mhurhangee/ep-ind-claims huggingface dataset:
A method for inspecting a metallic post for defects, said method comprising: providing a pair of metallic dovetail posts, wherein facing surfaces of the metallic posts form a slot therebetween, at least one of the posts being contoured in a single direction; clamping an eddy current probe over said contoured post, said eddy current probe having at least one jaw with a surface conforming to the contour of the facing surface of the contoured post, said at least one jaw also having a plurality of eddy current coils; operating the eddy current probe while clamped to produce data relating to structural integrity of the contoured metallic post; and moving the eddy current probe along the contoured post while clamped and while sensing said structural integrity data; wherein the eddy current probe further comprises a sensor configured to sense at least one of position or motion, wherein said sensing further comprises sensing at least one of movement or position of the eddy current probe. providing a pair of metallic dovetail posts, wherein facing surfaces of the metallic posts form a slot therebetween, at least one of the posts being contoured in a single direction; clamping an eddy current probe over said contoured post, said eddy current probe having at least one jaw with a surface conforming to the contour of the facing surface of the contoured post, said at least one jaw also having a plurality of eddy current coils; operating the eddy current probe while clamped to produce data relating to structural integrity of the contoured metallic post; and moving the eddy current probe along the contoured post while clamped and while sensing said structural integrity data; wherein the eddy current probe further comprises a sensor configured to sense at least one of position or motion, wherein said sensing further comprises sensing at least one of movement or position of the eddy current probe.
A polycarbonate composition, comprising the following components in parts by weight: a. 35 to 75 parts of a PC resin; b. 8 to 35 parts of a rubber-modified graft polymer; c. 5 to 20 parts of a fire retardant; and d. 0 to 10 parts of other aids; wherein the sum of parts by weight of the four components a, b, c, and d is 100, the content of phenols based on a total weight of the polycarbonate composition is less than or equal to 100 ppm; the PC resin consists of one or mixtures of a component I and a component II: component I: a PC resin with a K value of 300000-500000; component II: an aromatic PC resin with the K value less than 300000; wherein a structural formula of the phenols is shown as Formula: wherein, R 1 and R 5 represent a hydrogen group, an alkyl, an alkoxy, a hydroxyl, a carboxyl or a carbonyl, and an ester group, except for a hindered group; and R 2, R 3 and R 4 represent a substituent containing hydrogen atoms, preferably the hydrogen atom, and wherein in the PC resin, a percentage of the component I accounts for 50wt% to 70wt% of the total weight of the PC resin; and a percentage of the component II accounts for 30wt% to 50wt% of the total weight of the PC resin, wherein K is the ratio of the viscosity-average molecular weight [M V], obtained by solving the Schnell viscosity equation η = 1.23 x 10 -4 M V 0.83, to the content of terminal phenolic groups, measured by an in-situ infrared method, wherein intrinsic viscosity (η, measured as dl/g) is determined using an Ubbelohde viscometer with chloromethane as solvent under a temperature of 20°C. a. 35 to 75 parts of a PC resin; b. 8 to 35 parts of a rubber-modified graft polymer; c. 5 to 20 parts of a fire retardant; and d. 0 to 10 parts of other aids; component I: a PC resin with a K value of 300000-500000; component II: an aromatic PC resin with the K value less than 300000; wherein a structural formula of the phenols is shown as Formula: wherein, R 1 and R 5 represent a hydrogen group, an alkyl, an alkoxy, a hydroxyl, a carboxyl or a carbonyl, and an ester group, except for a hindered group; and R 2, R 3 and R 4 represent a substituent containing hydrogen atoms, preferably the hydrogen atom, and wherein in the PC resin, a percentage of the component I accounts for 50wt% to 70wt% of the total weight of the PC resin; and a percentage of the component II accounts for 30wt% to 50wt% of the total weight of the PC resin, wherein K is the ratio of the viscosity-average molecular weight [M V], obtained by solving the Schnell viscosity equation η = 1.23 x 10 -4 M V 0.83, to the content of terminal phenolic groups, measured by an in-situ infrared method, wherein intrinsic viscosity (η, measured as dl/g) is determined using an Ubbelohde viscometer with chloromethane as solvent under a temperature of 20°C.
A fastening device (100, 100a), which is for fastening and loosening a lace, the fastening device (100, 100a) comprising: a case (200, 200a), comprising a receiving space and a plurality of side teeth; a spool (300, 300a) disposed within the case (200, 200a), wherein the lace is wound therearound; a locking unit (400, 400a) comprising a blocking portion and at least one pawl arm, wherein the at least one pawl arm is engaged with the side teeth and abutted against the blocking portion in a loosening direction, and the at least one pawl arm is disengaged from the side teeth in a tightening direction opposite to the loosening direction; and a knob (500, 500a) coupled to the locking unit (400, 400a); wherein rotating the knob (500, 500a) relative to the case (200, 200a) allows the locking unit (400, 400a) to be driven to switch from a first position to a second position, the locking unit (400, 400a) is coupled to the spool (300, 300a) to prohibit the spool (300, 300a) from rotating toward the loosening direction when the locking unit (400, 400a) is at the first position, and the spool (300, 300a) is allowed to be rotated toward the loosening direction when the locking unit (400, 400a) is at the second position. a case (200, 200a), comprising a receiving space and a plurality of side teeth; a spool (300, 300a) disposed within the case (200, 200a), wherein the lace is wound therearound; a locking unit (400, 400a) comprising a blocking portion and at least one pawl arm, wherein the at least one pawl arm is engaged with the side teeth and abutted against the blocking portion in a loosening direction, and the at least one pawl arm is disengaged from the side teeth in a tightening direction opposite to the loosening direction; and a knob (500, 500a) coupled to the locking unit (400, 400a); wherein rotating the knob (500, 500a) relative to the case (200, 200a) allows the locking unit (400, 400a) to be driven to switch from a first position to a second position, the locking unit (400, 400a) is coupled to the spool (300, 300a) to prohibit the spool (300, 300a) from rotating toward the loosening direction when the locking unit (400, 400a) is at the first position, and the spool (300, 300a) is allowed to be rotated toward the loosening direction when the locking unit (400, 400a) is at the second position.
Reconstructing software for performing back projection computations to project radiographic data of an object acquired in each scan position back to a reconstruction area, said software being operable on a CPU having a cache memory, said reconstructing software, when run on said CPU, causing said CPU to perform the step of: causing the back projection computations to be performed, for each unit area including pixels adjacent one another up and down and right and left on a reconstruction image and formed by dividing said reconstruction area wherein said unit area has a shape set in view of a size of said cache memory, for projecting said radiographic data acquired in each scan position, or data resulting from filtering of said radiographic data, back to a two-dimensional or three-dimensional reconstruction area virtually set to a region of interest of said object, said radiographic data being acquired by causing a radiation source and a detector arranged opposite each other across said object to scan said object synchronously, or to scan said object synchronously with rotation of said object, said radiation source irradiating said object with electromagnetic waves capable of penetrating said object, said detector detecting electromagnetic waves transmitted through said object, wherein the data used in the back projection computations represents a course of electromagnetic waves linking a focus of the radiation source and a respective center of each detector element of said detector, wherein, the reconstruction is performed on a block-by-block basis and a block is an unit area. causing the back projection computations to be performed, for each unit area including pixels adjacent one another up and down and right and left on a reconstruction image and formed by dividing said reconstruction area wherein said unit area has a shape set in view of a size of said cache memory, for projecting said radiographic data acquired in each scan position, or data resulting from filtering of said radiographic data, back to a two-dimensional or three-dimensional reconstruction area virtually set to a region of interest of said object, said radiographic data being acquired by causing a radiation source and a detector arranged opposite each other across said object to scan said object synchronously, or to scan said object synchronously with rotation of said object, said radiation source irradiating said object with electromagnetic waves capable of penetrating said object, said detector detecting electromagnetic waves transmitted through said object, wherein the data used in the back projection computations represents a course of electromagnetic waves linking a focus of the radiation source and a respective center of each detector element of said detector, wherein, the reconstruction is performed on a block-by-block basis and a block is an unit area.
A method for monitoring User Equipment, UE, reachability, by a Mobile Management Entity, MME, in a wireless communication system, comprising: receiving a message for monitoring the UE reachability from a Home Subscriber Server, HSS; when UE reachability related indication is included in the message, setting an Active Time of the UE by using the UE reachability related indication; monitoring the UE when the UE will become reachable; and based on the monitoring, reporting a monitoring report regarding the UE reachability to the HSS, characterized in that the UE reachability related indication is used for setting the Active Time of the UE so that the UE stays reachable to allow a Service Capability Server or an Application Server to deliver downlink data to the UE after the HSS receives the monitoring report, and so that if the Active Time is allocated to a UE during Tracking Area Unit, TAU, procedure, then when the UE transits from connected state to idle state, the UE stays in the idle state during the allocated Active Time, and wherein an S1 connection of the UE is maintained based on the allocated Active Time. receiving a message for monitoring the UE reachability from a Home Subscriber Server, HSS; when UE reachability related indication is included in the message, setting an Active Time of the UE by using the UE reachability related indication; monitoring the UE when the UE will become reachable; and based on the monitoring, reporting a monitoring report regarding the UE reachability to the HSS, characterized in that the UE reachability related indication is used for setting the Active Time of the UE so that the UE stays reachable to allow a Service Capability Server or an Application Server to deliver downlink data to the UE after the HSS receives the monitoring report, and so that if the Active Time is allocated to a UE during Tracking Area Unit, TAU, procedure, then when the UE transits from connected state to idle state, the UE stays in the idle state during the allocated Active Time, and wherein an S1 connection of the UE is maintained based on the allocated Active Time.
A computer-implemented method to analyze wellbore data, the method comprising: extracting a dataset from a database, the dataset comprising wellbore data of at least one well; selecting an output variable from the data available in the dataset; removing corrupted data from the dataset; calculating a normal distribution for the dataset, thus creating a normalized dataset; performing a classification and regression tree ("CART") analysis on the normalized dataset based upon the output variable; and based upon the CART analysis on the normalized dataset, determining one or more predictor variables that correlate to the output variable for evaluating the performance of the well; determining a contribution of the one or more predictor variables on the output variable; ranking the one or more predictor variables based on their influence on the output variable; performing an inverse transformation on the ranked one or more predictor variables of the normalized dataset in order to transform them back into their original units. extracting a dataset from a database, the dataset comprising wellbore data of at least one well; selecting an output variable from the data available in the dataset; removing corrupted data from the dataset; calculating a normal distribution for the dataset, thus creating a normalized dataset; performing a classification and regression tree ("CART") analysis on the normalized dataset based upon the output variable; and based upon the CART analysis on the normalized dataset, determining one or more predictor variables that correlate to the output variable for evaluating the performance of the well; determining a contribution of the one or more predictor variables on the output variable; ranking the one or more predictor variables based on their influence on the output variable; performing an inverse transformation on the ranked one or more predictor variables of the normalized dataset in order to transform them back into their original units.
A method (50; 60) of performing an over-the-air, OTA, upgrade by a server in a network of communicatively interconnected client devices, the method characterized by comprising: - said server broadcasting a network address querying message (55; 63) comprising a unique identifier of a client device, if an ongoing OTA upgrade of said client device causes a timeout (54; 62) at said server; and - said server resuming said OTA upgrade of said client device after said server receiving a network address reporting message (56; 64) of said client device comprising its current network address. - said server broadcasting a network address querying message (55; 63) comprising a unique identifier of a client device, if an ongoing OTA upgrade of said client device causes a timeout (54; 62) at said server; and - said server resuming said OTA upgrade of said client device after said server receiving a network address reporting message (56; 64) of said client device comprising its current network address.
Method for producing thermoelectric layers by depositing thermoelectric material on a substrate by means of sputter deposition, characterised by - the manufacture of a target made of thermoelectric material by mixing at least two starting materials (1, 2) in powder form in a particle size of 0.01 μm - 5000.00 μm under energy coupling by means of mechanical alloying or by means of plasma alloying and - the deposition of the thermoelectric material from the target on the substrate by means of magnetron sputter deposition, wherein a magnetic field is superimposed on the electrical field generated by a target cathode and an anode and a direct current gas discharge between the target cathode and the anode serves as an ion source. - the manufacture of a target made of thermoelectric material by mixing at least two starting materials (1, 2) in powder form in a particle size of 0.01 μm - 5000.00 μm under energy coupling by means of mechanical alloying or by means of plasma alloying and - the deposition of the thermoelectric material from the target on the substrate by means of magnetron sputter deposition, wherein a magnetic field is superimposed on the electrical field generated by a target cathode and an anode and a direct current gas discharge between the target cathode and the anode serves as an ion source.
A method for providing acknowledgment status information in a four carrier high-speed downlink packet access, 4C-HSDPA, system, the method comprising: spreading a high-speed dedicated physical control channel, HS-DPCCH, slot using a spreading factor of 128; transmitting an acknowledgment status for first and second carriers (C 1, C 2) during a first half of the HS-DPCCH slot; transmitting an acknowledgment status for third and fourth carriers (C 3, C 4) during a second half of the HS-DPCCH slot; wherein transmitting (1210A 1230A) the acknowledgment statuses for the first and second carriers (C 1, C 2) and for the third and fourth carriers (C 3, C 4) comprises transmitting two serially time-multiplexed codewords. spreading a high-speed dedicated physical control channel, HS-DPCCH, slot using a spreading factor of 128; transmitting an acknowledgment status for first and second carriers (C 1, C 2) during a first half of the HS-DPCCH slot; transmitting an acknowledgment status for third and fourth carriers (C 3, C 4) during a second half of the HS-DPCCH slot; wherein transmitting (1210A 1230A) the acknowledgment statuses for the first and second carriers (C 1, C 2) and for the third and fourth carriers (C 3, C 4) comprises transmitting two serially time-multiplexed codewords.
A case (100, 200, 300) for removably receiving a separate and distinct mobile device having a front device surface, a rear device surface opposite the front device surface, and a periphery extending between the front device surface and the rear device surface of the mobile device, the case comprising: a frame (120, 220, 320) defining a frame inner perimeter configured for surrounding the periphery of the mobile device when the mobile device is received within the case and defining a frame recess; and an elastomeric shell (140, 240, 340) received in or configured for receipt in the frame recess and surrounded by or configured to be surrounded by the frame, the elastomeric shell further having a shell outer surface (141, 241, 341), a shell inner surface (142, 242, 342) opposite the shell outer surface, and a shell rim (150, 250, 350) extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein the shell outer surface forms outer projections (145, 245, 345) defining respective outer projection extremities (146, 246, 346) and forms respective outer troughs (147, 247, 347) extending between the outer projections and defining outer trough extremities (148, 248, 348), the outer projections extending toward the frame inner perimeter such that each of the outer trough extremities is spaced further from the frame than adjacent ones of the outer projection extremities. a frame (120, 220, 320) defining a frame inner perimeter configured for surrounding the periphery of the mobile device when the mobile device is received within the case and defining a frame recess; and an elastomeric shell (140, 240, 340) received in or configured for receipt in the frame recess and surrounded by or configured to be surrounded by the frame, the elastomeric shell further having a shell outer surface (141, 241, 341), a shell inner surface (142, 242, 342) opposite the shell outer surface, and a shell rim (150, 250, 350) extending between the shell outer surface and the shell inner surface, the shell inner surface defining a pocket configured for receiving the mobile device, wherein the shell outer surface forms outer projections (145, 245, 345) defining respective outer projection extremities (146, 246, 346) and forms respective outer troughs (147, 247, 347) extending between the outer projections and defining outer trough extremities (148, 248, 348), the outer projections extending toward the frame inner perimeter such that each of the outer trough extremities is spaced further from the frame than adjacent ones of the outer projection extremities.
A method for binding water absorbent resin, comprising the step of adding aqueous liquid and moisture vapor to water absorbent resin powder, the water absorbent resin powder including a water absorbent resin containing an acid group and/or its salt (neutralized product) and 10 wt.% or less of water with respect to the whole water absorbent resin, under a condition of injecting moisture vapor with a gage pressure ranging from 0.1 to 2.0 MPa into the device used for binding the water absorbent resin powder, so as to bind particles of the water absorbent resin powder. the water absorbent resin powder including a water absorbent resin containing an acid group and/or its salt (neutralized product) and 10 wt.% or less of water with respect to the whole water absorbent resin, under a condition of injecting moisture vapor with a gage pressure ranging from 0.1 to 2.0 MPa into the device used for binding the water absorbent resin powder, so as to bind particles of the water absorbent resin powder.
A lighting system comprising: - a linear lighting device having an insulting coating, - a connector configured to be applied at any point along the length of said linear lighting device, the connector comprising: - a first and a second C-shaped connector part (14, 16), which can be snap-engaged with each other, - at least one connecting pin protruding from an inner surface of said first connector part, - at least one conductive element contained within the thickness of said first connector part, and electrically connecting said at least one connecting pin to a connection point (32, 38) with a power supply cable, wherein said at least one connecting pin penetrates the insulating coating of the linear lighting device and establishes an electrical connection with conductive portions of the lighting device located inside the outer insulating coating, and wherein an inner surface of said first connector part has at least one circular integral rib surrounding said at least one connecting pin and forming a sealing gasket which cooperates with a surface of the linear lighting device. - a linear lighting device having an insulting coating, - a connector configured to be applied at any point along the length of said linear lighting device, the connector comprising: - a first and a second C-shaped connector part (14, 16), which can be snap-engaged with each other, - at least one connecting pin protruding from an inner surface of said first connector part, - at least one conductive element contained within the thickness of said first connector part, and electrically connecting said at least one connecting pin to a connection point (32, 38) with a power supply cable, - a first and a second C-shaped connector part (14, 16), which can be snap-engaged with each other, - at least one connecting pin protruding from an inner surface of said first connector part, - at least one conductive element contained within the thickness of said first connector part, and electrically connecting said at least one connecting pin to a connection point (32, 38) with a power supply cable,