Abstract: An angle adjusting device includes a pedestal, a pair of guide members having an arcuate track, an oscillation body moved along the track of the guide members, and a moving member for moving the oscillation body to adjust the angular position of the oscillation body around an oscillation axis. The moving member has a motor provided in the pedestal, a linkage shaft provided in the oscillation body, and a linkage mechanism interposed between the motor and the linkage shaft. A principal linkage member of the linkage mechanism is linked to a top end portion of an output shaft rotatably around an axis parallel to the oscillation axis, and linked to the linkage shaft to be linearly movable in its axial direction. The guide members have two flat reference planes, and fixed in a state where those reference planes are contact with two flat setting planes of the pedestal.

Abstract: A scribing device for forming a scribe line on a work comprises a vibration generator for generating vibration, a cutter for cutting a work by utilizing vibration thereof, a shaft extending vertically from the vibration generator so as to transmit the vibration of the vibration generator to the cutter, a guide unit for guiding a linear motion of the shaft in a central axis direction thereof, and a load adjusting mechanism for adjusting a load applied to the work from the cutter, the load adjusting mechanism being operated by magnetic force. According to such scribing device, the guide unit guides a vertical moving (rising) motion of the shaft by the load adjusting mechanism and guides the vibration of the shaft caused by the vibration generated by the vibration generator.

Abstract: A holder 20 is rotatably connected to a body 10. A scribe tool 30 is attached to one end of the holder 20. A plate spring 16 is fixed to the body 10, and a receiving plate 26 is fixed to the holder 20. A piezo-actuator 40 is interposed between the plate spring 16 and the receiving plate 26. One end of a plate spring 50 having a small spring constant is fixed to the holder 20. The body 10 is provided with an adjustment screw 60. When a lower end part 65 of the adjustment screw 60 is protruded, the lower end part 65 presses the plate spring 50 for flexure, thereby generating a resilient force to the plate spring 50. By this, a rotational force is given to the holder 20 and thus a pressing load directing toward a workpiece is given to the scribe tool 30.

Abstract: A holder 20 is rotatably connected to a body 10. A scribe tool 30 is attached to one end of the holder 20. A plate spring 16 is fixed to the body 10, and a receiving plate 26 is fixed to the holder 20. A piezo-actuator 40 is interposed between the plate spring 16 and the receiving plate 26. One end of a plate spring 50 having a small spring constant is fixed to the holder 20. The body 10 is provided with an adjustment screw 60. When a lower end part 65 of the adjustment screw 60 is protruded, the lower end part 65 presses the plate spring 50 for flexure, thereby generating a resilient force to the plate spring 50. By this, a rotational force is given to the holder 20 and thus a pressing load directing toward a workpiece is given to the scribe tool 30.

Abstract: An angle adjusting device includes a pedestal, a pair of guide members having an arcuate track, an oscillation body moved along the track of the guide members, and a moving member for moving the oscillation body to adjust the angular position of the oscillation body around an oscillation axis. The moving member has a motor provided in the pedestal, a linkage shaft provided in the oscillation body, and a linkage mechanism interposed between the motor and the linkage shaft. A principal linkage member of the linkage mechanism is linked to a top end portion of an output shaft rotatably around an axis parallel to the oscillation axis, and linked to the linkage shaft to be linearly movable in its axial direction. The guide members have two flat reference planes, and fixed in a state where those reference planes are contact with two flat setting planes of the pedestal.

Abstract: A scribing apparatus which forms a scribe line on a work 100 comprises a scribe body 10 having a cutter 13 put on the work 100 and a vibration generation member 14 which vibrates the cutter 13 in a direction perpendicular to the work 100 periodically, a support device having a support body 20 for supporting the scribe body 10 to be movable, and magnetic force applying means 40 for holding the scribe body 10 at a standard height in the direction by using magnetic force. The magnetic force applying means 40 includes a pair of magnets 41a, 41b and a pair of magnets 42a, 42b repulsing each other in a direction parallel to a direction in which the vibration generation member 14 vibrates. And magnetically repelling force applied to the scribe body 10 by said first pair of magnets 41a, 41b and magnetically repelling force applied to the scribe body 10 by said second pair of magnets 42a, 42b oppose to each other.

Abstract: A method of forming a scribe line on a work surface is carried out by a scribing apparatus comprising a scribe body including an abutment member, such as cutter provided with an penetrator, having at least first and second ridgelines and a sharp tip end portion and a vibration generating member for periodically applying vibrations to the abutment member. A vibration is applied to the abutment member with the tip end portion thereof abutting against the work surface, and the scribe body is relatively moved along the work surface to thereby form a scribe line on the work surface. In this scribing method, a first angle constituted by the first ridgeline of the abutment member and the work surface and a second angle constituted by the second ridgeline thereof and the work surface are made different from each other and the first and second ridgelines are opposed in the moving direction of the scribe body.

Abstract: A scribe device comprises a body (10). A holder (20) is supported by the body (10) such that the holder (20) can slightly slide in a direction of a slide axis (Lb) which intersects a surface of a workpiece (100). Retaining portions (15, 21) spaced apart in a direction of the slide axis (Lb) are formed on the body (10) and the holder (20), respectively. A vibratory actuator (40) is sandwiched between the retainer portion of the body and the retainer portion of the holder. The holder (20) holds an abutment member (30). The holder is biased by a biasing member (23) such that said retaining portion of the holder is pressed against the vibratory actuator. The vibratory actuator renders the vibrations in the direction of the slide axis to the holder. The abutment member transmits the vibrations from the holder to the workpiece. That is, the abutment member (30) is subjected to a static force and a vibration energy and pressed against the workpiece (100).

Abstract: A scribe body (A) includes an abutment member (30) and a vibration generating member (40) for applying vibrations to the abutment member (30). The scribe body (A) is connected to a support portion (6) of a slide mechanism (3) through a vibration damping member (7). Two pairs of vibration damping members (7) are vertically spacedly arranged. The vibration damping members (7) of each pair are arranged on the left and right sides of the scribe body (A). By relatively moving the abutment member (30), which is pressed against a surface of a workpiece by its own weight of the scribe body (A), along the surface of the workpiece while applying vibration, which are generated by the vibration generating member (40), to the abutment member (30), a scribe line is formed in the surface of the workpiece. Vibration of the scribe (A) is damped by the vibration damping member (7).

Abstract: A scribing apparatus for forming a scribe line on a surface of a work comprises a scribe body provided with an abutment member having a sharpened tip and a vibration generating device for applying a vibration to the abutment member, a support member for supporting the scribe body to be movable in a direction crossing the surface of the work, and an impact applying device for applying an impact to the scribe body. The impact applying device comprises an air-cylinder assembly supported by the support member, the air-cylinder assembly having a rod having an end portion to be brought into contact with the scribe body to thereby apply the impact to the abutment member.

Abstract: A body (10) movably supports a holder (20) for movement in a vertical direction. A piezo actuator (40) is sandwiched between the body (10) and the holder (20). Vertical vibrations of the piezo actuator (40) are transmitted to a cutter (30) attached to a lower end portion of the holder (20), so that a scribe line is formed on a workpiece (100). The holder (20) is supported by a resilient member and a slide support portion (60) with the piezo actuator (40) placed therebetween. The resilient member includes a plate spring (61) and a ball (62) made of resilient material. The resilient member resiliently supports the holder (20) in the vibrating directions.

Abstract: A method of forming a scribe line on a work surface is carried out by a scribing apparatus comprising a scribe body including an abutment member, such as cutter provided with an penetrator, having at least first and second ridgelines and a sharp tip end portion and a vibration generating member for periodically applying vibrations to the abutment member. A vibration is applied to the abutment member with the tip end portion thereof abutting against the work surface, and the scribe body is relatively moved along the work surface to thereby form a scribe line on the work surface. In this scribing method, a first angle constituted by the first ridgeline of the abutment member and the work surface and a second angle constituted by the second ridgeline thereof and the work surface are made different from each other and the first and second ridgelines are opposed in the moving direction of the scribe body.

Abstract: A square sell 1 has a first port (5) and a second port (6) formed in its opposing first and second edge portions, respectively and third and fourth ports (7a, 7b, 8a, 8b) formed in its third and fourth edge portions respectively. An evacuating operation is performed at the second port (6). A liquid crystal injecting operation is performed at the first port (5) when a predetermined degree of vacuum is reached. At the third and fourth ports (7a, 7b, 8a, 8b), first, an evacuating operation is performed. Then, the evacuating operation is switched over to the liquid crystal injecting operation at the third and fourth ports (7a, 7b, 8a, 8b) by means of a switch-over operation of electromagnetic switch valves (15a, 15b, 16a, 16b).

Abstract: The device includes a first and a second member. A gap between the first member and the second member is provided as a passageway tapered toward a distal end thereof. Seal liquid is supplied through this passageway to ports of a cell charged with liquid crystal, under the effect of capillary action.

Abstract: An internal space of a closed container is divided into a first chamber and a second chamber by a deformable partition member. The first chamber is provided as a chamber for reserving a liquid crystal and connected to an object through a first port of the closed container. The second chamber receives a pressurized fluid from a pressurized fluid supply source through a second port of the closed container. The liquid crystal within the first chamber is pressurized through the partition member by a pressurized fluid which is introduced into the second chamber and the liquid crystal is delivered to the object.

Abstract: A connector device is connected to a liquid crystal cell having an edge portion formed as a stepped portion. This connector device includes a connector unit. The connector unit includes a body, and an elastic seal member received in a receiving recess of the body. The seal member has a projection. This projection is formed as a stepped portion corresponding in configuration to the stepped portion of the edge portion of the cell. That is, the projection of the seal member includes a first abutment surface which intimately contacts a first receiving surface of the cell, a second abutment surface which intimately contacts a second receiving surface of the cell, and a third abutment surface which intimately contacts a third receiving surface of the cell. The first and second abutment surfaces are in parallel relation to each other, and the third abutment surface is orthogonal to the first and second abutment surfaces. An association recess is formed in the third abutment surface.

Abstract: An internal space of a container is divided into a first chamber and a second chamber by a partition member. The first chamber is provided as chamber for reserving a liquid crystal and connected to an object through a first port of the container. The second chamber receives a pressurized fluid from a pressurized fluid supply source through a second port of the closed container. The liquid crystal within the first chamber is pressurized through the partition member by a pressurized fluid which is introduced into the second chamber and the liquid crystal is delivered to the object.

Abstract: One end of a vacuum evacuation passage is connected to a suction port of a cell and one end of a liquid crystal supply passage is connected to an introduction port of the cell. In that state, an internal space of the cell is evacuated through the vacuum evacuation passage and the suction port. Thereafter, a pressurized liquid crystal is supplied to the internal space of the cell through the liquid crystal supply passage and the introduction port while evacuating the internal space of the cell. After the completion of a liquid crystal filling operation to the internal space of the cell, the supply of the pressurized liquid crystal is stopped and the level of the negative pressure in the vacuum evacuation passage is gradually eased to the level of the atmospheric pressure.

Abstract: A liquid crystal introduction connector includes a connector body. The connector body has a guide groove formed in its front surface and a receiving space formed backwardly of the guide groove. A resilient seal member is received in the receiving space. A nozzle member is allowed to extend through the seal member such that the nozzle member can move forwardly and backwardly. The nozzle member is biased forwardly by a spring. When a side edge of a cell having an introduction port is inserted through the guide groove, the seal member is resiliently deformed to receive the side edge. Under the effect of the spring, the nozzle member is brought into abutment with the side edge of the cell. The liquid crystal passes through a liquid crystal supply passageway and reaches the introduction port of the cell via nozzle ports of the nozzle member.

Abstract: An apparatus for feeding a liquid crystal includes a support member having a rotational axis and capable of rotating about the rotational axis. A thin container is supported by the support member. In that supporting condition, an air discharge port of the container is near to the rotational axis, a liquid crystal feed port is away from the rotational axis, and the air discharge port is open to the atmosphere. The liquid crystal is fed through the feed port while rotating the support member about the rotational axis. Rotation of the support member causes a centrifugal force to be applied to a leading edge of the liquid crystal which has been fed in the container, the direction of the centrifugal force being reverse to a proceeding direction of the leading edge.