The present invention relates to a machine for cutting decorations for frustoconical bodies, for cutting printed strips wherein arch-shaped decorations and disposable trapezoidal portions are alternated. The machine comprises two longitudinal supports mounted on clamping pieces and carriers of respective groups of counter blades; and two independent groups of blades attached to the respective groups of counter blades and defining a gap between them of increasing width towards a lower gravity outlet opening of the trapezoidal portions separated by cutting. The blades of each group are fixed to respective drive shafts mounted in holes in the longitudinal supports and fixed to a common plate driven by a cylinder. The clamping parts of the longitudinal supports and the common plate are exchangeable for others that provide different inclinations and separations of the groups of blades and counter blades.

This invention is a mechanical harvesting device which uses a novel approach to cut stems on agricultural products such as apples. The device is comprised of a system including levers and a unique cutting blade profile which allows for directional transfer of force from the wrists and forearms to effectuate cutting. The device is designed so that the cutting of stems on agricultural products can be performed separately and autonomously by both arms, thus offering improvements in efficiency and safety over other harvesting practices where the cutting is performed using both hands together. Current improvements include revisions to the product interface and safety guide as well as new versions of the device, employing many of the same design elements but having as the main difference a powered motor to actuate the cutting sequence in place of levers. Future improvements include options for data generation using electronic signal processing to tabulate periodic count totals on harvested product. Such data would help growers and marketers gather valuable information about crop sizing and labor efficiency.

A cutter for cutting a linear element includes a support frame, a pair of blade holders disposed opposite to each other and movably disposed on the support frame, a pair of blades facing each other and each disposed on one of the pair of blade holders, a pair of holding blocks facing each other and each disposed on one of the pair of blade holders, and a driving device disposed on the support frame. The driving device drives the pair of blade holders to move synchronously in a direction approaching each other or a direction separating away from each other. The pair of holding blocks clamp the linear element and the pair of blades cut off the linear element clamped by the pair of holding blocks while the pair of blade holders move synchronously in the direction approaching each other.

A pruning system includes a cutting head comprising upper and lower cutting rings positioned along a bottom portion of one or more tubes. At least one of the cutting rings is adapted to rotate in a circular motion, while the other cutting ring may be adapted to remain stationary. A vacuum may be applied to suction target plant material, and the cutting head may be lowered toward the target plant material. As adjacent blades from the upper and lower cutting rings are separated in an open position, plant material may be collected in the opening defined by the adjacent blades of the cutting rings. As the blades converge, the opening may close, and plant material collected in the opening may be severed from the plant. System variables, such as blade orientation, vacuum speed, blade rotation speed, barrel size, and the cutting mechanisms, may be adjusted to accommodate different types of plant material. The pruning system may be installed on a vehicle and used with a vision system to remove materials from plant beds in a field.

A printing device includes: a second blade; a first blade portion including a first blade and configured to cut print paper by moving from a standby position at which the first blade is away from the second blade, via an overlap start position at which the first blade starts overlapping the second blade on a side of the second blade in a first direction, to a cutting position; a first blade guide located in the first direction relative to the second blade and configured to guide movement of the first blade with the first blade between the first blade guide and the second blade when the first blade portion moves from the overlap start position to the cutting position; and a warping prevention portion configured to press the first blade in a second direction opposite to the first direction when the first blade portion moves from the overlap start position to the cutting position, to prevent the first blade from warping into a convex shape in the first direction or reduce such warping.

A thermal printer configured to perform printing on a linerless label including an adhesive surface formed on a back surface of the linerless label, the thermal printer comprising a cutter unit that includes: a fixed blade provided on the back surface side of the linerless label; and a movable blade configured to reciprocate between a first position at which the movable blade is opposed to the fixed blade through intermediation of the linerless label, and a second position at which at least a part of the movable blade overlaps the fixed blade and the movable blade forms a cut in the linerless label, wherein the movable blade includes: a first blade edge configured to form the cut in the linerless label; and a groove, which has an edge, and is formed in a sliding surface configured to slide on the fixed blade when the movable blade is at the second position, and wherein the edge includes: an adhesive blocking edge portion formed on the sliding surface along an advancing direction; and an adhesive scraping edge portion formed on the sliding surface so as to cross the advancing direction.

A slitter according to an embodiment of the present art includes: an upper knife disposed above the electrode plate to rotate, thereby cutting the electrode plate; and a lower knife disposed below the electrode plate to partially overlap the upper knife and rotate, thereby cutting the electrode plate together with the upper knife, wherein the upper knife includes: a first inner surface extending to be inclined from a tip formed at the lowermost end to the lower knife; and an outer circumferential surface extending to be inclined from the tip to an opposite side of the lower knife, wherein the first inner surface has an inclination at a first angle from a vertical line V that is perpendicular to a rotation axis that serves as a rotation center of the upper knife, and the outer circumferential surface has an inclination at a second angle from the vertical line.

In a preferred embodiment, the apparatus comprises: (1) a track with specifically designed conveyor blades for cutting; (2) a motor for conveying the conveyor blades over each other; (3) a tumble blade to gently move or tumble the flowers over the conveyor blade; and, (4) trimmed flower excavation chute for collecting trimmed buds.

Provided is a printer having a simple structure, which is low in cost, and capable of shortening of the cutting time, improving cutting accuracy of the printed paper and improving the quality of an output printed object. A printing mechanism performs printing on paper delivered from a roll of paper by a thermal transfer method and produce printed paper. The movable blade moves in the width direction, and cuts the printed paper. A control unit controls the movable blade drive unit based on the width and the thickness of the paper and the moving distance of the movable blade detected after it is detected that the movable blade is at the standby position, and causes the movable blade drive unit to generate a driving force that changes according to the width, the thickness, and a position of the movable blade in the width direction of the paper.

A cutting device includes a support base, a cutting blade, and a holding member. The cutting blade has first and second holes and a blade edge. The blade edge has a first convex portion and a second convex portion, provided at a position corresponding to the first and second holes, respectively. In a case where the cutting blade is arranged at a cutting position, a maximum value of a distance between the blade edge and the support base within a range between the first and second holes in a longitudinal direction of the cutting blade is smaller than a maximum value of a distance between the blade edge and the support base. The cutting blade is fixed to the holding member by a first hole coupling member, and the holding member holds the cutting blade so as to be movable to the cutting position and a spaced position.