This disclosure includes an end effector for harvesting fruit. The end effector has a housing and a plurality of tangs extending from an end of the housing. The end effector further has an oscillator device secured to the housing and the oscillator device in an oscillating relationship with the plurality of tangs.

This disclosure includes an end effector for harvesting fruit. The end effector includes a collection device that has an opening with a plurality of prongs over the opening. The end effector also has an oscillating device secured to, and in an oscillating relationship with, the plurality of prongs.

A harvester having a frame, an agitating system and a product gathering system. The frame has a central portion configured to receive and pass plants therethrough. The agitating system is positioned within the central portion that has a first side agitating assembly further comprising an axle with an axis of rotation and a plural of axial wands extending axially outwardly therefrom in a spaced apart configuration. The axle has a first end which is both above and outboard of the second end and the axle is angled relative to a vertical plane bisecting the frame body from front to back thereof. The axial wands can be agitated. The product gathering system includes an outer guide wall positioned below the rotary agitator assembly. The outer guide wall is angled relative to a vertical plane bisecting the frame body from front to back thereof.

A walking power control system for wolfberry picking, including a frame, a turntable, rotating rods, first gears, second gear, gear racks, supporting rods, hydraulic motors, a front traveling wheel, a left traveling wheel and a right traveling wheel. Hydraulic motors rotate to drives three traveling wheels to rotate, thereby driving the frame to move, when it is necessary to turn, a turntable is rotated, the turntable rotates to drive two first gears to rotate, and the two first gears rotate to drive the supporting rods to rotate, thereby driving the left traveling wheel and the right traveling wheel to rotate, so that the traveling direction of the frame is changed.

Disclosed is a portable telescopic push-pull vibrating-shaking type Camellia oleifera fruit picking and beating machine. The machine includes a picking and beating head, a gear shifting mechanism, a power transmission and picking and beating rod, a direct current motor, a control system, a handheld grip, and a lithium battery. A battery supplies power to enable the direct current motor to rotate, the direct current motor drives a worm and worm wheel mechanism in the gear shifting mechanism to rotate through a power transmission rod, the worm and worm wheel mechanism drives the picking and beating head to achieve reciprocating push-pull motion, such that the picking and beating rod can pull a branch to generate push-pull and vibration to pick Camellia oleifera fruit down. The picking and beating head is provided with a force sensor capable of monitoring picking and beating strength at any time.

A method to adjust an opening between a plurality of shakers of a machine formed as a fruit harvester, starting with aligning and centralizing the machine with a crop row to be harvested, includes the steps of: identifying and defining a configuration of a plurality of trees to be harvested; measuring a width of the plurality of trees to be harvested; setting a value for a desired damage level; calculating an opening factor based on the desired damage level defined in the step of setting; determining a distance X from the opening between the plurality of shakers, based on a value obtained for the opening factor in relation to the width of the plurality of trees to be harvested; and adjusting the opening between the plurality of shakers according to the distance X determined in the step of determining.

A plant detection device is provided that includes a robotic arm having gripping element that includes first and second curved grippers with opposing concave surfaces that move between an open and closed states, and the arm moves and vibrates the gripping element, a proximity force sensor that is disposed on the gripper and outputs a measurement signal of a force between the gripping element and an outgrowth from a stem of a plant under test to a computer, a force and frequency sensor that is orthogonal to the proximity force sensor outputs a gripping force measurement and a frequency response measurement of the stem of the plant under test to the computer, where the computer moves the gripping and vibrating arm according to the sensor signal outputs.

A harvesting device for harvesting fruit hanging from a plant, includes a frame which is displaceable in a transport direction and carries a loop-like conveyor track which can be driven in circular manner, and at least one harvesting bin connected to the conveyor track. The conveyor track lies in a plane which is substantially parallel to the transport direction and which lies at a first acute angle to the horizon in a direction transversely of the transport direction during normal use of the harvesting device. A method for harvesting fruit hanging from a plant, wherein the harvesting device is used.

A self-propelled tree fruit picking machine, of the type which includes a vibrator device which acts on the trunk of a tree detected by a probe device. The picking machine includes two side frames joined by a transverse gantries device, equipped with transporting devices to move the fruit towards peeling devices, and from these towards hoppers. Each gantry includes four successively articulated segments with anchoring devices between adjacent segments, which are extractable to fold the machine by closing together both side frames via the action of cylinders to a minimum width. The machine is further equipped with a control cabin which can be moved inwards to the position of minimum width, and with the transport wheels connected to suspension devices adjustable in height via cylinders.

A harvester having a frame, an agitating system and a product gathering system. The frame has a central portion configured to receive and pass plants therethrough. The agitating system is positioned within the central portion that has a first side agitating assembly further comprising an axle with an axis of rotation and a plural of axial wands extending axially outwardly therefrom in a spaced apart configuration. The axle has a first end which is both above and outboard of the second end and the axle is angled relative to a vertical plane bisecting the frame body from front to back thereof. The axial wands can be agitated. The product gathering system includes an outer guide wall positioned below the rotary agitator assembly. The outer guide wall is angled relative to a vertical plane bisecting the frame body from front to back thereof.