A machine for forming insulating panels from pieces includes a moving device with pieces thereon, where every other piece is upside down from a position that is desired and a flipping zone comprising a flipping machine. The flipping machine rotates the upside down pieces 180 degrees and releases the now right side up pieces for further processing.

The invention relates to a computer implemented method for generating instructions for an automated textile cutter, including receiving one or more orders from one or more customers, the one or more orders each specifying one or more textile products comprising one or more sub-designs; and generating cutting instructions for the automated textile cutter, wherein the cutting instructions are configured to secure that the automated textile cutter leaves a connecting textile portion between at least two cut out sub-designs, when cutting according to the cutting instructions.

A device (I) for moving a treatment head (JO) and a tray (20) in relation to a plane P., The tray (20) of any shape is inscribed within a rectangle of width A and length 0.8., and includes a first driver (21) suitable for cooperating with a first actuator (22) so as to move the tray (20) in translation within a plane that is parallel to said plane .P. in a movement zone (30) formed from at least two perpendicular edges associated with a reference frame, Q, y, in a direction that is normally parallel to one of said axes or y, the device. (I) The device includes at least: a mobile arm (11) of length R pivotably mounted on one of its ends about an axis £ that is perpendicular to said plane .P., set in motion by a second actuator.

A movable dust collection device includes a processing table, a processing machine, and a collection unit. By the movable suction box, the dust, small parts and debris under the processing gun can be directly sucked and collected. The control unit controls the motor to drive the driving wheels to move the suction box beyond the processing table, which facilitates the cleaning of the small parts and debris, and improves the shortcoming of lifting the entire collection board for cleaning in the prior art.

A cutting device includes a platen, a mounting portion, a movement mechanism, a processor, and a memory. The memory is configured to store computer-readable instructions that, when executed by the processor, instruct the processor to perform processes including acquiring a hardness-correspondence value corresponding to a hardness of a cutting object placed on the platen, acquiring cutting data for cutting a pattern from the cutting object, setting, based on the hardness-correspondence value, an offset amount used for a rotation correction to a greater value when the hardness of the cutting object is hard than when the hardness of the cutting object is soft, correcting, using the set offset amount, data, of the cutting data, corresponding to a direction change section, and performing cutting processing to cut the cutting object using a cutting blade, by controlling the movement mechanism in accordance with the corrected cutting data.

A laser plotter, a device and a method for cutting of a graphic is disclosed. The method may comprise preparation or loading of a processing job with a graphic and identification features at a display; application of the recognition features and of the graphic to the workpiece; arrangement of the workpiece in a processing area of a laser plotter; acquisition or detection of identification features in order to determine the position and alignment of the applied graphic in the processing area; carrying out the processing after successful identification of the graphic; after the insertion of the workpiece, a laser-pointer is positioned on any selected identification feature, whereupon, a processing image represented on a display element, with the identification feature, is moved at the display element in such a way that a laser position displayed at the display element coincides with the identification feature.

A cutting pen includes a cutting pen main body including a blade projecting from one end, a medium pressing member inserted into the cutting pen main body to be movable in a state in which a cap portion projects from the one end of the cutting pen main body, and a knock mechanism configured to change the position of the medium pressing member with respect to the cutting pen main body stepwise by causing the medium pressing member to repetitively reciprocally move with respect to the cutting pen main body.

The disclosure relates to a device for producing cut objects. A dye-sublimation thermal printer prints a printing pattern onto a printing substrate and outputs the latter. A cutting apparatus cuts the printing substrate along a cutting pattern, wherein the cutting apparatus comprises a cutting unit and a moving unit for moving the printing substrate during cutting. The dye-sublimation thermal printer is adapted to print the printing substrate in such a way that the outputted printing substrate has a printed area in which printing has occurred and a non-printed area in which printing has not occurred, wherein the printed area and the non-printed area are successively arranged and the dimension of the non-printed area in the arrangement direction is at least equal to a distance between the cutting unit and the first moving unit.

A cutting device includes a placement member on which an object to be cut is placed and a mounting portion to which a cutting blade is mounted. The cutting device detects, in the course of the mounting portion moving, a pressure correspondence value corresponding to a pressure applied to the mounting portion, and a movement amount of the mounting portion, decides a cutting pressure correspondence value that is the pressure correspondence value corresponding to a cutting pressure, on the basis of the pressure correspondence value and the movement amount after the cutting blade has come into contact with the object to be cut, and acquires cutting data. The cutting device further applies in accordance with the acquired cutting data, the cutting pressure corresponding to the decided cutting pressure correspondence value to the mounting portion, and cuts the object to be cut, using the cutting blade mounted to the mounting portion.

Proposed is an ultrasonic bread cutter, in which high-frequency electrical energy is converted into mechanical energy by an ultrasonic unit and bread is cut by ultrasonic vibration of a cutting knife. The ultrasonic bread cutter according to an embodiment includes the ultrasonic unit configured to convert high-frequency electrical energy into the mechanical energy; and the cutting knife configured to cut bread by transmitting the mechanical vibration of the mechanical energy to the bread while passing through the bread.