A lift device for lifting a glass sheet in a glass processing system includes a lift jet array having peripheral lift jet outlets and inner lift jet outlets disposed inwardly of the peripheral lift jet outlets. Furthermore, each lift jet outlet is operable to allow gas to flow toward the glass sheet. The lift device also includes a control unit for controlling operation of the lift jet outlets, and the control unit is configured to commence operation of at least one of the inner lift jet outlets prior to commencing operation of at least one of the peripheral lift jet outlets.

A vehicle glazing is described. The vehicle glazing has at least one windowpane having a height from 900 mm to 1650 mm, a top upper edge, a side edge of a pillar, a body edge, and two rectangular surfaces A and B. The surface A has an extent of 800 mm*800 mm and the surface B has an extent of 1000 mm*700 mm. Surface A and surface B are centrally bounded by the lowest contact point of the at least one windowpane with the body edge horizontally with respect to the ground, and the lowest contact point and the point of the top upper edge at the shortest distance from the contact point form a Y0 axis and the points at the furthest distance with respect to the width of the windowpane form a Z0 axis.

A device for bending panes is described. The device has a pre-bending ring, a movable bending ring holder, a final bending ring, a preheating region for preheating at least one pane, a pre-bending region for a further bending of the at least one pane, a heating region for a final bending of an edge of the at least one pane and for a surface pre-bending of the at least one pane, a second bending region for a further surface bending of the at least one pane and a cooling region.

A glass substrate transfer system and a robot arm thereof are provided. The robot arm includes: a substrate fork, a moving assembly and a vacuum chuck. The substrate fork is for taking a glass substrate. The moving assembly is connected with the substrate fork and for making the substrate fork to be moved in a working space. The vacuum chuck is disposed on the substrate fork and for sucking the glass substrate. The vacuum chuck is formed with a fluid path, and the fluid path is contained with a cooling fluid to dissipate heat of the vacuum chuck. The glass substrate transfer system and its robot arm provided by the present invention cool the vacuum chuck in time and thus can avoid affecting the product quality caused by the vacuum chuck being overheated, and the product yield is improved.

Disclosed is a clamping device at an edge of a substrate glass during molding based on an overflow technique and an operation method thereof. The clamping device comprises a primary clamping unit and a secondary edge drawing unit that are clamped on edges of two sides of a glass plate, respectively. The primary clamping unit is arranged above the secondary edge drawing unit and is closer to a guide plate than the secondary edge drawing unit. The operation method comprises during the molding of the glass plate, enabling clamping wheels of the primary clamping unit and wheels for cooling and edge drawing of the secondary edge drawing unit to clamp the edges of the two sides of the glass plate to make liquid glass at the edges merge and bond together to obtain a bonded glass plate; and introducing cooling air to cool edges of the bonded glass plate.

Disclosed is a clamping device at an edge of a substrate glass during molding based on an overflow technique and an operation method thereof. The clamping device comprises a primary clamping unit and a secondary edge drawing unit that are clamped on edges of two sides of a glass plate, respectively. The primary clamping unit is arranged above the secondary edge drawing unit and is closer to a guide plate than the secondary edge drawing unit. The operation method comprises during the molding of the glass plate, enabling clamping wheels of the primary clamping unit and wheels for cooling and edge drawing of the secondary edge drawing unit to clamp the edges of the two sides of the glass plate to make liquid glass at the edges merge and bond together to obtain a bonded glass plate; and introducing cooling air to cool edges of the bonded glass plate.

A glass processing apparatus and a glass processing method are provided. The glass processing apparatus includes: a glass transportation apparatus comprising a carrier comprising a gripper configured to grip glass articles, and a conveyor configured to convey the carrier, and a cleaning apparatus comprising a cleaning head configured to clean the gripper, which contact the glass articles, and a moving unit configured to move the cleaning head. The glass processing method includes: loading glass articles to a carrier having a gripper by picking up the glass articles with the gripper such that the gripper contact the glass articles, conveying the glass articles by conveying the carrier with a conveyor, unloading the glass articles from the carrier by causing the gripper to be detached from the glass articles, and cleaning the gripper.

A glass processing apparatus and a glass processing method are provided. The glass processing apparatus includes: a glass transportation apparatus comprising a carrier comprising a gripper configured to grip glass articles, and a conveyor configured to convey the carrier, and a cleaning apparatus comprising a cleaning head configured to clean the gripper, which contact the glass articles, and a moving unit configured to move the cleaning head. The glass processing method includes: loading glass articles to a carrier having a gripper by picking up the glass articles with the gripper such that the gripper contact the glass articles, conveying the glass articles by conveying the carrier with a conveyor, unloading the glass articles from the carrier by causing the gripper to be detached from the glass articles, and cleaning the gripper.

A manufacturing method for a glass film includes at least a cutting step of cutting a strip-shaped glass film while conveying the glass film in a predetermined direction by a conveying device. In the cutting step, the glass film is cut in predetermined cutting zones by irradiating the glass film with laser beams. A support conveyance surface of the conveying device for the glass film is separated at the cutting zones for the glass film. Further, a first surface plate capable of supporting the glass film in a contact manner is disposed at a position that is located in a width direction of the glass film with respect to the cutting zones and corresponds to a center of a glass film obtained by the cutting in the width direction.