Author: claimsbot

1-11. (canceled)
12. An electrically conductive line comprising a tape bearing printed indicia visible from a distance, the indicia comprising the words \u201cCRIME SCENE\u201d, the line being at least 20 feet in length.
13. Apparatus comprising a spool, the spool having wound thereon an electrically conductive line comprising a tape bearing printed indicia visible from a distance, the indicia comprising the words \u201cCRIME SCENE\u201d, the line being at least 20 feet in length.
14. A combination of an electrically conductive line, and a transceiver operating at a frequency of less than 1 MHZ,
wherein the electrically conductive line comprises a tape bearing printed indicia visible from a distance, the indicia comprising the words \u201cCRIME SCENE\u201d, the line being at least 20 feet in length, and
wherein the tape is connected to the transceiver as an antenna.
15. The combination of claim 14, wherein the transceiver operates as a frequency of 133 kHz.
16. The combination of claim 14, wherein the transceiver operates as a frequency of 65 KHz.

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 method for reading non-volatile storage, comprising:
performing a read process for a set of non-volatile storage elements using a set of one or more read compare points, said read process provides a set of read data;
determining whether said read data has one or more errors;
determining whether an error correction process is able to correct said one or more errors;
correcting said one or more errors using said error correction process if said error correction process is able to correct said one or more errors; and
performing a data recovery process if said error correction process is not able to correct said one or more errors, said data recovery process comprises reading non-volatile storage elements adjacent to said set of non-volatile storage elements, adjusting said one or more read compare points for at least a subset of said set of non-volatile storage elements based on reading of said non-volatile storage elements adjacent to said set of non-volatile storage elements and performing another one or more read processes for said set of non-volatile storage elements using said adjusted one or more read compare points.
2. A method according to claim 1, wherein:
said set of non-volatile storage elements includes a page of data;
said set of non-volatile storage elements are connected to a first word line;
said non-volatile storage elements adjacent to said set of non-volatile storage elements are connected to a second word line adjacent to said first word line; and
said error correction process uses error correction codes.
3. A method according to claim 1, wherein:
said adjusting said one or more read compare points includes changing a reference voltage by an offset voltage.
4. A method according to claim 1, wherein:
said adjusting said one or more read compare points includes changing a reference voltage by one or a set of offsets; and
said set of offsets includes an offset for each programmed data state.
5. A method according to claim 1, wherein:
said performing another one or more read processes includes performing multiple read processes, each read process uses a different one of a predetermined set of offsets and is performed on all of said set of non-volatile storage elements, there is at least one read process for each offset, each non-volatile storage element provides final data from an appropriate one of said read processes associated with said offset associated with an adjacent non-volatile storage element for the respective non-volatile storage element.
6. A method according to claim 1, wherein said adjusting said one or more read compare points and said performing another one or more read processes comprise:
performing a first read process without adjusting said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a first state; and
performing a second read process with a first adjustment to said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a second state.
7. A method according to claim 1, wherein said adjusting said one or more read compare points and said performing another one or more read processes comprise:
performing a first read process without adjusting said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a first state;
performing a second read process with a first adjustment to said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a second state;
performing a third read process with a second adjustment to said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a third state; and
performing a fourth read process with a third adjustment to said one or more read compare points and storing results for one or more non-volatile storage elements having an adjacent non-volatile storage element in a fourth state.
8. A method according to claim 1, wherein:
said set of non-volatile storage elements are connected to a first word line;
said non-volatile storage elements adjacent to said set of non-volatile storage elements are connected to a second word line adjacent to said first word line;
said first and second word lines are part of a memory system having N word lines where an Nth word line is programmed last in sequence; and
said data recovery process is performed for all of said word lines except said Nth word line.
9. A method according to claim 1, further comprising:
reporting results of said data recovery process.
10. A method according to claim 1, wherein:
said set of non-volatile storage elements are connected to a first word line; and
said set of non-volatile storage elements are connected to consecutive bit lines.
11. A method according to claim 1, wherein:
said set of non-volatile storage elements are connected to a first word line; and
said set of non-volatile storage elements are connected to every other bit line of a group of bit lines.
12. A method according to claim 1, wherein:
said set of non-volatile storage elements are flash memory devices.
13. A method according to claim 1, wherein:
said set of non-volatile storage elements are NAND flash memory devices.
14. A method according to claim 1, wherein:
said set of non-volatile storage elements are multi-state flash memory devices.
15. A method according to claim 1, wherein:
said set of non-volatile storage elements include floating gates.
16. A method according to claim 1, wherein:
said set of non-volatile storage elements each include a dielectric region for storing charge.
17. A method for reading non-volatile storage, comprising:
performing a read process for a set of non-volatile storage elements, said read process includes using a set of reference values to determine a set of read data stored in said set of non-volatile storage elements;
determining that said read data has one or more errors that cannot be corrected by an error correction process; and
performing a data recovery process for said set of non-volatile storage elements that includes using a set of offsets with said reference values to determine a corrected set of read data, said offsets are chosen on an individual basis for said set of non-volatile storage elements based on status of respective adjacent storage elements to said set of non-volatile storage elements.
18. A method according to claim 17, wherein:
said set of non-volatile storage elements store a page of data;
said set of non-volatile storage elements are connected to a first word line; and
said adjacent storage elements are connected to a second word line adjacent to said first word line.
19. A method according to claim 17, wherein:
said data recovery processes includes performing multiple read processes, each read process uses a different one of said offsets and is performed on all of said set of non-volatile storage elements, there is at least one read process for each offset, each non-volatile storage element provides final data from an appropriate one of said read processes.
20. A method according to claim 17, wherein said data recovery processes comprises:
performing a first read process without using an offset and storing results for one or more of said set of non-volatile storage elements having an adjacent non-volatile storage element in a first state;
performing a second read process using a first offset and storing results for one or more of said set of non-volatile storage elements having an adjacent non-volatile storage element in a second state;
performing a third read process using a second offset and storing results for one or more of said set of non-volatile storage elements having an adjacent non-volatile storage element in a third state; and
performing a fourth read process using a third offset and storing results for one or more of said set of non-volatile storage elements having an adjacent non-volatile storage element in a fourth state.
21. A method according to claim 17, wherein:
said set of non-volatile storage elements are connected to a first word line that is part of a memory system having N word lines where an Nth word line is programmed last in sequence; and
said data recovery process is performed for all of said word lines except said Nth word line.
22. A method according to claim 17, further comprising:
reporting results of said data recovery process.
23. A method according to claim 17, wherein:
said set of non-volatile storage elements are NAND flash memory devices.
24. A method according to claim 17, wherein:
said set of non-volatile storage elements are multi-state flash memory devices.

1. A recording medium in which multiplexed data obtained by multiplexing audio data and coded picture data obtained by coding pictures constituting a moving image are recorded, wherein:
said coded picture data recorded in the recording medium includes
a P picture encodable by p-mode inter-picture prediction, or
a B picture encodable by b-mode inter-picture prediction,
said coded picture data having been coded with referring to a reference picture selected from I pictures or P pictures, without referring to a B picture, when said coded picture data is a P picture, and
said coded picture data having been coded with referring to reference pictures selected from (i) one or more B picture which is positioned between forward and backward I or P pictures which are closest to the coded picture data in display order, and (ii) forward and backward I or P pictures which are closest to the coded picture in display order, without one or more B picture which is not positioned between forward and backward I or P pictures which are closest to the coded picture data in display order being selected as reference pictures, when said coded picture data is a B picture.

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 shield used for electron beam container sterilization equipment that sterilizes a container with electron beams emitted to the container,
the shield including a composite shield of a magnetic shield layer and an X-ray shield layer between a pair of corrosion resistant layers for protection against a corrosive atmosphere, the magnetic shield layer blocking magnetism while the X-ray shield layer blocks X-rays generated by reflection and diffraction of electron beams,
the composite shield including an insulating layer interposed between one of the corrosion resistant layers and the magnetic shield layer, between the magnetic shield layer and the X-ray shield layer, and between the X-ray shield layer and the other corrosion resistant layer.
2. A shield used for electron beam container sterilization equipment that sterilizes a container with electron beams emitted to the container,
the shield being composed of a plurality of composite shield blocks,
the composite shield block including a magnetic shield and an X-ray shield in a hollow section of a board-shaped shell made of a corrosion resistant material, and an insulating layer between one surface of the board-shaped shell and the magnetic shield, between the magnetic shield and the X-ray shield, and between the X-ray shield and another surface of the board-shaped shell.
3. Electron beam container sterilization equipment that inserts, from a mouth of a container, an electron beam irradiation nozzle having an exit window on a distal end of the irradiation nozzle and sterilizes an inner surface of the container,
the electron beam irradiation nozzle being surrounded by a shield,
the shield being composed of the shield according to claim 1.
4. Electron beam container sterilization equipment that holds containers kept in an upright position, move the containers along a circular path around a vertical pivot axis, moves electron beam irradiation nozzles in synchronization with the containers, moves at least one of the electron beam irradiation nozzle and the container upward or downward, inserts the electron beam irradiation nozzle into a mouth of the container, and sterilizes an inner surface of the container with electron beams emitted from the electron beam irradiation nozzle,
the equipment including an inner shield along an inner periphery of the circular path and an outer shield along an outer periphery of the circular path,
the inner and outer shields each being composed of the shield according to claim 1.
5. Electron beam container sterilization equipment that inserts, from a mouth of a container, an electron beam irradiation nozzle having an exit window on a distal end of the irradiation nozzle and sterilizes an inner surface of the container,
the electron beam irradiation nozzle being surrounded by a shield,
the shield being composed of the shield according to claim 2.
6. Electron beam container sterilization equipment that holds containers kept in an upright position, move the containers along a circular path around a vertical pivot axis, moves electron beam irradiation nozzles in synchronization with the containers, moves at least one of the electron beam irradiation nozzle and the container upward or downward, inserts the electron beam irradiation nozzle into a mouth of the container, and sterilizes an inner surface of the container with electron beams emitted from the electron beam irradiation nozzle,
the equipment including an inner shield along an inner periphery of the circular path and an outer shield along an outer periphery of the circular path,
the inner and outer shields each being composed of the shield according to claim 2.