Patent classifications
A01M13/003
OUTDOOR ROBOTIC DEVICE FOR ERADICATION OF TICKS
Disclosed herein are robotic devices which traverse a pre-defined coverage area in order to capture and eradicate ticks in the area. A vacuum mechanism provides a suction force for pulling ticks into the device through a frontal opening, after which the ticks are captured in a receptacle and crushed by at least one rotating arm. In certain embodiments, the devices include heat strips near the frontal opening of the device that mimic the human body temperature. Additionally, the device can include carbon dioxide emitters that pass carbon dioxide to the receptacle or through the frontal opening to increase attraction of ticks.
Outdoor robotic device for eradication of ticks
Disclosed herein are robotic devices which traverse a pre-defined coverage area in order to capture and eradicate ticks in the area. A vacuum mechanism provides a suction force for pulling ticks into the device through a frontal opening, after which the ticks are captured in a receptacle and crushed by at least one rotating arm. In certain embodiments, the devices include heat strips near the frontal opening of the device that mimic the human body temperature. Additionally, the device can include carbon dioxide emitters that pass carbon dioxide to the receptacle or through the frontal opening to increase attraction of ticks.
Heating chamber system and method for insect extermination
A heating chamber system for heat-treating items infested by insects, and methods for manufacturing and using same. The heating chamber system includes an enclosed heating chamber; a bottom portion defining a portion of the enclosed heating chamber and includes a floor skirt and a floor; a top portion defining a portion of the enclosed heating chamber and including a plurality of sidewalls and a roof; and a collapsible architecture configured to support the top portion.
Discriminatory insect sampling device and method for use
Present invention is a device and a method for collecting targeted insects or targeted insect communities on plants. It can be used to non-destructively collect insect communities from a single plant. Alternatively, it can be used to collect a targeted insect from a plant. Present invention consists of the following elements: a first hose; an extended air nozzle; a thumb lever push valve; a brass barb; a second hose; a knapsack; a pneumatic mini timer; a carbon dioxide flow regulator; a carbon dioxide tank; a bag; a drawstring; and a glass vial. The present invention can be used as follows: consulting a chart; setting carbon dioxide flow regulator; setting pneumatic mini timer; deploying a bag over a plant; cinching said bag; depressing thumb lever; shaking bag to relocate targeted insects from bag into the glass vial; detaching glass vial; and capping glass vial.
COMPOSITIONS, DEVICES AND METHODS FOR PLANT HEALTH AND PEST CONTROL USING VAPOR ACTIVITY
Devices and methods for the control of pests, including plant pests, using the vapors of a plant health, pesticidal and/or pest control composition are disclosed. Compositions, devices and methods for the selective control of plant or other pests while not harming one or more beneficial insects are also disclosed. In some embodiments, the pests are include bugs, fleas, lice, ticks, plant pathogenic insects, acari, or the like. In some embodiments, the pests are varroa mites and the beneficial insects are honey bees.
Animal euthanasia kit and method
A method and apparatus for a kit is provided for euthanizing animals. The kit makes use of an enclosure and a canister. The enclosure is configured to hold one or more animals. The canister holds the reactants that are combined to form the euthanizing agent and provides a mechanism for the reactants to be delivered to and mixed together in the enclosure. The canister is designed and configured to allow for the reactants to be added rapidly and nearly simultaneously into a chamber while preventing one or more animals held in the enclosure from direct contact with the reactants.
Circulation chamber and method of using same
A circulation chamber for a cargo container comprises a cargo container extension including a housing, a cargo container aperture, and an interior volume; the cargo container extension is structured and dimensioned to be attached to an opening of the cargo container, thereby placing the interior volume in fluid communication with an interior of the cargo container. The housing, cargo container aperture, and interior volume may be cooperatively structured and dimensioned to allow at least a portion of the cargo container to be disposed in sealing engagement with the cargo container aperture, and furthermore, allow, at least partially, a door of the cargo container to be open while the circulation chamber is attached to the cargo container.
Insect repellent fixture and method
A fixture (100) for gradually releasing a spatially effective semiochemical, for example a repellant. The fixture includes a slotted tube (140), that may be formed for example, from a porous material, a peripheral tube (102) having a plurality of apertures and disposed outward from the slotted tube, a base (110) that engages the slotted tube and the outer tube, a funnel member (160) that engages a top end of the slotted tube and the peripheral tube, and a cap (130). In an embodiment the base includes a lighting element (150).
Systems and methods for indoor plant cultivation, storage, and pest control
The present invention provides an effective pest control solution for indoor cannabis applications. The interior atmosphere is controlled to expose the live cannabis plants or post-harvest plant products to low oxygen levels (higher than 1% but lower than ambient air) and high carbon dioxide levels for one or more periods of less than 48 hours. This combination is effective to prevent or eliminate pests without harming the plants.
Psyllium Fumigated with Methyl Bromide
A method for fumigating psyllium husk. The method comprises filling a fumigation chamber with psyllium husk chamber is at least 35% filled with bags of psyllium husk, fumigating the psyllium husk with at least 40 g/m.sup.3 of methyl bromide for at least 24 hours, and degassing the chamber for at least 6 hours to form fumigated psyllium husk. The fumigated psyllium husk comprises less than 50 ppm inorganic bromide residue and the fumigated psyllium husk does not comprise an insect infestation or a khapra beetle infestation.