A cutting apparatus and a cutting device are disclosed including a modular insert arranged at least partially in a housing cavity, in which the modular insert includes a cutting element for performing a vertical or oblique cut and an abutting block which is interchangeable and couplable with the cutting element to fix a total dimension of the modular insert, in which an abutting face of the abutting block abuts on a back wall of the housing cavity so that a rear end of the cutting element is spaced away from the back wall. An assembly method is disclosed for assembling the aforesaid device including the steps of providing a plurality of interchangeable abutting blocks and of choosing an abutting block between the plurality of interchangeable abutting blocks on the basis of a desired total dimension of the modular insert.

The utility model discloses a cutting assembly for a vegetable cutter and a hand-held electric vegetable cutter, which falls within the field of vegetable cutting appliances. The cutting assembly for a vegetable cutter of the utility model comprises a cup body and a cutting disc, wherein the cutting disc is axially mounted in a cutter disc mounting cavity by an upper end of the cup body, the outer periphery of the cutting disc is supported on a limiting step, and a rotation connecting portion is provided at the center of the cutting disc so that the cutting disc can axially rotate in the cup body. In the cutting assembly for a vegetable cutter and the hand-held electric vegetable cutter of the utility model, the cutting disc thereof is supported in the cup body via the limiting step, and is axially and rotatably matched with the cup body, so that the cutting disc rotates smoothly and reliably in the cup body, and the assembly and disassembly thereof are simple and convenient, and the cleaning of the cutting disc and the cup body is easy, which effectively solves the problem that the existing cutter disc type cutting assembly tends to harbor dirt and scale. In addition, the necking structure is adopted in the discharging port of the cup body, so that the chopped food ingredients can be gathered towards the middle, facilitating the centralized discharge of food ingredients after being chopped, and effectively solving the problem of food ingredients splashing.

A cutter is provided for cutting through obstructions disposed in the interior of pipes ranging in size from approximately 8″ to approximately 15″ in diameter or from approximately 12″ to approximately 24″ in diameter. The cutter has been reduced in size relative to known root cutters to be capable of being used with smaller-diameter pipes, but is sufficiently powerful to cut through obstructions, such as mineral deposits, for example, that known flexible cutters capable of being used with these smaller-diameter pipes are incapable of cutting through.

An annular grindstone includes a grindstone portion including a binding material, and abrasive grains which are dispersed into the binding material to be fixed, in which the binding material contains a nickel-iron alloy. Preferably, a contained ratio of iron in the nickel-iron alloy is in a range of 5 wt % or more to less than 60 wt %. More preferably, a contained ratio of iron in the nickel-iron alloy is in a range of 20 wt % or more to 50 wt % or less. Preferably, the annular grindstone includes the grindstone portion only. In addition, the annular grindstone further includes an annular base including a grip portion, in which the grindstone portion is exposed at an outer peripheral edge of the annular base.

A tension knife includes an elongate knife body with a thin, flat profile. The tension knife defines first and second mounting points at opposing ends of the knife body. The knife body has a characteristic width across a length of the knife body between the first and second mounting points. The characteristic width of the knife body defines a centerline between a leading edge of the knife body and a trailing edge of the knife body. One or more of the first and second mounting points has a focus between the centerline of the knife body and the leading edge. A frame can be configured to support and tension the tension knife to form a tension knife assembly. Clamp blocks can be used to mount the tension knife to the frame at the first and second mounting points, where one or more of the clamp blocks is configured to rotate with respect to the frame to tension the leading edge of the tension knife.

An LCD screen polarizer cutting device includes a cutting unit and a shoveling unit mounted on a control carrier. The cutting unit includes a first and a second cutter arrayed side by side with a space formed between them. The shoveling unit is located behind the cutting unit and includes a first and a second shovel blade. The second shovel blade is located behind the first shovel blade and has a flat end section. Both of the first and the second shovel blade are located corresponding to the space between the first and the second cutter. The cutting unit cuts the LCD screen polarizer and, the shoveling unit shovels up a waste polarizer strip and a glue layer produced after the cutting. By pre-forming a cut groove on the LCD screen polarizer, the LCD screen can be easily cut subsequently to ensure good cutting flatness and upgraded production yield.

Provided is a cutting implement which is easily ground or which needs no grinding and is safe. The cutting implement is a cutting implement including an acting portion 3 that cuts an object to be cut, the cutting implement configured such that the acting portion 3 includes a main body portion 4 and a small thickness portion 5 whose thickness is smaller than the thickness of the main body portion 4 and the small thickness portion 5 has a width of 2.5 to 20 mm and a thickness of 0.1 to 0.5 mm.

A knife is provided for a cutting device for cutting continuous rods in a manufacturing process, the knife including: a knife body having a distal end and a proximal end opposite the distal end, the knife body configured to be attached to a cutting device; and a cutting edge located at the distal end of the knife body, the cutting edge including at least two cutting edge segments, each cutting edge segment including a profile, the profile including one maximum protrusion from the knife body, and at least a portion of a second cutting edge segment of the at least two cutting edge segments protruding, from the knife body, to a greater extent than the maximum protrusion of a first cutting edge segment of the at least two cutting edge segments, from the knife body. A cutting device, and a method of manufacturing a cutting device, are also provided.

A cutting device for cutting a pipe having a pipe wall includes an elongate carrier having a tool end which is engageable with a power tool, and a free end. The device includes a guide wheel located at the free end of the carrier, which is mounted thereon for rotation relative thereto, having a bearing surface extending parallel to a longitudinal axis of the carrier. The device also includes a cutting element having a peripheral cutting edge which is located adjacent to the guide wheel being positioned intermediate the guide wheel and the tool end. The cutting element is of greater transverse dimension than the guide wheel so that when the bearing surface bears against an internal surface of the pipe the distance between the cutting edge of the cutting element and the bearing surface enables the cutting element to cut through the pipe wall.

A cubic boron nitride (cBN)-based composite including about 30-65 vol. % cBN, about 15-45 vol. % titanium (Ti)-containing binders, about 2-20 vol. % zirconium dioxide (ZrO.sub.2), about 3-15 vol. % cobalt-tungsten-borides (Co.sub.xW.sub.yB.sub.z), and about 2-15 vol. % aluminum oxide (Al.sub.2O.sub.3).