A gutter punch is described herein including a base having a top side and a bottom side, a first side wall, a second side wall, wherein the first and second side walls are attached to the bottom side of the base and angle inwardly and downwardly from the base, a front wall, a back wall, wherein the front wall and the back wall are attached to the bottom side of the base and angle inwardly and downwardly from the base, a gutter punch, wherein the gutter punch is connected approximately in the center of each of the connecting plates and is substantially perpendicular to the connecting plates, and a handle connected to the top side of the base.

A gutter punch is described herein including a base having a top side and a bottom side, a first side wall, a second side wall, wherein the first and second side walls are attached to the bottom side of the base and angle inwardly and downwardly from the base, a front wall, a back wall, wherein the front wall and the back wall are attached to the bottom side of the base and angle inwardly and downwardly from the base, a gutter punch, wherein the gutter punch is connected approximately in the center of each of the connecting plates and is substantially perpendicular to the connecting plates, and a handle connected to the top side of the base.

A machine for machining, such as cutting and/or forming, planar workpieces has an upper tool and a lower tool that are movable toward each other to machine a workpiece arranged therebetween. The upper tool includes at least one cutting tool having at least one cutting edge and a clamping shaft. The lower tool includes a main body having a support surface for the workpiece. The support surface has an opening associated with an inner counter cutting edge. The lower tool has a positioning axis and at least one outer counter cutting edge provided outside of the opening and associated with the support surface. The outer counter cutting edge is aligned with an outer face of the support surface. A distance of the outer counter cutting edge from the position axis and a distance of the inner counter cutting edge from the position axis deviate from each other.

Methods and apparatus to shape a workpiece are disclosed herein. An exemplary apparatus includes a first die and a second die movable relative to the first die. The apparatus also includes a punch assembly movable relative to the second die and the first die during a stroke cycle of the second die to a position adjacent a workpiece disposed between the second die and the first die. The punch assembly includes a punch to be actuated to pierce the workpiece when the punch assembly is in the position adjacent the workpiece.

Methods and apparatus to shape a workpiece are disclosed herein. An exemplary apparatus includes a first die and a second die movable relative to the first die. The apparatus also includes a punch assembly movable relative to the second die and the first die during a stroke cycle of the second die to a position adjacent a workpiece disposed between the second die and the first die. The punch assembly includes a punch to be actuated to pierce the workpiece when the punch assembly is in the position adjacent the workpiece.

A method for manufacturing a separator that can effectively prevent warpage is provided. A method for manufacturing a separator according to an embodiment includes disposing a separator material 10 including a flow path forming region 11 between a first upper die 51 and a first lower die 50, and pressing the separator material 10 using the first upper die 51 and the first lower die 50 to thereby form a first recessed and projected shape 13 in the flow path forming region 11 and form a second recessed and projected shape 14 outside the flow path forming region 11.

A method for manufacturing a separator that can effectively prevent warpage is provided. A method for manufacturing a separator according to an embodiment includes disposing a separator material 10 including a flow path forming region 11 between a first upper die 51 and a first lower die 50, and pressing the separator material 10 using the first upper die 51 and the first lower die 50 to thereby form a first recessed and projected shape 13 in the flow path forming region 11 and form a second recessed and projected shape 14 outside the flow path forming region 11.

The invention relates to a chassis suspension component with a bracket made from a formable base material, preferably sheet steel, and comprising at least one slot for receiving a connecting bolt and at least one stop for an eccentric disc which is or can be connected rotationally fixedly to the connecting bolt. In order to be able to produce the eccentric stop process-reliably and economically without the risk of crack formation, the invention proposes to provide a tab formed from the base material and folded relative to a body portion of the suspension component and having a recess surrounding the slot, which recess defines two elongate stop faces running parallel to each other, wherein the stop faces serve as a stop for the eccentric disc. The invention also relates to a method for producing a chassis suspension component.

The invention relates to a chassis suspension component with a bracket made from a formable base material, preferably sheet steel, and comprising at least one slot for receiving a connecting bolt and at least one stop for an eccentric disc which is or can be connected rotationally fixedly to the connecting bolt. In order to be able to produce the eccentric stop process-reliably and economically without the risk of crack formation, the invention proposes to provide a tab formed from the base material and folded relative to a body portion of the suspension component and having a recess surrounding the slot, which recess defines two elongate stop faces running parallel to each other, wherein the stop faces serve as a stop for the eccentric disc. The invention also relates to a method for producing a chassis suspension component.

A method of manufacturing a joint flange using a thickness-increased, machined pipe is provided. The method includes a pipe cutting operation in which a pipe is cut to a predetermined length, a flange forming operation in which a flange having a mounting hole for installing the pipe is formed by die casting, a bump-forming operation in which a thickness-increased part, which is formed by increasing a thickness of one end of the pipe, is bumped to form a first bead locked to the flange, a machining operation in which a circumference of the thickness-increased part is machined to form a sealing groove having an O-ring installed, and a fixing operation in which the pipe is inserted in the mounting hole of the flange and the other end of the pipe is pressed to form a second bead so that the pipe is pressed to a lower end of the flange.