A kit is described for the conversion of a blower into an atomizer. The kit includes: a tank (45) adapted to contain a liquid, a tubular body adapted to be fixed to the blower and provided with an inlet mouth and an outlet mouth, a diffuser device associated with the tubular body and provided with a liquid dispensing nozzle, a pressurization conduit which places in fluid communication an internal volume of the tubular body placed between the inlet mouth and the liquid dispensing nozzle with a top portion of the tank, and a dispensing conduit which places in fluid connection the dispensing nozzle of the diffuser device with a lower portion of the tank.

Various aspects of the present disclosure are directed toward apparatuses, systems, and methods that include an implantable medical device and a constraining mechanism configured to releasably constrain the implantable medical device in a delivery configuration. The apparatuses, systems, and methods may also include a lock line arranged through the constraining mechanism to tenable release of the constraining mechanism.

Plant treatment systems and methods are presented. The system comprising a plant treatment apparatus comprising: one or more treatment channels and at least one plant treatment device associated with said one or more treatment channels, said at least one plant treatment device being configured and operable to controllably generate a force field and apply the force field to at least a portion of a plant, said force field comprising at least one pulse, wherein each pulse has a fast rise time, certain duration and amplitude profile, thereby inducing a vibration pattern in the at least portion of the plant, said vibration pattern being characterized by a plurality of vibration frequencies above a predetermined value, to thereby apply treatment to said at least portion of the plant; a sensing system comprising one or more sensors configured and operable to provide sensing signals indicative of a condition of said at least portion of the plant and feedback signals indicative of said vibration pattern, said one or more sensors comprising an optical sensor configured and operable to provide the sensing signals and/or feedback signals indicative of image data of said at least portion of the plant. A control system is configured and operable for data communication with said plant treatment apparatus, to receive and process the sensing signals and/or feedback signals produced by the sensing system, the processing of the sensing signals and/or feedback signals comprising determining the condition of said at least portion of the plant and/or said vibration pattern and operating said at least one plant treatment device to apply and/or adjust said force field to thereby induce the vibration pattern corresponding to the treatment of said at least portion of the plant.

A device and method for cleaning flowers and buds of plants of leaves and plant matter and particulate is provided. The buds are cleaned within a rotating drum having openings in a circular sidewall which rotates adjacent jets emitting gas. Freezing of the plant material and concurrent impacts from ice crystals formed by emitting gas, cleans the buds and flowers of unwanted plant material and particulate.

Disclosed herein is a hydrolopper system comprising a herbicide reservoir and pump coupled using a supply line to a hydrolopper tool. Herbicide inside the herbicide reservoir is pumped through the supply line to a first spray head positioned at a distal end of the hydrolopper tool. The hydrolopper tool comprises a blade arm opposed to a landing arm extending from a from a first drive arm and a second drive arm. Closing of the drive arms causes consequent closure between a cutting jaws portion for cutting of vegetation. In some forms, the feedline travels through a cannula of a drive arm, whereas in other forms, the feedline is disposed on the outside of a drive arm. Herbicidal flow rate is controlled by a flow control valve.

A self-guided blossom picker uses a vision system to identify and locate blossoms or inflorescence growing on a plant. The device can be towed by a tractor or it can be self-propelled. Image data captured by the vision system is sent to an machine vision module, which interprets the data and identifies a location of blossom. A controller uses the location data to command a picker to the proper location. A cutter on the picker is actuated to remove the blossom.

Described are systems and methods for treating and/or helping prevent microbial infections on plants and trees by applying a treatment solution to cut areas of the plants or trees that have been exposed during a hedging or topping operation, or the like. The method can include providing a liquid application system including treatment liquid, wherein the liquid application system is integrated with at least one of a motorized hedging and/or topping vehicle, wherein the liquid application dispenses the treatment liquid at a controlled rate of flow from the one or more nozzles and the treatment liquid is applied directly and uniformly from the one or more nozzles on the second boom to the one or more cut areas at the controlled rate of flow.

An apparatus for the spraying of an area of interest (S) of a high-pressure working fluid (V) wherein the apparatus is susceptible to move relatively to the ground (S) along a direction of reciprocal advancement (d) and it comprises at least one tank (2) for the working fluid (V), at least one outlet nozzle (41) and a fluid connecting line (4) extending from the tank (2) towards the outlet nozzle (41). The apparatus further comprises supply means (5) of the working fluid (V) that include a high-pressure pump and at least one spraying device (10) placed along the fluid connecting line (4) the former (5) upstream with respect to the latter (10). Furthermore, the spraying device (10) comprises a support structure (11) that comprises a first plate (12), motor means (35) acting upon the first plate (12) to promote the eccentric rotation thereof around a first axis (Z) and at least one manifold (42) placed on the first plate (12) to move integrally therewith. In particular, the latter (42) comprises at least one outlet nozzle (41) oriented so as to spray a jet of working fluid (V) towards the ground (S). The first plate (12) is mounted movable with said support structure (11) so that upon the movement along the direction of reciprocal advancement (d) of the apparatus (1) and of the ground (S), the jet flowing from the outlet nozzle (41) hits the latter with helical path.

A plant propagation apparatus and associated methods are disclosed for automating and optimizing the process of cutting, scraping and applying rooting hormone to plant stems. In at least one embodiment, a housing provides an at least one substantially tubular-shaped receiver sized and configured for removably receiving a plant stem therewithin. An at least one blade is positioned within the housing and configured for cutting the plant stem at a desired angle. An at least one pump outlet is positioned within the at least one receiver and configured for selectively administering a volume of rooting hormone to the plant stem. An at least one abrasive surface is positioned within the at least one receiver and configured for scraping an outer surface of the plant stem, as the plant stem is removed from the receiver.

A device and method for cleaning flowers and buds of plants of leaves and plant matter and particulate is provided. The buds are cleaned within a rotating drum having openings in a circular sidewall which rotates adjacent jets emitting gas. Freezing of the plant material and concurrent impacts from ice crystals formed by emitting gas, cleans the buds and flowers of unwanted plant material and particulate.