Provided is an apparatus for cutting a glass laminated substrate including a glass layer laminated on a substrate and having a first surface, which is a surface of the glass laminated substrate closer to the glass layer, and a second surface, which is a surface that is opposite the first surface. The apparatus includes a support configured to support the glass laminated substrate, a first cutter provided to cut the glass layer from the first surface of the glass laminated substrate, and a second cutter provided to cut the substrate from the first surface of the glass laminated substrate.

Provided is an apparatus for cutting a glass laminated substrate including a glass layer laminated on a substrate and having a first surface, which is a surface of the glass laminated substrate closer to the glass layer, and a second surface, which is a surface that is opposite the first surface. The apparatus includes a support configured to support the glass laminated substrate, a first cutter provided to cut the glass layer from the first surface of the glass laminated substrate, and a second cutter provided to cut the substrate from the first surface of the glass laminated substrate.

A glass-plate working apparatus 1 includes a cutting section 2 serving as a processing position for forming cut lines on a glass plate 5, a grinding section 3 serving as a processing position for grinding peripheral edges of the glass plate 5, a bend-breaking section 4 serving as a processing position between the cutting section 2 and the grinding section 3, and a glass-plate transporting section 6 for transporting the glass plates 5, and further includes a feed conveyor 7 disposed on the side of carrying in to the cutting section 2 and serving as a glass-plate carrying-in section, as well as a discharge conveyor 8 disposed on the side of carrying out from the grinding section 3 and serving as a glass-plate carrying-out section.

A glass-plate working apparatus 1 includes a cutting section 2 serving as a processing position for forming cut lines on a glass plate 5, a grinding section 3 serving as a processing position for grinding peripheral edges of the glass plate 5, a bend-breaking section 4 serving as a processing position between the cutting section 2 and the grinding section 3, and a glass-plate transporting section 6 for transporting the glass plates 5, and further includes a feed conveyor 7 disposed on the side of carrying in to the cutting section 2 and serving as a glass-plate carrying-in section, as well as a discharge conveyor 8 disposed on the side of carrying out from the grinding section 3 and serving as a glass-plate carrying-out section.

A method for separating and transporting a glass sheet from a glass ribbon includes drawing the glass ribbon along a draw path in a conveyance direction, scoring the glass ribbon with a scoring device, to produce a score line across at least a portion of a width of the glass ribbon, engaging a first edge of the glass ribbon at a first position downstream of the score line in the conveyance direction with a first robotic handling device, engaging a second edge of the glass ribbon at a second position downstream of the score line in the conveyance direction with a second robotic handling device, and synchronously moving the first robotic handling device and the second robotic handling device to bend the glass ribbon about the score line and separate the glass sheet from the glass ribbon.

A method for separating and transporting a glass sheet from a glass ribbon includes drawing the glass ribbon along a draw path in a conveyance direction, scoring the glass ribbon with a scoring device, to produce a score line across at least a portion of a width of the glass ribbon, engaging a first edge of the glass ribbon at a first position downstream of the score line in the conveyance direction with a first robotic handling device, engaging a second edge of the glass ribbon at a second position downstream of the score line in the conveyance direction with a second robotic handling device, and synchronously moving the first robotic handling device and the second robotic handling device to bend the glass ribbon about the score line and separate the glass sheet from the glass ribbon.

A substrate transporting apparatus including a carrier that is configured to support a substrate to be processed. A plurality of holes are disposed within the carrier, each hole extending from a first surface to a second surface of the carrier, the plurality of holes including at least a first hole and a second hole. A first bearing device is disposed in the first hole, the first bearing device including a first shaft, a first head, and an internal opening extending an entire length of the first shaft and the first head. The second hole is either (i) is an open hole without a bearing device disposed therein, or (ii) has a second bearing device disposed therein, the second bearing device including a second shaft and a second head without an internal opening disposed through the second shaft.

A glass laminate article includes an adhesive film attached to a base material, and a glass substrate layer attached to the adhesive film, wherein the glass substrate layer has a side surface that is inclined with respect to an upper surface thereof by an obtuse angle. According to the glass laminate article and a method of manufacturing the glass laminate article, the glass laminate article has an excellent appearance and safety and may be easily manufactured at a low cost.

Methods for singulating an optical waveguide material at a contour include directing a first laser beam onto a first side of the optical waveguide material to generate a first group of perforations in the optical waveguide material. A second laser beam is directed onto a second side of the optical waveguide material to generate a second group of perforations in the optical waveguide material. The second side is opposite the first side. The first group of perforations and the second group of perforations define a perforation zone at the contour. A third laser beam is directed at the perforation zone to singulate the optical waveguide material at the perforation zone.

A method is provided that includes providing a glass sheet of a thickness of at most 300 μm and irradiating the glass sheet with a pulsed laser beam. The laser beam has a light intensity inside the glass sheet leaves a filamentary damage along its path through the glass sheet. The laser beam and the glass sheet are moved relative to each other so that due to the pulses of the laser beam filamentary damages are inserted next to one another along a path running on the glass sheet. During the insertion of the filamentary damages, a tensile stress is applied on the glass at the filamentary damages and in the direction transverse to the path of the adjacent filamentary damages so that the glass sheet separates along the path during insertion of the filamentary damages.