mhurhangee/ep-ind-claims huggingface dataset:
Liquid-crystalline medium characterized in that it comprises one or more compounds of formula S in which denotes denotes, in each occurrence independently of each other, or n denotes 1 or 2, R S denotes alkyl, alkoxy, fluorinated alkyl or fluorinated alkoxy having 1 to 7 C atoms, wherein one -CH 2 -group may be replaced by cyclopropylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclopropylene or 1,3-cyclopentylene, alkenyl, alkenyloxy, alkoxyalkyl or fluorinated alkenyl having 2 to 7 C atoms, wherein one -CH 2 - group may be replaced by cyclopropylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclopropylene or 1,3-cyclopentylene, and X S denotes F, Cl, CF 3 or OCF 3. n denotes 1 or 2, R S denotes alkyl, alkoxy, fluorinated alkyl or fluorinated alkoxy having 1 to 7 C atoms, wherein one -CH 2 -group may be replaced by cyclopropylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclopropylene or 1,3-cyclopentylene, alkenyl, alkenyloxy, alkoxyalkyl or fluorinated alkenyl having 2 to 7 C atoms, wherein one -CH 2 - group may be replaced by cyclopropylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclopropylene or 1,3-cyclopentylene, and X S denotes F, Cl, CF 3 or OCF 3.
Cranial drilling device comprising: - at least a substantially tubular stopping member having an end supporting portion positionable in contact on the surface of a skull; - at least a milling device with a first end fitted with a hollow cutter and with a second end fitted with an attachment element able to connect said milling device to a rotating spindle and comprising a substantially elongated central member placed between said first end and said second end, said hollow cutter being at least partly fitted rotatable in said stopping member and being movable along said stopping member; - adjusting means (9, 14, 15, 16, 17) able to adjust the position of said hollow cutter with respect to said stopping member wherein said adjusting means (9, 14, 15, 16, 17) comprise at least a ring nut element associated integral with said stopping member and associated movable with said central member and sliding means (14, 15) of said ring nut element along said central member characterized by the fact that said adjusting means further comprise locking means (16, 17) able to maintain said ring nut element in a stable position with respect to said central member, and by the fact that said locking means (16, 17) comprise at least a protruding element associated with at least one of said central member and said ring nut element, and at least a housing seat made on the other of said central member and said ring nut element, wherein said protruding element is engageable in said housing seat. - at least a substantially tubular stopping member having an end supporting portion positionable in contact on the surface of a skull; - at least a milling device with a first end fitted with a hollow cutter and with a second end fitted with an attachment element able to connect said milling device to a rotating spindle and comprising a substantially elongated central member placed between said first end and said second end, said hollow cutter being at least partly fitted rotatable in said stopping member and being movable along said stopping member; - adjusting means (9, 14, 15, 16, 17) able to adjust the position of said hollow cutter with respect to said stopping member
A method of allocating using an OFDM resource space (1100, 1200, 1300,1400,1500) comprising: broadcasting a resource allocation map, the resource allocation map being a downlink mapping component, the resource allocation map comprising a root map, the root map comprising pointers to a downlink map region of a plurality of downlink sub-maps (216, 220), the downlink sub-maps (216, 220) being subsidiary downlink mapping components, each pointer being associated with a connection identifier or allocation code that specifies a group of mobile terminals to which the respective downlink sub-map is applicable, wherein the grouping of mobile terminals is based on an operating mode of the mobile terminals; transmitting the plurality of downlink sub-maps (216, 220) in the downlink map region pointed to by the pointers in the root map, each downlink sub-map (216, 220) containing information allowing a determination of a respective location in the OFDM resource space (1100, 1200, 1300, 1400, 1500) where each of at least one sub-burst (812, 814, 816, 818, 820, 822, 824, 826) is located; transmitting each sub-burst (812, 814, 816, 818, 820, 822, 824, 826) in the respective location in the OFDM resource space (1100, 1200, 1300, 1400, 1500). broadcasting a resource allocation map, the resource allocation map being a downlink mapping component, the resource allocation map comprising a root map, the root map comprising pointers to a downlink map region of a plurality of downlink sub-maps (216, 220), the downlink sub-maps (216, 220) being subsidiary downlink mapping components, each pointer being associated with a connection identifier or allocation code that specifies a group of mobile terminals to which the respective downlink sub-map is applicable, wherein the grouping of mobile terminals is based on an operating mode of the mobile terminals; transmitting the plurality of downlink sub-maps (216, 220) in the downlink map region pointed to by the pointers in the root map, each downlink sub-map (216, 220) containing information allowing a determination of a respective location in the OFDM resource space (1100, 1200, 1300, 1400, 1500) where each of at least one sub-burst (812, 814, 816, 818, 820, 822, 824, 826) is located; transmitting each sub-burst (812, 814, 816, 818, 820, 822, 824, 826) in the respective location in the OFDM resource space (1100, 1200, 1300, 1400, 1500).
An aqueous composition for treating a substrate, said composition comprising: a 2-22 % by weight of a surfactant complex, selected from cationic and anionic surfactants, wherein the cationic to anionic surfactant weight ratio is in the range of 1:1 and 6:1, b 0.5- 10% by weight of a non-ionic polymer having a molecular weight of less than 50ku and a HLB value in the range of 12.5 and 18, c 1-7% by weight of a chelating agent, selected from hydroxamates of the formula R-CO-NH-OM wherein, R is an alkyl, aryl or alkylaryl group having 6-20 carbon atoms; and M is hydrogen or an alkali metal. a 2-22 % by weight of a surfactant complex, selected from cationic and anionic surfactants, wherein the cationic to anionic surfactant weight ratio is in the range of 1:1 and 6:1, b 0.5- 10% by weight of a non-ionic polymer having a molecular weight of less than 50ku and a HLB value in the range of 12.5 and 18, c 1-7% by weight of a chelating agent, selected from hydroxamates of the formula R-CO-NH-OM wherein, R is an alkyl, aryl or alkylaryl group having 6-20 carbon atoms; and M is hydrogen or an alkali metal.
An augmented glenoid component for securement to a glenoid surface of a scapula so as to provide a bearing surface for a head portion of a humerus, the augmented glenoid component comprising: a body, a first surface on the body and configured to contact the glenoid surface of the scapula, a second surface on the body and configured to be contacted by the head portion of the humerus, and a raised step portion formed in the first surface of the body, so that the first surface of the body comprises a top surface and a medial surface, and a side surface which extends between the top surface and the medial surface in which the raised step portion is provided by the top surface and the side surface, characterised in that the raised step portion has at least one stabilising post which extends entirely from the top surface of the raised step portion and which is adapted to be received in a hole formed or prepared in the glenoid surface of the scapula. a body, a first surface on the body and configured to contact the glenoid surface of the scapula, a second surface on the body and configured to be contacted by the head portion of the humerus, and a raised step portion formed in the first surface of the body, so that the first surface of the body comprises a top surface and a medial surface, and a side surface which extends between the top surface and the medial surface in which the raised step portion is provided by the top surface and the side surface,
Device for supporting and guiding a hauling cable of a vehicle transportation installation, comprising a support structure, a first movable member (5 to 7), a second movable member (6 to 11), and an axis (13 to 19) mounted fixed on the first movable member (5 to 7), and enabling the second movable member (6 to 11) to swivel with respect to the support structure and to the first movable member (5 to 7), the axis (13 to 19) having a body extending along a longitudinal direction, the first movable member (5 to 7) comprising two lateral flanges forming an inner space for the second movable member (6 to 11) to pass through, characterised in that the two ends of the axis (13 to 19) are located respectively salient from the two lateral flanges and outside the inner space, and in that a through opening is formed inside the axis (13 to 19) and extends between the two ends of the axis (13 to 19), and in that at least one stop (30 to 37) is located facing the through opening and configured to limit a translation of the axis (13 to 19) in the longitudinal direction, a through hole (40, 41) being formed inside said at least one stop (30 to 37).
An apparatus, comprising: a block (BLK, BLK0-BLK3) comprising memory cells, the memory cells are arranged in NAND strings (NS1, NS2, 700n-703n, 710n-713n, 720n-723n, 730n-733n) and connected to a set of word lines (WLL0-WLL10); and a control circuit (110, 112, 114, 116, 122, 128, 132), the control circuit is configured to perform a countermeasure for a first read situation in the block, wherein: the countermeasure is a function of a temperature; the block is in the first read situation if no sensing operation has occurred in the block since a last power on event or if a time period since a last sensing operation in the block exceeds a threshold; the memory cells are programmed to different programmed data states (A-G, S1-S15) including a lowest programmed data state (A, S1) and a highest programmed data state (G, S15); and to perform the countermeasure, the control circuit is configured to set a read voltage (VrA, VrS1) of the lowest programmed data state according to a positive temperature coefficient, and to set a read voltage (VrG, VrS15) of the highest programmed data state according to a negative temperature coefficient. a block (BLK, BLK0-BLK3) comprising memory cells, the memory cells are arranged in NAND strings (NS1, NS2, 700n-703n, 710n-713n, 720n-723n, 730n-733n) and connected to a set of word lines (WLL0-WLL10); and a control circuit (110, 112, 114, 116, 122, 128, 132), the control circuit is configured to perform a countermeasure for a first read situation in the block, wherein: the countermeasure is a function of a temperature; the block is in the first read situation if no sensing operation has occurred in the block since a last power on event or if a time period since a last sensing operation in the block exceeds a threshold; the memory cells are programmed to different programmed data states (A-G, S1-S15) including a lowest programmed data state (A, S1) and a highest programmed data state (G, S15); and to perform the countermeasure, the control circuit is configured to set a read voltage (VrA, VrS1) of the lowest programmed data state according to a positive temperature coefficient, and to set a read voltage (VrG, VrS15) of the highest programmed data state according to a negative temperature coefficient. the countermeasure is a function of a temperature; the block is in the first read situation if no sensing operation has occurred in the block since a last power on event or if a time period since a last sensing operation in the block exceeds a threshold; the memory cells are programmed to different programmed data states (A-G, S1-S15) including a lowest programmed data state (A, S1) and a highest programmed data state (G, S15); and to perform the countermeasure, the control circuit is configured to set a read voltage (VrA, VrS1) of the lowest programmed data state according to a positive temperature coefficient, and to set a read voltage (VrG, VrS15) of the highest programmed data state according to a negative temperature coefficient.
An antenna port configuration method, comprising: obtaining, by an access network device, M reference signal received power, RSRP, differences, wherein the M RSRP differences are differences between downlink RSRPs of two of the N radio remote units, RRUs,-or differences between a downlink RSRP of one of the N RRUs and an uplink RSRP of a terminal, and both M and N are positive integers greater than 1; determining, by the access network device based on the M RSRP differences, an order of traversing the N RRUs by a terminal moving in a coverage area of the N RRUs; and for any RRU of the N RRUs, configuring, by the access network device, same antenna ports for two RRUs in the traversal order that are adjacent to the RRU, and configuring different antenna ports for the RRU and the RRUs adjacent to the RRU. obtaining, by an access network device, M reference signal received power, RSRP, differences, wherein the M RSRP differences are differences between downlink RSRPs of two of the N radio remote units, RRUs,-or differences between a downlink RSRP of one of the N RRUs and an uplink RSRP of a terminal, and both M and N are positive integers greater than 1; determining, by the access network device based on the M RSRP differences, an order of traversing the N RRUs by a terminal moving in a coverage area of the N RRUs; and for any RRU of the N RRUs, configuring, by the access network device, same antenna ports for two RRUs in the traversal order that are adjacent to the RRU, and configuring different antenna ports for the RRU and the RRUs adjacent to the RRU.
A system for validating a label in which the label is adapted to be attached to an item, the system comprising: the label containing an identifying portion of a circuit path extending between at least a pair of contact points in which the identifying portion of the circuit path includes a segment containing graphene; and a validating device comprising a testing portion of the circuit path adapted to contact the at least the pair of contact points of the identifying portion of the circuit path in the label to thereby complete the circuit path, and in which the testing portion of the validating device is configured to internally process and validate the label in the validating device; wherein the label includes a plurality of identifying portions of circuit paths, wherein one or more unique graphene segments are read by the validating device to validate the label, and wherein at least some of the plurality of graphene segments are fabricated to be redundant with one another, characterized in that the validating device is configured to compare a set of redundant graphene segments to one another to collectively determine an intended state of any of various graphene segments; or wherein unused or un-relied-upon graphene segments are randomly reacted to create garbage information not relevant to the logic of the testing portion of the circuit path and the validating device is configured to read all of the redundant segments; or wherein the validation device comprises a randomizing feature configured to only checks some, but not all subsets of the graphene segments which are known to be redundant with one another. the label containing an identifying portion of a circuit path extending between at least a pair of contact points in which the identifying portion of the circuit path includes a segment containing graphene; and a validating device comprising a testing portion of the circuit path adapted to contact the at least the pair of contact points of the identifying portion of the circuit path in the label to thereby complete the circuit path, and in which the testing portion of the validating device is configured to internally process and validate the label in the validating device; wherein the label includes a plurality of identifying portions of circuit paths, wherein one or more unique graphene segments are read by the validating device to validate the label, and wherein at least some of the plurality of graphene segments are fabricated to be redundant with one another, characterized in that the validating device is configured to compare a set of redundant graphene segments to one another to collectively determine an intended state of any of various graphene segments; or wherein unused or un-relied-upon graphene segments are randomly reacted to create garbage information not relevant to the logic of the testing portion of the circuit path and the validating device is configured to read all of the redundant segments; or wherein the validation device comprises a randomizing feature configured to only checks some, but not all subsets of the graphene segments which are known to be redundant with one another.
Drying installation having a drying region for drying bulk material, such as pre-granulated effluent sludge, - in which an air removal device for removing exhaust air from the drying region and an air supply device for supplying feed air into the drying region are provided, - in which an air cooling device having a first air cooling stage and a second air cooling stage is provided for cooling the exhaust air, wherein the exhaust air from the first air cooling stage passes through an air guide into the second air cooling stage, and an air heating device having a first air heating stage and a second air heating stage is provided for heating the feed air, - in which an energy recovery device for returning energy from the first air cooling stage into the first air heating stage is provided, characterised in that the energy recovery device is in the form of a heat carrier line and a heat carrier pump. - in which an air removal device for removing exhaust air from the drying region and an air supply device for supplying feed air into the drying region are provided, - in which an air cooling device having a first air cooling stage and a second air cooling stage is provided for cooling the exhaust air, wherein the exhaust air from the first air cooling stage passes through an air guide into the second air cooling stage, and an air heating device having a first air heating stage and a second air heating stage is provided for heating the feed air, - in which an energy recovery device for returning energy from the first air cooling stage into the first air heating stage is provided, characterised in that the energy recovery device is in the form of a heat carrier line and a heat carrier pump.
A trolley wire wear measuring apparatus using image processing including a line sensor camera installed on a roof of a vehicle with its scan line direction set horizontal and perpendicular to a traveling direction of the vehicle and configured to shoot a trolley wire, illuminating means also installed on the roof of the vehicle and configured to illuminate the trolley wire, and image processing means installed inside the vehicle, where the image processing means comprises: line sensor image creating means configured to create a line sensor image in which image signals inputted from the line sensor camera are arranged in time series; background separation processing means configured to separate an inputted image into the trolley wire and a background; binarization processing means configured to perform binarization processing on an inputted image and create a binarized image; trolley wire worn section edge detecting means configured to detect edges (10L, 10R) on two sides of a worn section of the trolley wire from an inputted image; and trolley wire worn section width calculating means configured to detect an amount of wear of the trolley wire using positions of the edges (10L, 10R) on the two sides of the worn section, characterized in that the background separation processing means is GSTH processing means configured to perform GSTH processing on the inputted image to create a GSTH image in which the worn section of the trolley wire in the inputted image is emphasized. line sensor image creating means configured to create a line sensor image in which image signals inputted from the line sensor camera are arranged in time series; background separation processing means configured to separate an inputted image into the trolley wire and a background; binarization processing means configured to perform binarization processing on an inputted image and create a binarized image; trolley wire worn section edge detecting means configured to detect edges (10L, 10R) on two sides of a worn section of the trolley wire from an inputted image; and trolley wire worn section width calculating means configured to detect an amount of wear of the trolley wire using positions of the edges (10L, 10R) on the two sides of the worn section, characterized in that the background separation processing means is GSTH processing means configured to perform GSTH processing on the inputted image to create a GSTH image in which the worn section of the trolley wire in the inputted image is emphasized.
A method of disassembling and reassembling a turbine including a casing (1; 2) divided into a casing lower part (11; 21) and a casing upper part (12; 22), a turbine rotor contained in the casing (1; 2), and a stationary component supported inside the casing (1; 2) and divided into a lower side and an upper side, the casing lower part (11; 21) and the casing upper part (12; 22) being connected together by bolt fastening, characterized in that the method comprises: a positional information measurement process in which positional information on a plurality of specific portions set on an outer surface of the casing (1; 2) is measured in a state before releasing of bolt fastening of the casing (1; 2) at a time of initial disassembly of the turbine after operation and in a predetermined disassembly state after the releasing of the bolt fastening; and an alignment process in which positional adjustment of the stationary component with respect to the casing (1; 2) is made based on measurement results in the positional information measurement process. a positional information measurement process in which positional information on a plurality of specific portions set on an outer surface of the casing (1; 2) is measured in a state before releasing of bolt fastening of the casing (1; 2) at a time of initial disassembly of the turbine after operation and in a predetermined disassembly state after the releasing of the bolt fastening; and an alignment process in which positional adjustment of the stationary component with respect to the casing (1; 2) is made based on measurement results in the positional information measurement process.