A cutting apparatus includes a cutting unit that cuts a workpiece included in a frame unit, an ultraviolet ray irradiation unit that irradiates the frame unit with ultraviolet rays, and a control unit. The control unit includes a processing mode registration section in which commands to be output to components. The processing mode registration section registers therein a command in a cutting apparatus mode that causes the cutting unit to cut the workpiece and a command in an ultraviolet ray irradiation apparatus mode that causes the ultraviolet ray irradiation unit to irradiate the frame unit with ultraviolet rays.

A tape film lamination apparatus may include a housing, a substrate holder disposed in the housing and positioned to receive a substrate, a film holder disposed on the housing and positioned to support a tape film, and an air removal unit connected to a portion of the housing below the film holder to remove and/or exhaust air from the housing resulting to attach the tape film to the substrate.

The wire saw device includes at least one wire, which is provided tightly to be capable of travelling in a direction crossing a workpiece to be cut, a workpiece holder, which is configured to hold the workpiece and to move the workpiece relative to the wire, slurry suppliers, which are configured to supply slurry to cut the workpiece from an upstream side in a travelling direction of the wire, and slurry collectors, which are configured to collect the slurry scattered due to contact with the workpiece. The slurry collector is configured to be movable in conjunction with the workpiece in the state where the slurry collector is disposed adjacent to the workpiece and also configured to be retractable with respect to the workpiece to be prevented from contacting the wire.

A wire sawing apparatus of one embodiment comprises: a wire for cutting an ingot; an ingot conveyor unit for conveying the ingot to the wire; a nozzle for supplying slurry to the wire; and a dispersed slurry blocking unit disposed above the ingot sawed by the wire, so as to absorb at least a part of the slurry dispersed from the lateral sides of the ingot cut by the wire.

A method for exposing a buried defect, the method may include illuminating, by a radiation source, an object that comprises the buried defect, with illuminating radiation that passes through radiation transparent part of a chuck, while the object is supported by the chuck; detecting, by a sensor, a detected radiation that passed through the object, to provide a visual indication about the buried defect, wherein the visual indication is indicative of a location of the buried defect; setting, based on the location of the buried object and a spatial relationship between a cleaving element and the sensor, a cleaving axis of a cleaving element to virtually cross the buried defect; and cleaving, by the cleaving element, the object to expose the buried object.

Method for slicing a workpiece, including measuring a crystal axis orientation while holding a workpiece with a workpiece holder, setting the workpiece holder to a wire saw in such a manner that the measured crystal axis orientation is maintained, then adjusting a sliced plane orientation, pressing the workpiece against a wire row to slice the workpiece; the workpiece holder includes a portion slidable while holding the workpiece and a portion for fixing the slide portion, after measuring the crystal axis orientation, sliding the slide portion to move to the workpiece holder center in a manner that the measured crystal axis orientation is maintained, fixing the slide portion, setting the workpiece holder to the wire saw, then adjusting the sliced plane orientation, and slicing the workpiece. This enables an orientation measurement without limitation of distance between an orientation measuring instrument and plane to be measured can inhibit warpage deterioration and workpiece breakage.

A chuck table correction method includes the step of: positioning a lower end of a cutting blade, relative to a chuck table, at a predetermined height for cutting into a holding surface; and relatively moving the chuck table and a cutting unit in a processing feeding direction, to cut the holding surface side of the chuck table, thereby forming the chuck table with a corrected surface that functions as a new holding surface.

According to the present invention, there is provided an ingot clamp including: a clamp body configured to have a holder mounting groove and a cavity; a fixing part configured to support and fix one side of an ingot holder inserted in the holder mounting groove; a movable fixing part disposed in the cavity and the holder mounting groove and configured to press and fix the other side of the ingot holder; a cover assembly coupled with the clamp body and configured to cover the cavity; and an air supply part coupled with the cover assembly and configured to supply air into the cavity.

A method for fixing a material block to a machining device for mechanically machining the material block, in particular to a wire saw for cutting the material block into individual wafers. In the method, the material block is adhesively bonded to an expendable workpiece carrier, and the workpiece carrier is connected to the machining device. For this purpose, the expendable workpiece carrier is provided on at least one surface with an already pre-applied layer of an adhesive that can be activated only by an external influence. The material block is then adhesively bonded to the workpiece carrier by corresponding activation of the adhesive. The method dispenses with complex steps for mixing and applying a two-component adhesive before performing machining as well as with the industrial robots used until now for this purpose. The method therefore saves time and costs in the machining process, in particular in the production of wafers.

A method for fabricating MAS NMR rotors and drive caps made of diamond to increase the maximum achievable spinning frequency and enhance MAS NMR sensitivity and resolution. Diamond is an excellent choice for making MAS NMR rotors due to its high tensile and flexural strength, however, micromachining diamond is difficult due to its hardness. Although laser cutting is often employed to cut diamond sheets, this process cannot be used to create the high aspect ratio and small features required for MAS NMR rotors. In the present invention, a laser micromachining process is used to create the desired high aspect ratio while maintaining the small lateral features. In this process, the laser is used to first convert the diamond into graphite followed by a conversion to carbon dioxide in the presence of oxygen. To create a rotor, a rectangular log has a center hole drilled by the laser, and is then micromachined into a hollow cylinder.