A coated cutting tool for chip forming machining of metals includes a substrate having a surface coated with a chemical vapour deposition (CVD) coating. The substrate is coated with a coating having a layer of α-Al.sub.2O.sub.3, wherein the α-Al.sub.2O.sub.3 layer exhibits a texture coefficient TC(0 0 12)≥7.2 and wherein the ratio of I(0 0 12)/I(0 1 14)≥0.8. The coating further includes a MTCVD TiCN layer located between the substrate and the α-Al.sub.2O.sub.3 layer. The MTCVD TiCN layer exhibits a pole figure, as measured by EBSD, in a portion of the MTCVD TiCN layer parallel to the outer surface of the coating and less than 1 μm from the outer surface of the MTCVD TiCN, wherein a pole plot based on the data of the pole figure, with a bin size of 0.25° over a tilt angle range of 0°≤β≤45° from the normal of the outer surface of the coating shows a ratio of intensity within β≤15° tilt angle to the intensity within 0°≤β≤45° of ≥45%.

Embodiments are directed to a single piece radial transfer arm for use in a clinical analyzer in an in vitro diagnostics (IVD) environment. The transfer arm is comprised of a chassis or elongated, rigid member that provides structural and aesthetic properties, acting as both a mounting base and a cover for transfer arm components. The elongated, rigid member is a single component, such as a single piece of injection-molded plastic. The elongated, rigid member has a top surface, a bottom surface, sidewalls, a pivot end, and a component end. One or more access holes and/or internal component mounting locations are provided for mounting one or more components on the bottom surface. A plurality of radial configuration mounting locations are provided on the bottom surface to allow for multiple radial distances between a pivoting axis of the transfer arm and an attached probe to accommodate arcs of different radii.

A food slicer assembly includes a housing defining a first opening and a second opening perpendicularly arranged. A slicing blade received at the second opening enters the first opening of the housing. A coupling releasably couples a food product or a food product packaging to the housing. The first opening receives a food product therethrough, the second opening receives the slicing blade therethrough, and the slicing blade slices the food product arranged in the first opening such that the food product is divided into multiple portions using the food slicer assembly. The slicing blade may pass into the first opening from a first end, and upon reaching the second end, the slicing blade seals the food slicer assembly at the first opening. The assembly may be a cheese slicer assembly for slicing a block of cheese so that a slice of cheese can be removed from the first opening.

A blade assembly includes a blade support frame, and a plurality of V-shaped blades removably fastened to the blade support frame. The blade support frame has a food flow path extending downstream, and a plurality of blade mounts distributed around the food flow path. Each V-shaped blade has a first end portion connected to one of the blade mounts, a second end portion connected to another of the blade mounts, and an intermediate portion extending from the first end portion to the second end portion into the food flow path. At the first and second end portions of each V-shaped blade, a respective one of the blade mounts overlies both the upstream edge and the downstream edge of the V-shaped blade to inhibit the V-shaped blade from rotating when impacted by food.

When manufacturing a plurality of strip members by cutting a belt-like member along a length direction thereof, the belt-like member having embedded therein a plurality of reinforcement cords arranged parallel to each other, and a weft thread that intersects the reinforcement cords, a captured image showing images of at least the reinforcement cords in a cross section of one end of the belt-like member in the length direction is used to detect the position of the image of each of the reinforcement cords (RC). The number of the actual reinforcement cord (RC) to which each of the images of the reinforcement cords (RC) corresponds is determined on the basis of an interval between the images of the detected adjacent reinforcement cords (RC) in the image and an average cord interval, and a cutting position (Xa) is set.

The present invention is a cast iron pipe cutter. The cast iron pipe cutter includes a movable upper cutting tool and a rigid lower cutting tool. The upper cutting tool and lower cutting tool includes multiple cutting disc spaced an arc length apart. As the upper cutting tool is advanced downward by a hydraulic press, the cutting discs apply increasing pressure to the outer surface of a cast iron pipe until each cutting discs in the upper cutting tool and the lower cutting tool creates a fracture in the cast iron pipe. The multiple fractures created by the cutting discs amalgamate into a single fracture and the cast iron pipe is cut almost instantaneously.

A telescopic compression device (10) for flat bed die-cutting, stripping and part separating machines is provided, comprising a socket (12), at least one guide element (14, 15) which is slidably guided in the socket (12) and an elastic bias means (34) which biases the at least one guide element (14, 15) towards a furthest extended position and an elastic security element (44) which has an inherent stiffness and secures the at least one guide element (14, 15) to the socket (12). Furthermore, an exchange tool (2) of flat bed die-cutting machines, flat bed stripping machines or part separating machines is provided.

A slicer blade guide with insert preferably includes a base guide plate, an upper guide plate, at least one blade insert and a pair end caps. The base guide plate preferably includes a base angled blade surface, a base insert slot and a bottom chamfered surface. The base angled blade surface extends upward from a top surface of the base guide plate. A bottom of the at least one blade insert is retained in the base insert slot and axially retained with the pair end caps. The upper guide plate preferably includes an upper angled blade surface and an upper insert slot. The upper angled blade surface extends upward from a bottom surface of the upper guide plate. A top of the at least one blade insert is retained in the upper insert slot. The upper guide plate is secured to the base guide plate with a plurality of fasteners.

A device, method, and computer readable medium are provided for transitioning risk analysis. The method includes providing a first risk assessment, and providing a second risk analysis program that generates risk assessments based on a transformation model configured to convert risk based on (1) a first reference rate, and (2) one or more risk functions for one or more first instruments, into risk based on a second reference rate. The method includes generating a second risk assessment with the second risk analysis program, based on the first risk assessment and one or more target instruments that incorporate risk based on the second reference rate, the one or more target instruments being associated with a product or service.

A food slicing system is provided comprising: a cutting surface extending between first and second ends. A slicing element is provided having a first end pivotably coupled to the cutting surface adjacent to the first end of the cutting surface. A pivot arm includes a first end pivotably coupled to the cutting surface adjacent to the first end of the cutting surface, wherein both the pivot arm and the slicing element have respective lengths extending toward a second end of the cutting surface. A tensioner device couples a second end of the slicing element to a second end of the pivot arm, wherein the tensioner device is configured to allow for adjustment of an amount of tension applied to the slicing element.