Shaft cutting machine that is able to cut short size shaft composes of machine structure of which its part supporting the installing of short size shaft feeding in part. This feeding in part could fit with short size shaft in horizontal. The shaft is to be sent to rail that support the moving of shaft. This supporting rail support the mechanical pushing of short size shaft located behind moving that compose of the structure of forth-back axis be able to moving in-out for push the shaft that need to cut out by blade the short shaft that is supplied.

Systems and methods for automated cutting of lumber are disclosed. The system includes a loading module that receives lumber from a loading area and places the lumber on a cutting table. The system includes an actuating module that receives the lumber from the loading module, inspects the lumber, records lumber information based on the inspection, and positions the lumber on the cutting table in preparation for cutting. The system includes a sensor module that detects the position of the lumber on the cutting table, and records the position to the lumber information. The system includes a computing module that analyzes the lumber information received from the actuating module and sensor module. The system includes a cutting module that cuts the lumber based the lumber information, the cutting resulting in cut lumber. The system includes an unloading module that places the cut lumber on an unloading area.

Systems and methods for automated cutting of lumber are disclosed. The system includes a loading module that receives lumber from a loading area and places the lumber on a cutting table. The system includes an actuating module that receives the lumber from the loading module, inspects the lumber, records lumber information based on the inspection, and positions the lumber on the cutting table in preparation for cutting. The system includes a sensor module that detects the position of the lumber on the cutting table, and records the position to the lumber information. The system includes a computing module that analyzes the lumber information received from the actuating module and sensor module. The system includes a cutting module that cuts the lumber based the lumber information, the cutting resulting in cut lumber. The system includes an unloading module that places the cut lumber on an unloading area.

A power cutting machine includes a main body including a motor, an arm connected to the main body at its base end and including a belt transmission mechanism configured to transmit drive power of the motor, and a working device connected to the head end of the arm and including a cutting blade configured to be rotated by power transmitted via the belt transmission mechanism. The arm includes a brake mechanism configured to apply a brake to a drive pulley of the belt transmission mechanism. The brake mechanism includes an indicator mechanism configured to allow a braking state to be visually recognized.

A portable adjustable conveyor for use with a power tool for cutting a work piece. The portable adjustable conveyor has a one piece frame formed from a base plate integrally connected to first and second guide plates. Each guide plate has first, second and third groups of vertically aligned alignment holes oriented on a diagonal configuration to each other and spaced centrally in each guide plate. A removable roller engages between pairs of vertically aligned alignment holes in a first, second or third group of offset holes. The portable conveyer enables the power tool to process a work piece and reposition the work piece in less than 90 seconds repeatedly using different pairs of longitudinally aligned alignment holes with the removable roller as well as reduce static in the work place and increase lumens to the workpieces, all simultaneously.

A portable adjustable conveyor for use with a power tool for cutting a work piece. The portable adjustable conveyor has a one piece frame formed from a base plate integrally connected to first and second guide plates. Each guide plate has first, second and third groups of vertically aligned alignment holes oriented on a diagonal configuration to each other and spaced centrally in each guide plate. A removable roller engages between pairs of vertically aligned alignment holes in a first, second or third group of offset holes. The portable conveyer enables the power tool to process a work piece and reposition the work piece in less than 90 seconds repeatedly using different pairs of longitudinally aligned alignment holes with the removable roller as well as reduce static in the work place and increase lumens to the workpieces, all simultaneously.

A system and a method process a first end and a second end of at least one rod-shaped workpiece. The system includes a conveying device for cross-conveying the at least one rod-shaped workpiece in a conveying direction, a first processing device and a second processing device. The first and the second processing devices each include a clamping device, a sawing device and at least one chamfering device, wherein, using the conveying device, the first end of the at least one rod-shaped workpiece can be supplied to the first processing device and the second end of the at least one rod-shaped workpiece can be supplied to the second processing device. The arrangement of the sawing device and the at least one chamfering device of each processing device has been chosen so as to achieve high efficiency in the system, making particularly cost-effective processing of rod-shaped workpieces possible.

A blade sharpening system may include a sharpening tool for sharpening a workpiece. The system may also include a sharpening fixture having a mounting surface for mounting a workpiece to be sharpened by the sharpening tool. The mounting surface may be disposed on a sled that is movable along a sharpening path that passes under a sharpening implement that may be mounted to a movable arm of the sharpening tool when the arm is in an engaged position. The movement of the sled may be coupled to the movement of the arm such that moving the arm from a disengaged position to the engaged position initiates the sled to move in a first direction along the sharpening path and moving the arm from the engaged position to the disengaged position initiates the sled to move along the sharpening path in a second direction.

A cutting apparatus, for cutting a material, comprising a chuck for holding and rotating material, wherein the chuck can rotate about an axis of rotation and can be movable along the axis of rotation. The cutting apparatus further comprises a cutting element for cutting a material, and a first plurality of rotating elements for supporting the material during cutting operations. The cutting element can be movable vertically for positioning the cutting element adjacent to the material to be cut, and the first plurality of rotating elements can be movable vertically to align with the material. A method for cutting a material comprises the steps of positioning the material on a plurality of rotating members, moving the plurality of rotating members vertically, gripping the material with the chuck, rotating the chuck to rotate the material, and cutting the material with a cutter.

A cut member processing device includes a marking device configured to put a mark on a cut surface of a cut member cut out from a metal long workpiece by a cutting device; and a product length acquisition unit configured to measure and store a product length of the cut member. The product length acquisition unit is configured to measure the product length under a state where the cut member is located at a position that allows the marking device to put the mark on the cut surface.