Abstract: A composite member is manufactured by a manufacturing method including adding, on a surface of a base member composed of a first material, a second material different from the first material, using additive manufacturing employing directed energy deposition as an additive manufacturing process. The manufacturing method is performed by placing the base member in a machining area of a machine tool configured to perform subtractive machining. Accordingly, a composite member can be obtained that is manufactured through additive manufacturing and that is in a state in which the composite member can be promptly machined.

Abstract: A mold manufacturing method includes machining, based on a final outer shape of a mold, a workpiece including a plurality of separate blocks. The plurality of separate blocks are selected based on the outer shape, all or part of the plurality of separate blocks are provided with through holes for forming a flow path. The mold manufacturing method further includes adding a material to the workpiece through an additive manufacturing technology employing directed energy deposition as an additive manufacturing process, so as to form, on a surface of the machined workpiece, a continuous surface based on the outer shape.

Abstract: A mold manufacturing method includes machining, based on a final outer shape of a mold, a workpiece including a plurality of separate blocks. The plurality of separate blocks are selected based on the outer shape, all or part of the plurality of separate blocks are provided with through holes for forming a flow path. The mold manufacturing method further includes adding a material to the workpiece through an additive manufacturing technology employing directed energy deposition as an additive manufacturing process, so as to form, on a surface of the machined workpiece, a continuous surface based on the outer shape.

Abstract: A milling cutter is composed of a tool body having an approximately cylindrical or disk-like shape and a plurality of edge portions provided on at least an outer peripheral portion of one end of the tool body at predetermined intervals along a circumferential direction. The edge portion has a major cutting edge and a minor cutting edge that perform an operation of cutting a workpiece, the major cutting edge is positioned outside the minor cutting edge in a radial direction, and the minor cutting edge has a cutting edge angle that is an angle with respect to a plane orthogonal to a center axis of the tool body and set so as to be an elevation angle open outward in the radial direction. When surface machining is performed on a workpiece with the milling cutter, a high degree of machined surface accuracy equivalent to that obtained by grinding is obtained.

Abstract: A method, non-transitory computer-readable medium, and controller for manufacturing a predetermined object. The method includes machining a plurality of separate components of a work piece based on a final geometry of the predetermined object. The plurality of separate components is selected based on the final geometry of the predetermined object. A first material is added to the work piece such that a first single continuous surface is formed over, or together with, the machined surfaces of the plurality of separate components which is selected based on the final geometry of the predetermined object.

Abstract: A composite member is manufactured by a manufacturing method including adding, on a surface of a base member composed of a first material, a second material different from the first material, using additive manufacturing employing directed energy deposition as an additive manufacturing process. The manufacturing method is performed by placing the base member in a machining area of a machine tool configured to perform subtractive machining. Accordingly, a composite member can be obtained that is manufactured through additive manufacturing and that is in a state in which the composite member can be promptly machined.

Abstract: A method, non-transitory computer-readable medium, and controller for manufacturing a predetermined object. The method includes machining a plurality of separate components of a work piece based on a final geometry of the predetermined object. The plurality of separate components is selected based on the final geometry of the predetermined object. A first material is added to the work piece such that a first single continuous surface is formed over, or together with, the machined surfaces of the plurality of separate components which is selected based on the final geometry of the predetermined object.

Abstract: A milling cutter is composed of a tool body having an approximately cylindrical or disk-like shape and a plurality of edge portions provided on at least an outer peripheral portion of one end of the tool body at predetermined intervals along a circumferential direction. The edge portion has a major cutting edge and a minor cutting edge that perform an operation of cutting a workpiece, the major cutting edge is positioned outside the minor cutting edge in a radial direction, and the minor cutting edge has a cutting edge angle that is an angle with respect to a plane orthogonal to a center axis of the tool body and set so as to be an elevation angle open outward in the radial direction. When surface machining is performed on a workpiece with the milling cutter, a high degree of machined surface accuracy equivalent to that obtained by grinding is obtained.