Abstract: A method includes generating a plurality of correlation information based on correlations between changes in each item in each of different pairs of items in a plurality of items per unit period of time in a time series, calculating a similarity between one piece of correlation information and another piece of correlation information, clustering the plurality of pieces of correlation information in identifying at least one normal state of a computer system, wherein the plurality of pieces of correlation information are clustered into one or more clusters, each representing a state of the computer system, based on the calculated similarities, and displaying the one or more clusters including an indication of an anomaly in the state of the computer system when a piece of correlation information is not clustered with at least one cluster identified as normal state of the computer system.

Abstract: A method includes generating a plurality of pieces of correlation information based on correlations between changes in each item in each of different pairs of items in a plurality of items per unit period of time in a time series, each item relating to at least one of an operation, a performance, or a load in a computer system, each of the plurality of pieces of correlation information being generated for the plurality of items in one unit period of time in the time series, clustering the plurality of pieces of correlation information into a plurality of clusters, each cluster representing a state of the computer system and including a subset of the plurality of pieces of correlation information meeting a threshold for similarity, generating transition probabilities between each pair of the plurality of clusters, and determining an anomaly in the computer system based on the transition probability.

Abstract: A semiconductor device includes: a receiving circuit which receives communication frames each transmitted with a first period or a second period that are different from each other and including a synchronization code and data; a logic circuit which has a first operation state in which the received communication frames are each processed as data other than a digital video signal, and a second operation state in which the received communication frames are each processed as the digital video signal; a detecting circuit which detects the synchronization code from each of the received communication frames; a measuring circuit which measures a period of the detected synchronization code; and a determining circuit which determines the measured period. The logic circuit substantially makes a transition to the first operation state or the second operation state according to a result of the determining.

Abstract: A display device driver that can display images while preventing noise and suppressing display unevenness is provided. When pixel drive voltages corresponding to the luminance levels of respective pixels indicated by a video signal are applied to the data lines of the display device, the pixel drive voltages are applied to data lines that intersect the scanning lines of the display device at positions where the delay time is larger, at timing later than timing of applying the pixel drive voltages to the data lines that intersect the scanning lines at positions where the delay time is smaller, the delay time being a period of time between start of application of the scanning pulse by the scanning driver and actual arrival of the scanning pulse.

Abstract: A substrate processing device includes a holding member for holding a substrate, and an opposed member having a body portion and an extended portion extending from at least a part of a peripheral edge part of the body portion. A protrusion is provided on one part of a tip side part of the extended portion and a side surface part of the holding member, and the other part is provided with a restricting structure disposed opposite to the protrusion and restricting relative motion of the protrusion. The relative motion between the holding member and the opposed member is restricted, and the substrate processing device further includes a rotating mechanism, and a nozzle for discharging a processing solution and the protrusion and the restricting structure are disposed below an upper surface of the holding member.

Abstract: A substrate treatment method employs a substrate holding unit, a gas ejection nozzle, and a gas supply unit. The substrate holding unit is configured to hold a substrate. The gas supply unit is configured to supply a gas to the gas ejection nozzle. The gas ejection nozzle is disposed to be positioned adjacent a center portion of the substrate held by the substrate holding unit. The gas ejection nozzle has a gas ejection port. The gas ejection nozzle is configured to eject the gas radially from the gas ejection port over the substrate held by the substrate holding unit to form a gas-flow for covering the substrate.

Abstract: A line-shaped material conveyance mechanism includes first and second support members, a guide groove, a first rotary arm, and a second rotary arm. One end of the first rotary arm is pivotally supported near the guide groove by a first rotary shaft. The other end of the first rotary arm connects one end of the second rotary arm in a state that can be rotated. A third support member is disposed on the other end of the second rotary arm. The third support member is guided and moves along the guide groove by rotating the first rotary arm around the first rotary shaft.

Abstract: A display device driver that can display images while preventing noise and suppressing display unevenness is provided. When pixel drive voltages corresponding to the luminance levels of respective pixels indicated by a video signal are applied to the data lines of the display device, the pixel drive voltages are applied to data lines that intersect the scanning lines of the display device at positions where the delay time is larger, at timing later than timing of applying the pixel drive voltages to the data lines that intersect the scanning lines at positions where the delay time is smaller, the delay time being a period of time between start of application of the scanning pulse by the scanning driver and actual arrival of the scanning pulse.

Abstract: First to N-th latches capture N pieces of pixel data indicative of the luminance levels of respective pixels in synchronization with first to N-th capture clock signals each having different edge timing. Voltages corresponding to the pieces of pixel data output from the first to N-th latches are applied to each of the data lines of the display device. In this case, first to N-th flip-flops formed in an N-stage shift register capture a single pulse load signal which is synchronized with a horizontal synchronizing signal in a video signal while sequentially shifting the load signal to subsequent stages in synchronization with a reference timing signal supplied from the outside. Outputs of the first to N-th flip-flops in the N-stage shift register are supplied as first to N-th capture clock signals, to the first to N-th latches, respectively.

Abstract: A substrate treatment apparatus includes: a chamber; a substrate being treated with a treatment liquid in the chamber; a temperature measuring unit which measures an internal air temperature of the chamber and/or a temperature of the treatment liquid; a temperature adjusting unit which changes the internal air temperature and/or the temperature of the treatment liquid; a storage unit which stores a map defining a relationship between the air temperature and the treatment liquid temperature so that a treatment liquid temperature level for a given air temperature level is lower than the given air temperature level; and a temperature controlling unit which sets a target value of the internal air temperature of the chamber or the temperature of the treatment liquid based on the map and a measurement value detected by the temperature measuring unit, and controls the temperature adjusting unit based on the target value.

Abstract: A line-shaped material conveyance mechanism includes first and second support members, a guide groove, a first rotary arm, and a second rotary arm. One end of the first rotary arm is pivotally supported near the guide groove by a first rotary shaft. The other end of the first rotary arm connects one end of the second rotary arm in a state that can be rotated. A third support member is disposed on the other end of the second rotary arm. The third support member is guided and moves along the guide groove by rotating the first rotary arm around the first rotary shaft.

Abstract: Disclosed is a locking mechanism which can perform the reduction of non-actual working hours of the library apparatus. The locking mechanism includes a first locking unit which fits with a cutout provided on a side surface of an object to be locked, the object being formed with a plurality of surfaces and the side surface being one of the surfaces in a insertion/extraction direction of the object; and a second locking unit, provided on an opposite side of the first locking unit in a manner sandwiching the object, which includes a contact member which is in contact with a back surface of the object, the back surface being one of the surfaces and far from a slot to/from which the object is inserted/extracted, wherein at least a part of the contact member is located in a path of the object.

Abstract: Disclosed is a locking mechanism which can perform the reduction of non-actual working hours of the library apparatus. The locking mechanism including: a first locking unit which fits with a cutout provided on a side surface of an object to be locked, the object being formed with a plurality of surfaces and the side surface being one of the surfaces in a insertion/extraction direction of the object; and a second locking unit, provided on an opposite side of the first locking unit in a manner sandwiching the object, which includes a contact member being contact with a back surface of the object, the back surface being one of the surfaces and far from a slot to/from which the object is inserted/extracted, wherein at least a part of the contact member being located in a path of the object.

Abstract: The moving body separating device includes a separating device main body, which separates an upstream-side moving body disposed on a base plate to be movable in a straight-line direction and a downstream-side moving body connected to the upstream-side moving body on the base plate at a prescribed separating point when moving to a downstream side. The separating device main body includes a rotary body for pushing out the downstream-side moving body towards the downstream side through a rotary action, a supporting shaft held by the upstream-side moving body for supporting the rotary body to be freely rotatable, and an original-position returning spring held by the supporting shaft for returning the rotary body to an original position. A protrusion member which applies a rotary pressure force to the rotary body is fixed at a prescribed separating point on the base plate by corresponding to one end part of the rotary body.

Abstract: A substrate treatment apparatus includes: a chamber; a substrate being treated with a treatment liquid in the chamber; a temperature measuring unit which measures an internal air temperature of the chamber and/or a temperature of the treatment liquid; a temperature adjusting unit which changes the internal air temperature and/or the temperature of the treatment liquid; a storage unit which stores a map defining a relationship between the air temperature and the treatment liquid temperature so that a treatment liquid temperature level for a given air temperature level is lower than the given air temperature level; and a temperature controlling unit which sets a target value of the internal air temperature of the chamber or the temperature of the treatment liquid based on the map and a measurement value detected by the temperature measuring unit, and controls the temperature adjusting unit based on the target value.

Abstract: A storage medium exchanging device to discharge a movable cell, which is one of plural magazine cells for storing a storage medium inserted from a doorway, and to store the movable cell, include a carrying part on which the movable cell is mounted; and a wrong insertion preventing part which generates discharging force to make the carrying part discharge from the magazine and blocks at least a part of a non-doorway of the discharged movable cell.

Abstract: Provided are: a first entry preventing nail that interferes with a cartridge at a position closer to an insertion/extraction port than an insertion completed position of an insertion-side end face of the cartridge inserted first; a second entry preventing nail at a position with a space from the first entry preventing nail slightly longer than length of the cartridge, which allows entry of the cartridge and retreat of the first entry preventing nail at that position when a tapered face of the cartridge is at that position while preventing the entry of the cartridge and retreat of the first entry preventing nail at that position when the tapered face of the cartridge is not at that position; and a linkage module which allows advancing and retreating actions of the first and second entry preventing nails in a tradeoff relation.

Abstract: A substrate treatment apparatus includes a substrate holding unit, a gas ejection nozzle, and a gas supply unit. The substrate holding unit is configured to hold a substrate. The gas supply unit is configured to supply a gas to the gas ejection nozzle. The gas ejection nozzle is disposed to be positioned adjacent a center portion of the substrate held by the substrate holding unit. The gas ejection nozzle has a gas ejection port. The gas ejection nozzle is configured to eject the gas radially from the gas ejection port over the substrate held by the substrate holding unit to form a gas-flow for covering the substrate.

Abstract: To provide a magnetic tape library device with which a plurality of housed magazines can be extracted safely from the device with the same operation, while the device is made to be simple. The magnetic tape library device includes: a plurality of magazines for housing a plurality of magnetic tape cartridges inside thereof; a device main body for housing the magazines within a same plane in a freely movable manner and in series in an inserting/extracting direction from an inserting/extracting slot; a connecting mechanism for enabling the plurality of magazines to be connected with each other or to be released by a releasing operation from outside; and a locking mechanism for enabling at least the magazine on the back side of the inserting/extracting direction of the device main body, among the plurality of magazines, to be locked or to be released from the locked state at the inserting/extracting slot side.

Abstract: A display panel drive device for applying a drive pulse to data lines of a display panel according to a video signal includes a latch portion and an output amplifier. The latch portion includes a first latch section, a delay circuit, and a second latch section. The first latch section is provided for capturing the pixel data pieces or retaining the pixel data pieces. The delay circuit is provided for generating a delayed load clock signal. The second latch section is provided for capturing the pixel data pieces or retaining the pixel data pieces. The delayed load clock signal is transited to the first level state after a first delay time, and the delayed load clock signal is transited to the second level state after a second delay time shorter than the first delay time.