Author: claimsbot

1. A drive train, comprising:
a gearbox including a gearbox housing;
a generator including a generator housing; and
a lubricating oil system including an oil reservoir configured to lubricate toothed contact areas andor bearings arranged within the gearbox housing, said oil reservoir arranged within the generator housing or on an exterior side of the generator housing.
2. The drive train of claim 1, wherein the oil reservoir is arranged at least partially above a static oil level.
3. The drive train of claim 1, wherein the oil reservoir is arranged at least partially below a static oil level.
4. The drive train of claim 1, wherein the generator has a generator shaft defining an axis, said oil reservoir being arranged in concentric relationship to the axis of the generator shaft.
5. The drive train of claim 1, wherein the gearbox includes at least one gearbox stage, said at least one gearbox stage being formed by a planetary gearbox.
6. The drive train of claim 1, wherein the gearbox is configured to have plural gearbox stages, none of said gearbox stages being formed by a helical gearbox.
7. The drive train of claim 1, wherein the gearbox housing and the generator housing are connected to each other.
8. The drive train of claim 1, wherein the gearbox housing and the generator housing are flange-mounted to each other.
9. The drive train of claim 1, wherein the generator comprises a generator cooling circuit, said lubricating oil system being operatively connected to the generator cooling circuit.
10. The drive train of claim 1, wherein the lubricating oil system is configured to lubricate a drive train component arranged outside of the gearbox housing, or lubricate bearings arranged in the generator housing and accommodating a generator shaft of the generator.
11. The drive train of claim 1, further comprising a rotor shaft and rotor mounted on the rotor shaft, said lubricating oil system being configured to lubricate a bearing block provided to support the rotor shaft.
12. The drive train of claim 1, wherein the generator has a generator shaft of hollow configuration to form an oil-conducting pipe of the lubricating oil system.
13. A wind power plant, comprising a drive train, said drive train comprising a gearbox including a gearbox housing, a generator including a generator housing, and a lubricating oil system including an oil reservoir configured to lubricate toothed contact areas andor bearings arranged within the gearbox housing, said oil reservoir arranged within the generator housing or on an exterior side of the generator housing.
14. The wind power plant of claim 13, wherein the oil reservoir is arranged at least partially above a static oil level, or at least partially below a static oil level, or in concentric relationship to a generator shaft of the generator.
15. The wind power plant of claim 13, wherein the gearbox includes at least one gearbox stage, said at least one gearbox stage being formed by a planetary gearbox.
16. The wind power plant of claim 13, wherein the gearbox housing and the generator housing are flange-mounted to each other.
17. The wind power plant of claim 13, wherein the generator comprises a generator cooling circuit, said lubricating oil system being operatively connected to the generator cooling circuit.
18. The wind power plant of claim 13, wherein the lubricating oil system is configured to lubricate a drive train component arranged outside of the gearbox housing, or lubricate bearings arranged in the generator housing and accommodating a generator shaft of the generator.
19. The wind power plant of claim 13, wherein the drive train includes a rotor shaft and rotor mounted on the rotor shaft, said lubricating oil system being configured to lubricate a bearing block provided to support the rotor shaft.
20. The wind power plant of claim 13, wherein the generator has a generator shaft of hollow configuration to form an oil-conducting pipe of the lubricating oil system.

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. An image processing apparatus, comprising:
a communication interface unit configured to receive video content; and
a genre conceiver configured to extract feature information of an arbitrary frame of received video content and to conceive a genre of an updated frame with reference to extracted feature information in response to the arbitrary frame being updated.
2. The image processing apparatus as claimed in claim 1, further comprising a user interface unit configured to set at least one user information for searching for, storing, skipping, and watch-limiting data corresponding to a conceived genre, wherein the genre conceiver processes the video content based on set user information and the conceived genre.
3. The image processing apparatus as claimed in claim 1, wherein the genre conceiver conceives the genre based on at least one feature information of color, texture, motion feature and edge feature of the frame, and textural and object content present in a video frame.
4. The image processing apparatus as claimed in claim 1, wherein the genre conceiver comprises a detector configured to detect whether there is a break between a previous frame and a current frame, and in response to the break occurring as a detection result, stores feature information of the current frame.
5. The image processing apparatus as claimed in claim 4, wherein the genre conceiver stores the feature information of the current frame at a period corresponding to a predetermined interval of time when there is no break between the current frame and the previous frame.
6. The image processing apparatus as claimed in claim 1, further comprising a storage unit, wherein the genre conceiver detects feature information of the updated frame, separates detected feature information, and stores separated feature information in the storage unit.
7. The image processing apparatus as claimed in claim 1, wherein:
the genre conceiver comprises a plurality of feature information detectors configured to respectively detect a plurality of feature information with different features; and
the plurality of feature information detectors comprise a model selected by a training process for searching for a model appropriate for genre detection.
8. The image processing apparatus as claimed in claim 7, wherein the genre conceiver is operated in a training mode for the training process, processes data instances of a video data set of the video content by principle component analysis (PCA) in the training mode, and searches for an appropriate model by using a K-means scheme for representative instances for model training and by clustering the representative instances.
9. The image processing apparatus as claimed in claim 1, further comprising a video processor configured to enhance video of a conceived genre.
10. The image processing apparatus as claimed in claim 1, further comprising a tuner configured to automatically skip a channel until a channel of a conceived genre is retrieved.
11. The image processing apparatus as claimed in claim 1, further comprising a controller configured to one of limit recording and limiting watching an image of a conceived genre.
12. An image processing method, comprising:
receiving video content;
extracting feature information of an arbitrary frame of received video content; and
conceiving a genre of an updated frame with reference to extracted feature information in response to the arbitrary frame being updated.
13. The image processing method as claimed in claim 12, further comprising:
setting at least one user information for searching for, storing, skipping, and watch-limiting data corresponding to a conceived genre; and
processing the video content based on set user information and the conceived genre.
14. The image processing method as claimed in claim 12, wherein the conceiving comprises conceiving the genre based on at least one feature information of color, texture, motion feature and edge feature of the frame, and textural and object content present in a video frame.
15. The image processing method as claimed in claim 12, wherein the conceiving comprises detecting whether there is a break between a previous frame and a current frame, and in response to the break occurring as a detection result, storing feature information of the current frame.
16. The image processing method as claimed in claim 15, wherein the conceiving comprises storing the feature information of the current frame at a period corresponding to a predetermined interval of time when there is no break between the current frame and the previous frame.
17. The image processing method as claimed in claim 12, wherein the conceiving comprises;
detecting feature information of the updated frame; and
separating detected feature information and storing separated feature information in a storage unit.
18. The image processing method as claimed in claim 12, wherein:
the conceiving comprises respectively detecting a plurality of feature information with different features; and
a plurality of detected feature information are detected by embodying a model selected by a training process for searching for a model appropriate for genre detection.
19. The image processing method as claimed in claim 18, wherein:
the conceiving is operated in a training mode for the training process, and comprises processing data instances of a video data set of the video content by principle component analysis (PCA) in the training mode, and using a K-means scheme for representative instances for model training to search for an appropriate model and clustering the representative instances.
20. A non-transitory computer readable recording medium having a program for executing an image processing method, the method comprising:
receiving video content;
extracting feature information of an arbitrary frame of received video content; and
conceiving a genre of an updated frame with reference to extracted feature information in response to the arbitrary frame being updated.

1. A non-volatile FIFO, comprising:
a front-end-of-the-line (FEOL) portion including a substrate, the substrate including active circuitry and an interconnect structure, at least a portion of the active circuitry and interconnect structure are configured for FIFO data operations; and
a back-end-of-the-line (BEOL) portion in contact with the FEOL portion and positioned above the FEOL portion, the BEOL portion including a plurality of two-terminal non-volatile memory cells configured to store data as a plurality of conductivity profiles that are retained in the absence of power, the interconnect structure and the active circuitry operative to electrically couple each memory cell with a write word line, a read word line, a pair of write bit lines, and a pair of read bit lines,
wherein data is written to each memory cell by enabling the write word line connected with the memory cell and applying a write voltage across the pair of write bit lines connected with the memory cell, and
wherein data is read from each memory cell by enabling the read word line connected with the memory cell and applying a read voltage across the pair of read bit lines connected with the memory cell.
2. The non-volatile FIFO of claim 1, wherein each memory cell includes a two-terminal memory element that is electrically in series with the terminals of the memory cell.
3. The non-volatile FIFO of claim 1, wherein the active circuitry further comprises
a counter electrically coupled with at least one enable signal and at least one clock signal, the counter operative to generate an address signal when the at least one enable signal and the at least one clock signal are active,
a decoder electrically coupled with the address signal, the decoder operative during a read operation to activate the read word line for the memory cell selected by the address, the decoder operative during a write operation to activate the write word line for the memory cell selected by the address,
write circuitry operative during the write operation to apply a write voltage across the pair of write bit lines, the write voltage having a magnitude and polarity determined by a value of data to be written to the memory cell selected by the address, and
read circuitry operative during the read operation to apply a read voltage across the pair of read bit lines, the read voltage operative to generate a read current in the memory cell selected by the address and a magnitude of the read current is indicative of a value of data stored in the memory cell selected by the address.
4. The non-volatile FIFO of claim 3, wherein the counter includes a plurality of non-volatile registers positioned in the BEOL portion and operative to retain counter data in the absence of power, and each non-volatile register including at least one two-terminal non-volatile memory cell configured to store the counter data.
5. The non-volatile FIFO of claim 3, wherein the counter comprises a ring counter.
6. The non-volatile FIFO of claim 5, wherein the ring counter includes a plurality of non-volatile registers positioned in the BEOL portion and operative to retain ring counter data in the absence of power, and each non-volatile register including at least one two-terminal non-volatile memory cell configured to store the ring counter data.
7. The non-volatile FIFO of claim 1, wherein the BEOL portion includes at least one non-volatile resistive reference cell operative to generate a reference signal during a read operation.
8. The non-volatile FIFO of claim 7, wherein the non-volatile resistive reference cell includes a structure that is identical to a structure of the plurality of two-terminal non-volatile memory cells.
9. The non-volatile FIFO of claim 1, wherein the plurality of two-terminal non-volatile memory cells are positioned in at least one two-terminal cross-point memory array.
10. The non-volatile FIFO of claim 9, wherein a write operation on the at least one two-terminal cross-point memory array does not require an erase operation prior to the write operation.
11. The non-volatile FIFO of claim 9, wherein at least a portion of the at least one two-terminal cross-point memory array is configured for use as a non-volatile register.
12. The non-volatile FIFO of claim 9, wherein the active circuitry is configured to emulate, in at least a portion of the at least one two-terminal cross-point memory array, at least one memory type selected from the group consisting of DRAM, SRAM, and FLASH.
13. The non-volatile FIFO of claim 1, wherein the plurality of two-terminal non-volatile memory cells are positioned in a plurality of two-terminal cross-point memory arrays and one or more of the plurality of plurality of two-terminal cross-point memory arrays are positioned in a plurality of vertically stacked memory planes.
14. The non-volatile FIFO of claim 13, wherein the two-terminal non-volatile memory cells positioned in one of the plurality of vertically stacked memory planes share conductive array lines with the two-terminal non-volatile memory cells positioned in an adjacent one of the plurality of vertically stacked memory planes.
15. The non-volatile FIFO of claim 13, wherein a write operation on one or more of the plurality of two-terminal cross-point memory arrays does not require an erase operation prior to the write operation.
16. The non-volatile FIFO of claim 13, wherein at least a portion of one or more of the plurality of two-terminal cross-point memory arrays is configured for use as a non-volatile register.
17. The non-volatile FIFO of claim 13, wherein the active circuitry is configured to emulate, in at least a portion of one or more of the plurality of two-terminal cross-point memory arrays, at least one memory type selected from the group consisting of DRAM, SRAM, and FLASH.
18. The non-volatile FIFO of claim 1, wherein the active circuitry is configured to emulate at least one memory type selected from the group consisting of DRAM, SRAM, and FLASH.
19. The non-volatile FIFO of claim 1, wherein a write operation on one or more of the plurality of two-terminal non-volatile memory cells does not require an erase operation prior to the write operation.
20. The non-volatile FIFO of claim 1 and further comprising:
an integrated circuit that includes the FEOL portion and the BEOL portion.

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 hydraulic working machine provided with a hydraulic pump as a main pump, a variable displacement hydraulic motor actuated as a travel motor by pressure oil delivered from the main pump to allow a travel base to travel, a traveling directional control valve for controlling a flow of pressure oil to be fed from the main pump to the travel motor, a traveling control device for switchingly controlling the traveling directional control valve, a travel speed control unit for controlling a tilt angle of the travel motor in such a state that the travel motor revolves at one of two speeds consisting of a low speed and a high speed, and a boost control unit for controlling a maximum delivery pressure of the main pump,
said travel speed control unit being provided with a hydraulically-actuated, traveling tilt-angle control device for controlling the tilt angle of the travel motor, a travel speed selector part operably arranged to instruct selection of one of the low speed and high speed, and a traveling, hydraulic pressure oil feed part operably arranged to control hydraulic pressure oil, which is to be fed to the traveling tilt-angle control device, based on an instruction from the travel speed selector part, and
said boost control unit being provided with a hydraulically-actuated, relief pressure control part operably arranged to control a preset relief pressure at which the maximum delivery pressure of the main pump is to be regulated, a boost-pressure switching selector part operably arranged to instruct to select, as the preset relief pressure of the relief pressure control part, one of a normal-time relief pressure and a boost-time relief pressure which is a pressure higher than the normal-time relief pressure, and a boosting, hydraulic pressure oil feed part operably arranged to control hydraulic pressure oil, which is to be fed to the relief pressure control part, based on an instruction from the boost-pressure switching selector part, characterized in that:
the hydraulic working machine is provided with only a single hydraulic pressure oil feed part commonly usable as the traveling, hydraulic pressure oil feed part of the travel speed control unit and also as the boosting, hydraulic pressure oil feed part of the boost control unit.
2. The hydraulic working machine according to claim 1, wherein the relief pressure control part of the boost control unit comprises an adjustable relief valve.
3. The hydraulic working machine according to claim 2, wherein:
the single hydraulic pressure oil feed part is provided with a line communicating with both of the traveling tilt-angle control device of the travel speed control unit and the adjustable relief valve of the boost control unit, a solenoid valve for opening or closing the line, a pilot pump for delivering, into the line, pilot pressure oil as the hydraulic pressure oils that are to drive the traveling, tilt-angle control device and adjustable relief valve, and a controller for controlling the solenoid valve, and
the controller controls the solenoid valve such that responsive to an instruction from the travel speed selector part of the travel speed control unit, the travel motor is brought into a state of revolution at the low speed or a state of revolution at the high speed, or such that responsive to an instruction from the boost-pressure switching selector part of the boost control unit, the preset relief pressure of the adjustable relief valve is set at the normal-time relief pressure or boost-time relief pressure.
4. The hydraulic working machine according to claim 3, wherein:
the travel speed selector part is provided with a two-travel-speed selector switch electrically connected to the controller for instructing selection of one of the low speed and high speed as a revolution speed of the travel motor, a travel control performance detection part operably arranged to detect a manipulation of the traveling control device, and a delivery pressure detection part operably arranged to detect that a delivery pressure of the main pump has reached the preset pressure set beforehand,
the boost-pressure switching selector part is provided with a boost pressure selector switch electrically connected to the controller for instructing selection of one of the normal-time relief pressure and boost-time relief pressure as the preset relief pressure of the adjustable relief valve, a travel control non-performance detection part operably arranged to detect a non-manipulation of the traveling control device, and a delivery pressure detection part operably arranged to detect that the delivery pressure of the main pump has reached the preset pressure set beforehand,
the travel control performance detection part of the travel speed selector part and the travel control non-performance detection part of the boost-pressure switching selector part are provided with a travel-control detecting pressure sensor for outputting a travel detection signal in association with a manipulation of the traveling control device, and also with a travel control determination part arranged in the controller for determining, based on the travel detection signal, whether or not the traveling control device has been manipulated,
the delivery pressure detection part of the travel speed selector part and the delivery pressure detection part of the boost-pressure switching selector part are provided with a delivery-pressure detecting pressure sensor for outputting a delivery pressure detection signal commensurate with the delivery pressure of the main pump, and also with a boost determination part arranged in the controller for determining, based on the delivery pressure detection signal, whether or not the delivery pressure of the main pump has reached the preset pressure, and
when the delivery pressure of the main pump is determined by the boost determination part to have reached the preset pressure in a state that the tilt angle of the travel motor has been controlled to a small tilt angle commensurate with the high speed and the traveling control device is determined by the travel control determination part to be in a manipulated state, the controller controls the solenoid valve such that the tilt angle of the travel motor becomes a large tilt angle commensurate with the low speed, and when the delivery pressure of the main pump is determined by the boost determination part to have reached the preset pressure in a state that the preset relief pressure has been controlled at the normal-time relief pressure and the traveling control device is determined by the travel control determination part not to be in the manipulated state, the controller controls the solenoid valve such that the preset relief pressure increases to the boost-time relief pressure.
5. The hydraulic working machine according to claim 4, wherein:
the solenoid valve comprises a proportional solenoid valve, and
based on a result of determination by the travel control determination part that the traveling control device is in the manipulated state under a state that the selection of the high speed has been instructed by the two-travel-speed selector switch and a result of determination by the boost determination part that the delivery pressure of the main pump has not reached the predetermined pressure, the controller controls the proportional solenoid valve such that the tilt angle of the travel motor is controlled to the small tilt angle commensurate with the high speed and the preset relief pressure is controlled to the normal-time relief pressure.