Author: claimsbot

1. A method of assembling a motorcycle rear hub so that said hub can mount an auto rim with a motorcycle or auto tire comprising the steps of:
placing at least one outside bearing in a wheel mount hub;
inserting a bearing spacer tube into said hub and outside bearing;
inserting a plurality of wheel mounting screws into said hub;
attaching a brake rotor to said hub using a brake disk to drive pulley spacer in contact with said brake disk;
inserting at least one inner bearing into said brake disk to drive pulley spacer;
attaching said brake disk to drive pulley spacer to said hub using a plurality of spacer mounting screws so that said brake rotor is between said brake disk to drive pulley spacer and said hub;
mounting a drive pulley to said brake disk to drive pulley spacer using a plurality of drive pulley mounting screws.
2. The method of claim 1 wherein said drive pulley is a belt drive pulley.
3. The method of claim 1 wherein said drive pulley is a chain sprocket.
4. The method of claim 1 wherein said inner and outer bearings are 52 mm OD\xd725 mm ID.
5. The method of claim 1 wherein said bearing spacer tube is 1.250\xd70.120 wall steel or aluminum.
6. The method of claim 1 wherein said wheel mounting screws are \xbd 20\xd72 inch.
7. The method of claim 1 wherein said spacer mounting screws are 716 14\xd7\xbe inch.
8. The method of claim 1 wherein said pulley mounting screws are 716 14\xd71.25 inch.
9. The method of claim 1 wherein said spacer mounting screws and said pulley mounting screws are grade 9.
10. A auto rim mounting assembly for a motorcycle rear wheel comprising:
a wheel mounting hub with a circular flange including an inner bearing and inserted bearing spacer tube;
a plurality of wheel mounting bolts penetrating said circular flange for mounting an auto rim;
a brake rotor in contact on an inner surface with said flange and on an outer surface with a pulley spacer, said pulley spacer bolted to said flange through said brake rotor;
at least one outer bearing inserted into said pulley spacer;
a drive pulley bolted on said pulley spacer.
11. The auto rim mounting assembly of claim 10 wherein said drive pulley is adapted to engage a drive belt.
12. The auto rim mounting assembly of claim 10 wherein said drive pulley is a chain drive sprocket.
13. The auto rim mounting assembly of claim 10 wherein said bearing spacer tube is 1.250\xd70.120 wall steel or aluminum.
14. The auto rim mounting assembly of claim 10 wherein said wheel mounting bolts are \xbd 20\xd72 inch.
15. The auto rim mounting assembly of claim 10 wherein said pulley spacer is bolted to said flange with 716 14\xd7\xbe inch.
16. The auto rim mounting assembly of claim 10 wherein said drive pulley is bolted on said pulley spacer with 716 14\xd71.25 inch.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

What is claimed is:

1. A light guide plate comprising:
a body including a side face having a light incident section, an upper face and a lower face which form a three dimensional structure;
a light reflection pattern formed on the upper face non-parallel with respect to a first boundary line formed between the light incident section and the upper face, so as to allow at least a first portion of a light to be directed towards the lower face; and
a light redirecting means formed on the side face so as to change the direction of a second portion of the light, which is projected without being directed towards the lower face by the light reflection pattern, such that the light is directed towards the lower face.
2. The light guide plate as claimed in claim 1, wherein the light redirecting means is formed on a side section of the side face, one end of the side section contacts one end of the light incident section.
3. The light guide plate as claimed in claim 1, wherein the light redirecting means is formed on a side section of the side face which is opposite the light incident section.
4. The light guide plate as claimed in claim 1, wherein the light redirecting means is formed on a side section of the side face including a first section, a first end of which contacts one end of the light incident section, and a second section which is opposite the light incident section.
5. The light guide plate as claimed in claim 4, wherein the light redirecting means is extended from the first end of the first section to a portion of the second section.
6. The light guide plate as claimed in claim 1, wherein the light redirecting means includes a reflection mirror.
7. The light guide plate as claimed in claim 1, wherein the light redirecting means includes a light reflection sheet.
8. The light guide plate as claimed in claim 3, wherein the light redirecting means includes a polished surface.
9. The light guide plate as claimed in claim 1, wherein the light reflection pattern includes V-shaped grooves.
10. The light guide plate as claimed in claim 1, wherein an angle between the light reflection pattern and the first boundary line is about 22.5 degrees or less.
11. A liquid crystal display device comprising:
a light guide plate including a body comprising a side face having a light incident section, an upper face and a lower face, which form a three-dimensional structure, and a light reflection pattern formed on a surface of the upper face nonparallel with respect to a boundary line formed between the light incident section and the upper face, so as to allow at least a first portion of the light to be directed towards the lower face, the light reflection pattern defining a first area and a second area which is darker than the first area a lamp assembly facing the light incident section and including a lamp having a center of which is offset towards the second area from a center of the light guide plate; and
a liquid crystal display panel including pixel electrodes for reflecting the light and a liquid crystal for adjusting a transmission degree of the reflected light, the liquid crystal display panel being positioned below the light guide plate.
12. The liquid crystal display device as claimed in claim 11, wherein the light guide plate includes a first side section adjacent to the second area and a boundary line between the first side section and the light incident section matches a first end of an effective light emitting area of the lamp.
13. The liquid crystal display device as claimed in claim 12, wherein the first end of the effective light emitting area is protruded with respect to the boundary line by 10 mm or less.
14. The liquid crystal display device as claimed in claim 12, wherein the first side section includes a light redirecting means for changing the direction of a second portion of the light, the second portion not being directed towards the lower face by the light reflection pattern such that the second portion of the light is directed towards the lower face.
15. The liquid crystal display device as claimed in claim 14, the light redirecting means includes a reflection mirror.
16. The liquid crystal display device as claimed in claim 13, the first side section includes a polished surface for reflecting the light toward the lower face.
17. The liquid crystal display device as claimed in claim 11, wherein the light guide plate includes a parting line at a second side section other than the light incident section and the first side section.
18. The liquid crystal display device as claimed in claim 11, wherein the light reflection pattern is extended non-parallel with an aligning direction of the pixel electrodes.
19. The liquid crystal display device as claimed in claim 18, wherein the light reflection pattern is offset with respect to the aligning direction of the pixel electrodes at an angle of about 22.5 degrees or less, and the boundary line is parallel with the aligning direction of the pixel electrodes.
20. A liquid crystal display device comprising:
a light guide plate including a body comprising a side face including a light incident section, an upper face and a lower face opposite the upper face which form a cubic structure, and a light reflection pattern having at least one bending portion at the upper face in such a manner that a light incident into the light incident section of the side face is reflected by the upper face towards the lower face, and an advancing direction of the light is converted towards an interior of the light guide plate;
a lamp assembly disposed at the light incident section opposite the bending portion so as to supply the light to the upper face of the light guide plate through the light incident section; and
a liquid crystal display panel disposed facing the lower face so as to display an image by controlling a transmissivity of the light.
21. The liquid crystal display device as claimed in claim 20, wherein the reflection pattern has an obtuse bending angle at the bending portion.
22. The liquid crystal display device as claimed in claim 20, wherein the light reflection pattern is inclined at an angle of about 22.5 degrees or less with respect to a boundary line defined by the light incident section and the upper face.
23. A method for displaying an image in a liquid crystal display device, comprising:
generating a first light having a linear light source distribution by utilizing an effective light emitting area having a first length;
converting the first light into a second light having a surface light source distribution, the surface light source distribution having a second length longer than the first length, supplying the second light into a liquid crystal display panel, and supplying a third light into the liquid crystal display panel by changing the direction of the third light, which is to be leaked while the first light is being converted into the second light, into a direction of the second light; and
generating a fourth light having a modulated light transmissivity and wave length by allowing the second and third lights supplied towards the liquid crystal display panel to pass through a liquid crystal and a color pixel.

1. A coating and developing apparatus comprising:
a process block including coating film forming parts each for forming a coating film on a substrate, a developing part for developing a substrate, and a substrate inspection part for inspecting a substrate;
a carrier block including a transfer mechanism for the carrier block that delivers to the process block a substrate on which a coating film is to be formed, and receives the developed substrate from the process block; and
an interface block that receives from the process block the substrate on which the coating film has been formed and delivers the substrate to an exposure apparatus, and receives an exposed substrate from the exposure apparatus and delivers the substrate to the process block;
wherein the coating film forming parts, the developing part, and the substrate inspection part are vertically arranged in the process block,
each of the coating film forming parts includes: one or more liquid process units) for applying a coating liquid to a substrate; a heating process unit for heating a substrate to which the coating liquid has been applied; and a transfer mechanism for the coating film forming part for transferring a substrate between these process units of the liquid process unites) and the heating process unit, at least one of the coating film forming parts including a liquid process unit for applying a resist liquid to a substrate,
the developing part includes a process unit having a heating process unit for heating an exposed substrate, a liquid process unit for applying a developing liquid to a substrate, and a transfer mechanism for the developing part for transferring a substrate between these process units of the liquid process unit and the heating process unit,
the substrate inspection part includes a plurality of substrate inspection units for inspecting a substrate, and a transfer mechanism for the substrate inspection part for transferring a substrate between these substrate inspection units, and
the process block further includes: a plurality of transfer units arranged at height positions respectively corresponding to the coating film forming parts, the developing part, and the substrate inspection part, a substrate being transferred between each transfer unit and the corresponding part via the transfer mechanism for the corresponding part; and a vertically movable transfer mechanism for the transfer unit for transferring a substrate between these transfer units.
2. The coating and developing apparatus according to claim 1
wherein the process block further includes a direct transfer part vertically stacked on the coating film forming parts, the developing part, and the substrate inspection part, and
the direct transfer part includes a transfer mechanism for the direct transfer part for directly transferring a substrate on which a coating film has been formed in the process block from a side of the carrier block to a side of the interface block.
3. The coating and developing apparatus according to claim 1,
wherein the substrate inspection part includes a substrate inspection unit for inspecting a substrate on which a resist film has been formed, and a substrate inspection unit for inspecting a developed substrate,
the transfer units are disposed on sides of the coating film forming parts, the developing part, and the substrate inspection part such that the carrier block is closer to the transfer units than to the coating film forming parts, the developing part, and the substrate inspection part,
a second transfer unit is disposed on a side of the substrate inspection part such that the interface block is closer to the second transfer unit than to the substrate inspection part, a substrate being transferred between the second transfer unit and the substrate inspection part, and a substrate being transferred between the second transfer unit and the interface block.
4. The coating and developing apparatus according to claim 1,
wherein the transfer units are disposed on sides of the coating film forming parts, the developing part, and the substrate inspection part such that the carrier block is closer to the coating film forming parts, the developing part, and the substrate inspection part, and
the transfer mechanism for the carrier block transfers a substrate between the same and at least one of the transfer units.
5. A substrate processing method for processing a substrate with the use of a coating and developing apparatus comprising: a process block including a coating film forming part for forming a coating film on a substrate, a developing part for developing a substrate, and a substrate inspection part for inspecting a substrate; a carrier block from which a substrate is transferred to the process block and to which a substrate is transferred from the process block; and an interface block to which a substrate is transferred from the process block and from which a substrate is transferred to the process block, the interface block being connected to an exposure apparatus;
wherein the coating film forming part, the developing part, and the substrate inspection part are vertically arranged in the process block,
each of the coating film forming part, the developing part, and the substrate inspection part includes a transfer mechanism for the corresponding part for transferring a substrate in the corresponding part, and
the process block further includes: a plurality of transfer units respectively corresponding to the coating film forming part, the developing part, and the substrate inspection part, a substrate being transferred between each transfer unit and the corresponding part; and a transfer mechanism for the transfer unit for transferring a substrate between these transfer units,
the substrate processing method comprising the steps of:
transferring a substrate loaded into the carrier block to the coating film forming part of the process block, and forming a resist film on the substrate;
transferring the substrate on which the resist film has been formed from the coating film forming part to the substrate inspection part via the transfer unit, and inspecting the substrate;
transferring the inspected substrate by means of the transfer mechanism for the substrate inspection part to a second transfer unit different from said transfer units, the second transfer unit being disposed on a side of the process unit such that the interface block is closer to the second transfer unit than to the process unit, and further transferring the substrate to the interface block via the second transfer unit;
transferring the inspected substrate to the exposure apparatus,
exposing the inspected substrate,
transferring the exposed substrate back to the interface block;
transferring the exposed substrate to the developing part of the process block, and developing the substrate;
transferring the developed substrate from the developing part to the substrate inspection part via the transfer unit, and inspecting the substrate; and
transferring the inspected substrate to the carrier block.
6. A substrate processing method for processing a substrate with the use of a coating and developing apparatus comprising: a process block including a coating film forming part for forming a coating film on a substrate, a developing part for developing a substrate, and a substrate inspection part for inspecting a substrate; a carrier block from which a substrate is transferred to the process block and to which a substrate is transferred from the process block; and an interface block to which a substrate is transferred from the process block and from which a substrate is transferred to the process block, the interface block being connected to an exposure apparatus;
wherein the process block further includes a direct transfer part having a transfer mechanism for the direct transfer part for directly transferring a substrate in the process block between a side of the carrier block and a side of the interface block,
the coating film forming part, the developing part, the substrate inspection part, and the direct transfer part are vertically arranged in the process block,
each of the coating film forming part, the developing part, and the substrate inspection part includes a transfer mechanism for the corresponding part for transferring a substrate in the corresponding part, and
the process block further includes: a plurality of transfer units respectively corresponding to the coating film forming part, the developing part, the substrate inspection part, and the direct transfer part, a substrate being transferred between each transfer unit and the corresponding part; and a transfer mechanism for the transfer unit for transferring a substrate between these transfer units,
the substrate processing method comprising the steps of:
transferring a substrate loaded into the carrier block to the coating film forming part of the process block, and forming a resist film on the substrate;
transferring the substrate on which the resist film has been formed from the coating film forming part to the substrate inspection part via the transfer unit, and inspecting the substrate;
transferring the inspected substrate from the substrate inspection part to the direct transfer part via the transfer unit, and further transferring the substrate to the interface block by means of the transfer mechanism for the direct transfer part;
transferring the inspected substrate to the exposure apparatus,
exposing the inspected substrate,
transferring the exposed substrate back to the interface block;
transferring the exposed substrate to the developing part of the process block, and developing the substrate;
transferring the developed substrate from the developing part to the substrate inspection part via the transfer unit, and inspecting the substrate; and
transferring the inspected substrate to the carrier block.
7. A non-transitory storage medium storing a program executed by a control device for controlling a coating and developing apparatus comprising: a process block including a coating film forming part for forming a coating film on a substrate, a developing part for developing a substrate, and a substrate inspection part for inspecting a substrate; a carrier block from which a substrate is transferred to the process block and to which a substrate is transferred from the process block; and an interface block to which a substrate is transferred from the process block and from which a substrate is transferred to the process block, the interface block being connected to an exposure apparatus;
wherein the coating film forming part, the developing part, and the substrate inspection part are vertically arranged in the process block,
each of the coating film forming part, the developing part, and the substrate inspection part includes a transfer mechanism for the corresponding part for transferring a substrate in the corresponding part, and
the process block further includes: a plurality of transfer units respectively corresponding to the coating film forming part, the developing part, and the substrate inspection part, a substrate being transferred between each transfer unit and the corresponding part; and a transfer mechanism for the transfer unit for transferring a substrate between these transfer units,
the storage medium executed by the control device to execute a substrate processing method comprising the steps of:
transferring a substrate loaded into the carrier block to the coating film forming part of the process block, and forming a resist film on the substrate;
transferring the substrate on which the resist film has been formed from the coating film forming part to the substrate inspection part via the transfer unit, and inspecting the substrate;
transferring the inspected substrate by means of the transfer mechanism for the substrate inspection part to a second transfer unit different from said transfer unit, the second transfer unit being disposed on a side of the process unit such that the interface block is closer to the second transfer unit than to the process unit, and further transferring the substrate to the interface block via the second transfer unit;
transferring the inspected substrate to the exposure apparatus,
exposing the inspected substrate,
transferring the exposed substrate back to the interface block;
transferring the exposed substrate to the developing part of the process block, and developing the substrate;
transferring the developed substrate from the developing part to the substrate inspection part via the transfer unit, and inspecting the substrate; and
transferring the inspected substrate to the carrier block.
8. A non-transitory storage medium storing a program executed by a control device for controlling a coating and developing apparatus comprising: a process block including a coating film forming part for forming a coating film on a substrate, a developing part for developing a substrate, and a substrate inspection part for inspecting a substrate; a carrier block from which a substrate is transferred to the process block and to which a substrate is transferred from the process block, and an interface block to which a substrate is transferred from the process block and from which a substrate is transferred to the process block, the interface block being connected to an exposure apparatus;
wherein the process block further includes a direct transfer part having a transfer mechanism for the direct transfer part for directly transferring a substrate in the process block between a side of the carrier block and a side of the interface block,
the coating film forming part, the developing part, the substrate inspection part, and the direct transfer part are vertically arranged in the process block,
each of the coating film forming part, the developing part, and the substrate inspection part includes a transfer mechanism for the corresponding part for transferring a substrate in the corresponding part, and
the process block further includes: a plurality of transfer units respectively corresponding to the coating film forming part, the developing part, the substrate inspection part, and the direct transfer part, a substrate being transferred between each transfer unit and the corresponding part; and a transfer mechanism for the transfer unit for transferring a substrate between these transfer units,
the storage medium executed by the control device to execute a substrate processing method comprising the steps of:
transferring a substrate loaded into the carrier block to the coating film forming part of the process block, and forming a resist film on the substrate;
transferring the substrate on which the resist film has been formed from the coating film forming part to the substrate inspection part via the transfer unit, and inspecting the substrate;
transferring the inspected substrate from the substrate inspection part to the direct transfer part via the transfer unit, and further transferring the substrate to the interface block by means of the transfer mechanism for the direct transfer part;
transferring the inspected substrate to the exposure apparatus,
exposing the inspected substrate,
transferring the exposed substrate back to the interface block;
transferring the exposed substrate to the developing part of the process block, and developing the substrate;
transferring the developed substrate from the developing part to the substrate inspection part via the transfer unit, and inspecting the substrate; and
transferring the inspected substrate to the carrier block.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

What is claimed is:

1. A method for detecting a connection problem, comprising:
automatically detecting a problem with a cable connecting a router and an upstream communication device; and
automatically displaying on a screen a graphic indicating the problem with the cable.
2. A method of claim 1, wherein the graphic includes textual data.
3. A method of claim 1, wherein the graphic includes pictorial data.
4. A method of claim 1, wherein automatically detecting the problem with the cable includes checking a link status between the router and the upstream communication device.
5. A method of claim 1, wherein the problem with the cable is at least partly caused by the cable being plugged into an incorrect port of the upstream communication device.
6. A method of claim 1, wherein the problem with the cable is at least partly caused by the upstream communication device being a powered off state.
7. A method of claim 1, wherein the problem with the cable is at least partly caused by the upstream communication device being unplugged from a power outlet.
8. A method of claim 1, wherein the problem with the cable is at least partly caused by an incorrect type of the cable.
9. A method of claim 1, wherein the problem with the cable is at least partly caused by a length of the cable.
10. A method of claim 1, wherein the problem with the cable is at least partly caused by a break in the cable.
11. A method of claim 1, wherein the problem with the cable is at least partly caused by a misconnection in the cable.
12. A method of claim 1, wherein the problem with the cable is at least partly caused by incomplete attachment between the cable and the router.
13. A method of claim 1, wherein the problem with the cable is at least partly caused by incomplete attachment between the cable and the upstream communication device.
14. Computer code for detecting a connection problem, comprising:
code that performs automatically detecting a problem with a cable connecting a router and an upstream communication device; and
code that performs automatically displaying on a screen a graphic indicating the problem with the cable.
15. Apparatus for detecting a connection problem, comprising:
means for automatically detecting a problem with a cable connecting a router and an upstream communication device; and
means for automatically displaying on a screen a graphic indicating the problem with the cable.