1. A print system comprising:
a print job populating unit for populating a print job generated in a client terminal into at least two of print servers;
a receipt completion deciding unit for deciding whether the print job populated from the client terminal is completely received in the print server or not; and
a print job transferring unit for transferring a print job of a non-received part in a print server other than a self server in the at least two print servers to the other print server if the receipt completion deciding unit decides that the receipt of the print job is completed in the self server.
2. The print system according to claim 1, wherein the print job populating unit divides the print job into a plurality of blocks and sequentially populates them,
the receipt completion deciding unit decides whether all blocks of the print job are completely received or not, and
the print job transferring unit transfers a print job of a non-received block in the other print server to the other print server if the receipt completion deciding unit decides that the receipt of the print job is completed.
3. The print system according to claim 1, wherein the print job populating unit stops processing for populating the print job into the other print server when the transfer of the print job to the other print server is started by the print job transferring unit.
4. A print server to be used in a print system for populating a print job generated in a client terminal into at least two of print servers in a cluster environment having the print servers, the print server comprising:
a receipt completion deciding unit for deciding whether receipt of the print job populated from the client terminal is completed or not; and
a print job transferring unit for transferring a print job of a non-received part in a print server other than a self server in the at least two print servers to the other print server if the receipt completion deciding unit decides that the receipt of the print job is completed in the self server.
5. The print server according to claim 4, wherein the receipt completion deciding unit decides whether all blocks of the print job obtained by division into the blocks and populated sequentially from the client terminal are completely received or not, and
the print job transferring unit transfers a print job of a non-received block in the other print server to the other print server if the receipt completion deciding unit decides that the print job is completely received.
6. A method of populating a print job generated in a client terminal into at least two of print servers in a cluster environment having the print servers, the method comprising:
a first step of causing a receipt completion deciding unit of the print server to decide whether receipt of the print job populated from the client terminal is completed or not; and
a second step of causing a print job transferring unit of the print server to transfer a print job of a non-received part in a print server other than a self server in the at least two print servers to the other print server if the receipt completion deciding unit decides that the receipt of the print job is completed in the self server.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A photoelectric conversion device comprising:
a plurality of photoelectric conversion elements;
a plurality of wire layers containing at least a first pattern provided above the plurality of photoelectric conversion elements and a second pattern provided above the first pattern;
a plurality of convex-shaped interlayer lenses positioned in optical paths above the photoelectric conversion elements, each peak of the interlayer lenses projecting in a direction toward incident light;
a plurality of convex shaped microlenses positioned in optical paths above the photoelectric conversion elements and above the interlayer lenses; and
an optical black region for obtaining a standard signal, in which a light shielding member is arranged above the photoelectric conversion elements,
wherein at least a part of the plurality of interlayer lenses is arranged above the light shielding member in a part of the optical black region.
2. The photoelectric conversion device according to claim 1, wherein the second pattern includes the light shielding member.
3. The photoelectric conversion device according to claim 1, wherein the part of the plurality of interlayer lenses and the light shielding member are in direct contact with each other.
4. The photoelectric conversion device according to claim 1, wherein the plurality of wire layers includes a third pattern arranged between the first pattern and the second pattern.
5. A photoelectric conversion device comprising:
a plurality of photoelectric conversion elements;
a plurality of wire layers containing at least a first pattern provided above the plurality of photoelectric conversion elements and a second pattern provided above the first pattern;
an interlayer lens layer having a plurality of convex shaped interlayer lenses positioned in optical paths above the photoelectric conversion elements, each peak of the interlayer lenses projecting in a direction toward incident light;
a plurality of convex shaped micro lenses positioned in optical paths above the photoelectric conversion elements and above the interlayer lens layer; and
an optical black region for obtaining a standard signal, in which a light shielding member is arranged above the photoelectric conversion elements,
wherein at least a part of the interlayer lens layer is arranged above the light shielding member in a part of the optical black region.
6. The photoelectric conversion device according to claim 5, wherein the second pattern includes the light shielding member.
7. The photoelectric conversion device according to claim 5, wherein the part of the plurality of interlayer lenses and the light shielding member are in direct contact with each other.
8. The photoelectric conversion device according to claim 5, wherein the plurality of wire layers includes a third pattern arranged between the first pattern and the second pattern.
9. A photoelectric conversion device comprising:
a plurality of photoelectric conversion elements;
a plurality of wire layers containing at least a first pattern provided above the plurality of photoelectric conversion elements and a second pattern provided above the first pattern;
a plurality of convex shaped interlayer lenses positioned in optical paths above the photoelectric conversion elements, each peak of the interlayer lenses projecting in a direction toward incident light and the interlayer lenses including a silicon nitride film;
a plurality of convex shaped microlenses positioned in optical paths above the photoelectric conversion elements and above the interlayer lenses; and
an optical black region for obtaining a standard signal, in which a light shielding member is arranged above the photoelectric conversion elements,
wherein at least a part of the silicon nitride film is disposed above the light shielding member in a part of the optical black region.
10. The photoelectric conversion device according to claim 9, wherein the second pattern includes the light shielding member.
11. The photoelectric conversion device according to claim 9, wherein the part of the plurality of interlayer lenses and the light shielding member are in direct contact with each other.
12. The photoelectric conversion device according to claim 9, wherein the plurality of wire layers includes a third pattern arranged between the first pattern and the second pattern.