A main object of the invention is to provide a sheet material separation-aiding apparatus that ensures that there can be a gap produced stably between a specific sheet material from a stack of sheet materials and a sheet material just below it, and that achieves size reductions, reduced energy consumptions and a decreased parts count. As shown in FIG. 4, the sheet material separation-aiding apparatus 1 comprises a rotating means 2 including an abutment portion 21 that is capable of coming in abutment on an end of the uppermost sheet material 101, a supporting means 3 that supports the rotating means 2 in a rotatable manner and is capable of moving in a vertical direction, a biasing means 4 that biases the supporting means 3 in a downward direction, and a lifting means 5 that lifts up an end 23 of the rotating means 2 in opposition to the abutment portion 21. As the end 23 is lifted up, it causes the rotating means 2 to rotate with the abutment portion 21 coming in abutment on the end of the sheet material 101, and as the end 23 is further lifted up, it causes the supporting means 3 and rotating means 2 to keep on going up while the rotating means 2 is kept from rotation by a counterforce that the abutment portion 21 receives from the sheet material 101.

A main object of the invention is to provide a sheet material separation-aiding apparatus that ensures that there can be a gap produced stably between a specific sheet material from a stack of sheet materials and a sheet material just below it, and that achieves size reductions, reduced energy consumptions and a decreased parts count. As shown in FIG. 4, the sheet material separation-aiding apparatus 1 comprises a rotating means 2 including an abutment portion 21 that is capable of coming in abutment on an end of the uppermost sheet material 101, a supporting means 3 that supports the rotating means 2 in a rotatable manner and is capable of moving in a vertical direction, a biasing means 4 that biases the supporting means 3 in a downward direction, and a lifting means 5 that lifts up an end 23 of the rotating means 2 in opposition to the abutment portion 21. As the end 23 is lifted up, it causes the rotating means 2 to rotate with the abutment portion 21 coming in abutment on the end of the sheet material 101, and as the end 23 is further lifted up, it causes the supporting means 3 and rotating means 2 to keep on going up while the rotating means 2 is kept from rotation by a counterforce that the abutment portion 21 receives from the sheet material 101.

A device for separating and gripping an outermost sheet of ferromagnetic material from a stack of ferromagnetic sheet material, comprising: a carrier structure with a mount for attaching the carrier as an end-of-arm-tool (EOAT) to a robotic arm arranged for moving and positioning the device into an operating position adjacent a side of a stack of ferromagnetic sheets and a remote position removed from the stack of ferromagnetic sheets; a magnetic fanning apparatus mounted at the carrier structure and having a switchable magnet and a pair of fanning pole shoes magnetisable by the magnet with opposite polarities, the fanning pole shoes located at the carrier such that when in the operating position of the device these face the side of stacked sheets and extend over the thickness of at least the outermost and an underlying sheet of the stack, whereby in an on state of the magnet magnetic fields of like polarity are induced by the fanning pole shoes in overlapping sections of edge regions of these sheets and repulsive forces are generated whereby the outermost sheet seeks to lift away from the underlying sheet by magnetic repulsion; and preferably but optionally a sheet gripping apparatus mounted at the carrier structure arranged for contacting a face of the outermost sheet and secure the sheet to the EOAT for retrieval thereof upon the device being displaced from its operative position away from the stack of sheets.

A device for separating and gripping an outermost sheet of ferromagnetic material from a stack of ferromagnetic sheet material, comprising: a carrier structure with a mount for attaching the carrier as an end-of-arm-tool (EOAT) to a robotic arm arranged for moving and positioning the device into an operating position adjacent a side of a stack of ferromagnetic sheets and a remote position removed from the stack of ferromagnetic sheets; a magnetic fanning apparatus mounted at the carrier structure and having a switchable magnet and a pair of fanning pole shoes magnetisable by the magnet with opposite polarities, the fanning pole shoes located at the carrier such that when in the operating position of the device these face the side of stacked sheets and extend over the thickness of at least the outermost and an underlying sheet of the stack, whereby in an on state of the magnet magnetic fields of like polarity are induced by the fanning pole shoes in overlapping sections of edge regions of these sheets and repulsive forces are generated whereby the outermost sheet seeks to lift away from the underlying sheet by magnetic repulsion; and preferably but optionally a sheet gripping apparatus mounted at the carrier structure arranged for contacting a face of the outermost sheet and secure the sheet to the EOAT for retrieval thereof upon the device being displaced from its operative position away from the stack of sheets.

A method for loading blanks from a stack of blanks to a head press of a stamping press line is provided. The method may include: providing a loading robot; providing one or more separating robots configured to separate one blank at the top of a stack of blanks from the underlying blanks; providing a stack of blanks and applying separating robots to at least one side of the stack; recognizing the position of the stack of blanks using the position of the separating robots; picking up the blank located at the top of the stack of blanks with the loading robot, using the recognized position of the stack; loading the blank to the head press of the stamping press line using the loading robot. Furthermore disclosed is a system for loading blanks to a head press of a stamping press line.

A method for loading blanks from a stack of blanks to a head press of a stamping press line is provided. The method may include: providing a loading robot; providing one or more separating robots configured to separate one blank at the top of a stack of blanks from the underlying blanks; providing a stack of blanks and applying separating robots to at least one side of the stack; recognizing the position of the stack of blanks using the position of the separating robots; picking up the blank located at the top of the stack of blanks with the loading robot, using the recognized position of the stack; loading the blank to the head press of the stamping press line using the loading robot. Furthermore disclosed is a system for loading blanks to a head press of a stamping press line.

An object of the invention is to provide a sheet materials separation-aiding apparatus capable of creating a gap between a specific sheet material and a sheet material coming into contact with the lower surface thereof even when the location precision of a stack of laminated sheet materials is low in the height direction of the stack of laminated sheet materials and in the direction orthogonal to the height direction.

An object of the invention is to provide a sheet materials separation-aiding apparatus capable of creating a gap between a specific sheet material and a sheet material coming into contact with the lower surface thereof even when the location precision of a stack of laminated sheet materials is low in the height direction of the stack of laminated sheet materials and in the direction orthogonal to the height direction.

A method and a machine tool for processing workpieces is described, comprising a workpiece movement device and a workpiece support that supports both a workpiece during a processing operation and a workpiece remainder produced from the workpiece during the processing operation, wherein the workpiece support comprises a first support portion and an additional support portion, wherein the first support portion comprises a loading-side support portion arranged in a loading region of the machine tool, wherein the additional support portion is arranged to move relative to the loading-side support portion between the loading region and an unloading region of the machine tool, wherein the unloading region is offset in a horizontal direction from the loading region, wherein the loading-side support portion is arranged to move in a vertical direction between a loading level and a bypass level located above or below the loading level.

A bending robot takes out a workpiece stored on a stacker while contacting its end face with a storage reference flat plane of the stacker, and then supplies it to a bending machine. The bending robot includes a main body movable parallel to the storage reference flat plane, an arm portion supported by the main body and capable of positioning above the stacker, and a distance sensor provided in the arm portion for measuring a distance to the workpiece stored on the stacker in a contactless manner. According to the bending robot, bending can be done with high efficiency.