methods of Use Thereof
Flexible diffuse-reflective smart camber (FDRSC) devices are disclosed herein. The devices include UV-C lights sources and an irradiance chamber. The irradiance chamber is open on at least one end through which the plants to be treated are exposed to the UV-C irradiance. Further, the inner surfaces of the irradiance chamber are covered by or consist of a diffuse reflective material that passively intensifies and uniformly distributes the UV-C irradiance to penetrate plant canopies. Also described herein are autonomous vehicles for moving the FDRSC devices across fields of crops and other plants. which is controlled in real time by a dosing control system. Also described herein are methods of in-situ UV-C treatment of plants using the FDRSC devices.