mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: a refrigerant circuit having a heat source unit (2a to 2c) that has a compression mechanism (21a to 21c) and a heat source side heat exchanger (24a to 24c), a refrigerant communication pipe (4, 5) to which the heat source unit (2a to 2c) is connected, an expansion mechanism (29a to 29c, 31a, 31b,...), and a utilization unit (3a, 3b,...) that has a utilization side heat exchanger (32a, 32b,...) and that is connected to the refrigerant communication pipe (4, 5), refrigerant stagnation judging means (8a to 8c) configured to judge whether a refrigerant is stagnant in refrigeration machine oil inside the compression mechanism (21a to 21c); and an operation controller (6a to 6c), characterized in that said controller is configured to perform a refrigerant de-stagnation operation for eliminating stagnation of the refrigerant in refrigeration machine oil in the case that the refrigerant stagnation judging means (8a to 8c) has judged in advance that the refrigerant is stagnant in refrigeration machine oil inside the compression mechanism (21a to 21c) before a refrigerant quantity judging operation for judging a quantity of refrigerant inside the refrigerant circuit is carried out. a refrigerant circuit having a heat source unit (2a to 2c) that has a compression mechanism (21a to 21c) and a heat source side heat exchanger (24a to 24c), a refrigerant communication pipe (4, 5) to which the heat source unit (2a to 2c) is connected, an expansion mechanism (29a to 29c, 31a, 31b,...), and a utilization unit (3a, 3b,...) that has a utilization side heat exchanger (32a, 32b,...) and that is connected to the refrigerant communication pipe (4, 5), refrigerant stagnation judging means (8a to 8c) configured to judge whether a refrigerant is stagnant in refrigeration machine oil inside the compression mechanism (21a to 21c); and an operation controller (6a to 6c), characterized in that said controller is configured to perform a refrigerant de-stagnation operation for eliminating stagnation of the refrigerant in refrigeration machine oil in the case that the refrigerant stagnation judging means (8a to 8c) has judged in advance that the refrigerant is stagnant in refrigeration machine oil inside the compression mechanism (21a to 21c) before a refrigerant quantity judging operation for judging a quantity of refrigerant inside the refrigerant circuit is carried out.
A method executed by a network processor implementing a pipeline for processing a data packet, where the pipeline includes a plurality of logical blocks (402, 408; 452, 458, 462), where each of the plurality of logical blocks is configured to process a stage of the pipeline, where the data packet includes a descriptor and a data, and where the network processor is coupled to a resource for storing the data, the method to reduce latency and enable non-blocking processing of the data packet by forwarding a unique identification of a write request from a first logical block in the plurality of logical blocks (402, 408; 452, 458, 462) to a second logical block in the plurality of logical blocks that is subsequent to the first logical block, the write request to modify the data in the resource, the method comprising the steps of: receiving the descriptor of the data packet for processing at the first logical block in the pipeline executed by the network processor; generating the write request and the unique identification of the write request at the first logical block; transmitting the write request from the first logical block to the resource; and transmitting the unique identification from the first logical block toward the second logical block before an acknowledgment of the write request is returned by the resource; further comprising the steps of: receiving the unique identification at the second logical block; monitoring for the acknowledgement of the write request from the resource at the second logical block; and processing the descriptor in response to receiving the acknowledgment of the write request. receiving the descriptor of the data packet for processing at the first logical block in the pipeline executed by the network processor; generating the write request and the unique identification of the write request at the first logical block; transmitting the write request from the first logical block to the resource; and transmitting the unique identification from the first logical block toward the second logical block before an acknowledgment of the write request is returned by the resource; further comprising the steps of: receiving the unique identification at the second logical block; monitoring for the acknowledgement of the write request from the resource at the second logical block; and processing the descriptor in response to receiving the acknowledgment of the write request. receiving the unique identification at the second logical block; monitoring for the acknowledgement of the write request from the resource at the second logical block; and processing the descriptor in response to receiving the acknowledgment of the write request.
A fat or oil composition, comprising the following components,, and: 0.10 mass% or more and 1.50 mass% or less of free α-linolenic acid; 0.3 mass% or more and 1.5 mass% or less of α-linolenic acid monoacylglycerol; and 65 mass% or more of diacylglycerols, wherein a content mass ratio of the component to the component, [ /], is 0.10 or more and 3.00 or less. 0.10 mass% or more and 1.50 mass% or less of free α-linolenic acid; 0.3 mass% or more and 1.5 mass% or less of α-linolenic acid monoacylglycerol; and 65 mass% or more of diacylglycerols,
An electrolyte sheet for a solid oxide fuel cell, the sheet having a thickness of 50 to 300 μm, wherein in at least one of principal surfaces of the sheet, a burr height [ΔH] in a first zone is 100 μm or less, as measured by irradiating the principal surface of the sheet with a laser beam at a pitch of 0.01 mm and three-dimensionally analyzing light reflected from the principal surface using a laser optical three-dimensional shape measurement device, the first zone being a zone extending between a peripheral edge of the sheet and a position 3 mm inside the peripheral edge, and characterized in that in said at least one of principal surfaces a ratio [ΔH (0.61-3) / ΔH (0-0.6)] of a burr height [ΔH (0.61-3)] in a third zone to a burr height [ΔH (0-0.6)] in a second zone is 0.5 or more and 2.0 or less, as calculated from the burr heights measured by irradiating the principal surface of the sheet with a laser beam at a pitch of 0.01 mm and three-dimensionally analyzing light reflected from the principal surface using the laser optical three-dimensional shape measurement device, the second zone being a zone extending between the peripheral edge of the sheet and a position 0.6 mm inside the peripheral edge, and the third zone being a zone extending between a position 0.61 mm inside the peripheral edge of the sheet and the position 3 mm inside the peripheral edge. a burr height [ΔH] in a first zone is 100 μm or less, as measured by irradiating the principal surface of the sheet with a laser beam at a pitch of 0.01 mm and three-dimensionally analyzing light reflected from the principal surface using a laser optical three-dimensional shape measurement device, the first zone being a zone extending between a peripheral edge of the sheet and a position 3 mm inside the peripheral edge, and characterized in that in said at least one of principal surfaces a ratio [ΔH (0.61-3) / ΔH (0-0.6)] of a burr height [ΔH (0.61-3)] in a third zone to a burr height [ΔH (0-0.6)] in a second zone is 0.5 or more and 2.0 or less, as calculated from the burr heights measured by irradiating the principal surface of the sheet with a laser beam at a pitch of 0.01 mm and three-dimensionally analyzing light reflected from the principal surface using the laser optical three-dimensional shape measurement device, the second zone being a zone extending between the peripheral edge of the sheet and a position 0.6 mm inside the peripheral edge, and the third zone being a zone extending between a position 0.61 mm inside the peripheral edge of the sheet and the position 3 mm inside the peripheral edge.
A system, comprising: a multi-winding device having a primary winding and a plurality of three-phase secondary windings; a plurality of power cells, wherein each power cell is connected to a different three-phase secondary winding of the multi-winding device by input terminals (A, B, C) and provides an output current through first and second output terminals (T1, T2), the plurality of power cells being connected in series by their output terminals; and a bypass device (250, 270) comprising a first contact (262, 276) having stationary portions and a movable portion, wherein the first contact is connected to a first of the input terminals; a second contact (266, 278) having stationary portions and a movable portion, wherein the second contact is connected to a second of the input terminals; and a third contact (258, 274) having stationary portions and a movable portion, wherein the third contact is connected to the first and second output terminals (T1, T2); such that, in the event that a power cell should fail, the bypass device is operable to disconnect the first and second input terminals (A, C) from the secondary winding, and to disconnect one of the output terminals and create a shunt path for the current that formerly passed through the failed power cell, while maintaining the series connection of other power cells of the plurality of power cells, to provide full bypass of the power cell by the creation of the shunt path and the disconnection of cell input power from at least two of the cell input terminals. a multi-winding device having a primary winding and a plurality of three-phase secondary windings; a plurality of power cells, wherein each power cell is connected to a different three-phase secondary winding of the multi-winding device by input terminals (A, B, C) and provides an output current through first and second output terminals (T1, T2), the plurality of power cells being connected in series by their output terminals; and a bypass device (250, 270) comprising a first contact (262, 276) having stationary portions and a movable portion, wherein the first contact is connected to a first of the input terminals; a second contact (266, 278) having stationary portions and a movable portion, wherein the second contact is connected to a second of the input terminals; and a third contact (258, 274) having stationary portions and a movable portion, wherein the third contact is connected to the first and second output terminals (T1, T2); such that, in the event that a power cell should fail, the bypass device is operable to disconnect the first and second input terminals (A, C) from the secondary winding, and to disconnect one of the output terminals and create a shunt path for the current that formerly passed through the failed power cell, while maintaining the series connection of other power cells of the plurality of power cells, to provide full bypass of the power cell by the creation of the shunt path and the disconnection of cell input power from at least two of the cell input terminals.
Disposable pallet comprising - a support element, which at least partly consists of a wooden material and has an upper side to support a load and an underside opposite the upper side - and a plurality of feet, which consist of a plastic and are detachably arranged on the underside of the support element, characterized in that each foot is arranged on the support element by means of at least one fixing clip, wherein the fixing clip is plugged into a hole in the support element from the upper side and has deformable hook elements which are introduced into an opening provided for this purpose in the foot, the hook elements being deformed. - a support element, which at least partly consists of a wooden material and has an upper side to support a load and an underside opposite the upper side - and a plurality of feet, which consist of a plastic and are detachably arranged on the underside of the support element,
Acoustic antenna comprising at least one acoustic module and at least one accelerometer device, said acoustic module comprising one or more acoustic sensors mounted on at least one printed circuit board and a processing unit configured to determine acceleration references, said acoustic sensors delivering electrical signals by using acceleration references provided by at least one accelerometer device, characterized in that at least one acoustic module comprises an accelerometer device configured to determine the acceleration of the antenna along three axes X, Y and Z of a system of main orthonormal reference (X, Y, Z), the X axis corresponding to the roll axis of the acoustic antenna, the Z axis corresponds to the pitch axis of the acoustic antenna and the axis Y corresponds to the yaw axis of the acoustic antenna, the accelerometer device comprising a set of N accelerometer sensors of MEMS-type (11, 12, 13), said accelerometer sensors being mounted on at least one of the printed circuit boards, said accelerometer sensors comprising at least three accelerometer sensors mounted on both sides of said at least one printed circuit board, the position of each accelerometer sensor (11, 12, 13) being defined in an auxiliary reference system comprising 3 orthonormal axes (Xi, Yi, Zi), the plane (Xi, Yi) defining the plane of each accelerometer sensor and being parallel to the plane (X, Z) of the reference system, and in that, for each pair of sensors of said set of accelerometer sensors - the accelerometer sensors of the pair have, in twos, components of opposite sign along two axes of the main reference system; and - the axes of the reference system along which the components of the accelerometer sensors are, in twos, opposite on the set of the pairs of sensors comprise at least two of the three axes X, Y and Z of the main system reference, each accelerometer sensor (11, 12, 13) being configured to determine the acceleration of the acoustic antenna along each axis X, Y and Z, the processing unit being configured to determine an acceleration reference for each axis of the reference system from the accelerations measured by each of said pairs of accelerometer sensors. - the accelerometer sensors of the pair have, in twos, components of opposite sign along two axes of the main reference system; and - the axes of the reference system along which the components of the accelerometer sensors are, in twos, opposite on the set of the pairs of sensors comprise at least two of the three axes X, Y and Z of the main system reference,
A method of operating a base station in a carrier aggregation system, the method comprising: transmitting downlink control information, DCI, including a downlink assignment index, DAI, through an enhanced physical downlink control channel, E-PDCCH, of a first subframe; transmitting data scheduled by the DCI through a physical downlink shared channel, PDSCH, of the first subframe; and receiving acknowledgement, ACK,/negative-acknowledgement, NACK, for the data through a physical uplink control channel, PUCCH, in a second subframe, wherein the DCI transmitted in the E-PDCCH includes an ACK/NACK resource offset, ARO, field which is not present in DCI transmitted in a physical downlink control channel, PDCCH, and wherein when the DAI value is greater than 1, the ARO field is used to select an RRC field and thereby determine a single resource among a plurality of PUCCH resources pre-set explicitly by RRC fields within an RRC message transmitted through a higher layer signal, and the single resource is used to receive the ACK/NACK. transmitting downlink control information, DCI, including a downlink assignment index, DAI, through an enhanced physical downlink control channel, E-PDCCH, of a first subframe; transmitting data scheduled by the DCI through a physical downlink shared channel, PDSCH, of the first subframe; and receiving acknowledgement, ACK,/negative-acknowledgement, NACK, for the data through a physical uplink control channel, PUCCH, in a second subframe, wherein the DCI transmitted in the E-PDCCH includes an ACK/NACK resource offset, ARO, field which is not present in DCI transmitted in a physical downlink control channel, PDCCH, and wherein when the DAI value is greater than 1, the ARO field is used to select an RRC field and thereby determine a single resource among a plurality of PUCCH resources pre-set explicitly by RRC fields within an RRC message transmitted through a higher layer signal, and the single resource is used to receive the ACK/NACK.
An electrophotographic photoconductor comprising: a conductive support, a charge generating layer, a hole transporting layer, and a hole transporting-protective layer, the charge generating layer, the hole transporting layer and the hole transporting-protective layer being laminated in this order on the conductive support, wherein the hole transporting-protective layer comprises a three-dimensionally crosslinked product which is obtained through chain polymerization of at least a radical polymerizable hole-transporting compound by irradiating the radical polymerizable hole-transporting compound with an active energy beam, and wherein the hole transporting-protective layer contains an oxazole compound represented by General Formula or below: where R 1 and R 2 each represent a hydrogen atom or an alkyl group having 1 to 4 carbon atoms and may be identical to or different from each other; X represents a vinylene group, a divalent group of an aromatic hydrocarbon having 6 to 14 carbon atoms or a 2,5-thiophendiyl group, where Ar 1 and Ar 2 each represent a univalent group of an aromatic hydrocarbon having 6 to 14 carbon atoms, and may be identical to or different from each other; Y represents a divalent group of an aromatic hydrocarbon having 6 to 14 carbon atoms; and R 3 and R 4 each represent a hydrogen atom or a methyl group and may be identical to or different from each other. a conductive support, a charge generating layer, a hole transporting layer, and a hole transporting-protective layer,
A compound having the formula: wherein R 1 is C 1 -C 10 alkyl or C 5 -C 10 aryl optionally substituted with one or more of hydroxyl, halo, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -O R 2, NR 3 2, wherein R 2 is C 1 -C 6 alkyl and wherein each R 3 is independently H or C 1 -C 6 alkyl, or a pharmaceutically acceptable salt thereof, for use in the treatment of psoriasis. wherein R 1 is C 1 -C 10 alkyl or C 5 -C 10 aryl optionally substituted with one or more of hydroxyl, halo, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, -O R 2, NR 3 2, wherein R 2 is C 1 -C 6 alkyl and wherein each R 3 is independently H or C 1 -C 6 alkyl, or a pharmaceutically acceptable salt thereof, for use in the treatment of psoriasis.
An internal combustion engine provided with a variable compression ratio mechanism, the engine comprising a turbocharger and an electronic control unit, wherein the electronic control unit is configured to control an opening degree of a wastegate valve to a target opening degree for each engine operating state, and, characterized in that when an ignition timing is retarded to suppress the occurrence of knocking and a mechanical compression ratio of the given operating state is decreased subsequent to the ignition timing retardation, the target opening degree of the wastegate valve for a current engine operating state is corrected to the increasing side.
Method for the detection and reproduction of speech radio messages (SF; SF 1, SF 2) outputted via wireless radio signals from a plurality of transmitters at an air traffic controller workplace, wherein it is investigated whether several speech radio messages (SF; SF 1, SF 2) incoming to the air traffic controller workplace superimpose one another temporally, and in this case - one of the speech radio messages (SF; SF 1, SF 2) is prioritised and outputted immediately at the air traffic controller workplace, - the at least one other speech radio message is intermediately stored, and - the at least one intermediately stored speech radio message (SF 2) is outputted at the air traffic controller workplace after the end of the prioritised speech radio message (SF 1). characterised in that during the time period after the end of the prioritised and/or all superimposed incoming speech radio messages (SF 1, SF 2) a speech message is transmitted to all transmitters, which lasts at least until the at least one intermediately stored speech radio message (SF 2) is outputted at the air traffic controller workplace. - one of the speech radio messages (SF; SF 1, SF 2) is prioritised and outputted immediately at the air traffic controller workplace, - the at least one other speech radio message is intermediately stored, and - the at least one intermediately stored speech radio message (SF 2) is outputted at the air traffic controller workplace after the end of the prioritised speech radio message (SF 1).
Topical mucoadhesive compositions comprising hyaluronic acid or a salt thereof, choline alfoscerate, ascorbyl palmitate at a concentration ranging between 0.050% w/w and 0.0004% w/w, and at least one pharmaceutically acceptable excipient or carrier.
An axial coupling arrangement between first and second elements, said elements being arranged for rotation about an axis, said first element comprising a general elongate shaft, having a coupling portion arranged about an axial section of the shaft and said second element comprising a body having a bore defined therein, with an coupling portion about an axial section of the bore; said elements being coupled by way of a spheroidal coupling member, the arrangement further comprising a resilient element operable to provide an axial force of separation when the coupling portions are axially aligned: wherein a coupling portion associated with one of the first and second elements comprises a surface operable to provide two point contact surfaces (S, S) for abutment with the spheroidal coupling member in a coupling mode; characterised in that a coupling portion associated with the other of the first and second elements comprises a chamber operable to provide three point contact surfaces (B, V, V) for abutment with the spheroidal coupling member in a coupling mode, the chamber being operable to retain the spheroidal coupling member in a non-coupling mode; the arrangement being such that, in a coupling mode, the spheroidal coupling member is contacted by the respective contact points, the resilient forces causing forces from the respective contact points to act through the spheroidal coupling member, preventing separation of the first and second elements, the contact surfaces thereby ensuring defined rotational and axial alignment between the first and second elements. wherein a coupling portion associated with one of the first and second elements comprises a surface operable to provide two point contact surfaces (S, S) for abutment with the spheroidal coupling member in a coupling mode; characterised in that a coupling portion associated with the other of the first and second elements comprises a chamber operable to provide three point contact surfaces (B, V, V) for abutment with the spheroidal coupling member in a coupling mode, the chamber being operable to retain the spheroidal coupling member in a non-coupling mode; the arrangement being such that, in a coupling mode, the spheroidal coupling member is contacted by the respective contact points, the resilient forces causing forces from the respective contact points to act through the spheroidal coupling member, preventing separation of the first and second elements, the contact surfaces thereby ensuring defined rotational and axial alignment between the first and second elements.