mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: a positioning unit that repeatedly calculates a position; a position storage unit that stores a plurality of positions calculated by the positioning unit; a storing unit that stores, in a case where a position newly calculated by the positioning unit is at a given distance or more from the position last stored in the position storage unit, the newly calculated position into the position storage unit; and a display unit that displays a letter string indicating the positions stored in the position storage unit in an order that the positions are calculated, characterized in that the information processing device is further adapted to transmit a calculated position to a position management server and to receive at least one user ID and position coordinate set associated with the transmitted position from the position management server, which have been stored at the position management server within a given period of time, and to use the received information to generate a radar image and to display a message in a travel route image. a positioning unit that repeatedly calculates a position; a position storage unit that stores a plurality of positions calculated by the positioning unit; a storing unit that stores, in a case where a position newly calculated by the positioning unit is at a given distance or more from the position last stored in the position storage unit, the newly calculated position into the position storage unit; and a display unit that displays a letter string indicating the positions stored in the position storage unit in an order that the positions are calculated, characterized in that the information processing device is further adapted to transmit a calculated position to a position management server and to receive at least one user ID and position coordinate set associated with the transmitted position from the position management server, which have been stored at the position management server within a given period of time, and to use the received information to generate a radar image and to display a message in a travel route image.
A composition comprising a low density polyethylene (LDPE) and a metallocene-catalyzed linear low density polyethylene (mLLDPE) wherein the composition when extruded as a molten resin displays a neck-in value that is about equal to or increased by less than about 15 % of the neck-in value observed when using the LDPE alone, wherein the mLLDPE is present in an amount of from about 1 wt.% to about 80 wt.% based on the total weight of the composition,and wherein the mLLDPE has a melt index of from about 0.7 to about 1.6 g/10min.
Applicator for cosmetic product comprising: - a core, - a plurality of protrusions extending protruding from the core to form a brush, and characterised in that the applicator comprises a spatula located in the extension of the core, said spatula being configured to bend, the protrusions and the spatula being moulded with the core. - a core, - a plurality of protrusions extending protruding from the core to form a brush, and characterised in that the applicator comprises a spatula located in the extension of the core, said spatula being configured to bend, the protrusions and the spatula being moulded with the core.
A method for wireless communication implemented by a user equipment LTE, the method comprising: receiving, from a base station, a master information block, MIB; determining, based at least in part on the MIB, a first common search space for a physical downlink control channel, PDCCH; monitoring a set of control channel elements of the first common search space; decoding a system information block, SIB, grant based at least in part on the monitored set of control channel elements, wherein the SIB grant is a Multefire SIB, SIB-MF1, grant; decoding the SIB-MF1 grant based at least in part on the determined first common search space; and determining a resource allocation of a second common search space that overlaps the determined common search space based at least in part on a SIB-MF1 payload scheduled by the decoded SIB-MF1 grant. receiving, from a base station, a master information block, MIB; determining, based at least in part on the MIB, a first common search space for a physical downlink control channel, PDCCH; monitoring a set of control channel elements of the first common search space; decoding a system information block, SIB, grant based at least in part on the monitored set of control channel elements, wherein the SIB grant is a Multefire SIB, SIB-MF1, grant; decoding the SIB-MF1 grant based at least in part on the determined first common search space; and determining a resource allocation of a second common search space that overlaps the determined common search space based at least in part on a SIB-MF1 payload scheduled by the decoded SIB-MF1 grant.
A motorcompressor comprising a drainage sump; a plurality of stages each having a duct with an intake section and a discharge section for a process fluid; a drainage apparatus placed in fluid communication with said drainage sump and with a duct of one of said stages, the drainage apparatus comprising a first pipe being placed inside an external casing and having a first end inserted in a drainage sump of the motorcompressor and a second end in fluid communication with the intake section of a duct of a stage of said motorcompressor; wherein the intake section is upstream of a rotating element inside the duct of the stage for a process fluid to be directed towards the rotating element, and said apparatus comprises a device for generating a pressure difference between said second end and said first end so that the process fluid is taken from said drainage sump and delivered into the intake section of said duct.
Camshaft with a main shaft on which at least one sliding element is received in such a way as to be axially displaceable along a shaft axis, wherein the main shaft comprises an outer longitudinal tooth structure that meshes with an inner tooth structure introduced into a passage in the sliding element, such that the sliding element is arranged in a rotationally fixed manner on the main shaft, and wherein the sliding element, on its axial end faces, comprises guiding portions by means of which the sliding element is guided on the main shaft in order to minimize an axial offset of the sliding element, wherein guiding sleeves are received on the main shaft, and the guiding portions of the sliding element are supported against these, characterized in that the guiding sleeves comprise an inner tooth structure, which is dimensioned in such a way that the guiding sleeves are mounted, in a manner fixed in terms of rotation and displacement, on cylindrical receiving portions of the main shaft.
A medium processing apparatus comprising: a receiving portion configured to receive media to be processed; a first processing unit configured to perform first processing on the media received from the receiving portion; and a second processing unit configured to perform second processing on the media received from the receiving portion and not processed by the first processing unit or the media received from the receiving portion and processed by the first processing unit, wherein the first processing is processing of drying the media, and the first processing unit is located vertically below the second processing unit, and the first processing unit has a portion overlapping with the second processing unit when viewed in a vertical direction; characterised in that: the second processing is end stitching processing of stitching ends of the media. a receiving portion configured to receive media to be processed; a first processing unit configured to perform first processing on the media received from the receiving portion; and a second processing unit configured to perform second processing on the media received from the receiving portion and not processed by the first processing unit or the media received from the receiving portion and processed by the first processing unit, wherein the first processing is processing of drying the media, and the first processing unit is located vertically below the second processing unit, and the first processing unit has a portion overlapping with the second processing unit when viewed in a vertical direction; characterised in that: the second processing is end stitching processing of stitching ends of the media.
A terminal configured to be operable in a mobile communication system, according to a 3GPP standard, the terminal comprising: a control section configured to determine control resource element, CCE, indexes for a plurality of physical downlink control channel, PDCCH, candidates, wherein the plurality of PDCCH candidates are configured for an aggregation level L of a search space for a serving cell corresponding to a carrier indicator field, CIF, value n of CIF values configured for the aggregation level L; and a receiving section configured to monitor the plurality of PDCCH candidates within a control resource set, CORESET; wherein an index of a starting CCE of a PDCCH candidate m of the plurality of PDCCH candidates is given by the following formula: L ⋅ Y + m ⋅ N L ⋅ M + n mod N L + i, wherein M is the maximum number of PDCCH candidates of all CIF values configured for aggregation level L, N is the number of CCEs in the CORESET, Y is a parameter based on radio network temporary ID, RNTI, value, and i = 0,..., L − 1. a control section configured to determine control resource element, CCE, indexes for a plurality of physical downlink control channel, PDCCH, candidates, wherein the plurality of PDCCH candidates are configured for an aggregation level L of a search space for a serving cell corresponding to a carrier indicator field, CIF, value n of CIF values configured for the aggregation level L; and a receiving section configured to monitor the plurality of PDCCH candidates within a control resource set, CORESET; wherein an index of a starting CCE of a PDCCH candidate m of the plurality of PDCCH candidates is given by the following formula: L ⋅ Y + m ⋅ N L ⋅ M + n mod N L + i, wherein M is the maximum number of PDCCH candidates of all CIF values configured for aggregation level L, N is the number of CCEs in the CORESET, Y is a parameter based on radio network temporary ID, RNTI, value, and i = 0,..., L − 1.
A biomass treatment system comprising a pressurized processing container being a reactor, a discharger screw arranged within said reactor and an outlet flow control arrangement arranged to control a flow of material through an outlet with a predetermined diameter arranged at an end of the pressurized processing container, said discharger screw being configured for feeding biomass from one end of said pressurized processing container towards said outlet flow control arrangement, wherein said outlet flow control arrangement comprises an adaptor unit arranged to control and center a flow of processed material out of said processing container and through said outlet into a discharge pipe, wherein said adaptor unit comprises a rotatable disc arranged within said pressurized processing container, said disc comprises at least one bore arranged to align with said outlet when said circular disc is rotated around its central axis, wherein said at least one bore is configured to provide a smaller exit bore than said outlet of said processing container.
A method for reducing felting of wool or another textile made from keratinous fibers, the method comprising: contacting the textile with an aqueous composition comprising an enzyme having perhydrolase activity, an ester substrate for the enzyme, and a source of hydrogen peroxide, wherein the enzyme generates peracids in situ in an aqueous medium, and wherein the peracids modify the textile, thereby reducing the tendency of the textile to felt. contacting the textile with an aqueous composition comprising an enzyme having perhydrolase activity, an ester substrate for the enzyme, and a source of hydrogen peroxide, wherein the enzyme generates peracids in situ in an aqueous medium, and wherein the peracids modify the textile, thereby reducing the tendency of the textile to felt.
A method for wireless communication performed by a base station, BS, comprising: determining a first beam configuration and a second beam configuration for measuring reference signals, RSs, transmitted from the BS, wherein the first beam configuration comprises a first type of beams used for the RSs, wherein the first beam configuration indicates that the first type of beams is static during a first set of time periods, wherein the second beam configuration comprises a second different type of beams used for the RSs, and wherein the second beam configuration indicates that the second type of beams varies during a second set of time periods; and signaling the first beam configuration and the second beam configuration to at least one user equipment, UE, to enable the at least one UE to filter measurements of the first type of beams used for RSs during the first set of time periods and refrain from filtering measurements of the second type of beams during the second set of time periods. determining a first beam configuration and a second beam configuration for measuring reference signals, RSs, transmitted from the BS, wherein the first beam configuration comprises a first type of beams used for the RSs, wherein the first beam configuration indicates that the first type of beams is static during a first set of time periods, wherein the second beam configuration comprises a second different type of beams used for the RSs, and wherein the second beam configuration indicates that the second type of beams varies during a second set of time periods; and signaling the first beam configuration and the second beam configuration to at least one user equipment, UE, to enable the at least one UE to filter measurements of the first type of beams used for RSs during the first set of time periods and refrain from filtering measurements of the second type of beams during the second set of time periods.
A computer system comprising: a head mounted display, HMD for displaying a mixed reality environment; one or more processors; and one or more computer-readable media having stored thereon instructions that are executable by the one or more processors to configure the computer system to render potential collisions between virtual objects and physical objects if animations are implemented, including instructions that are executable to configure the computer system to perform at least the following: receiving user input selecting a virtual object to be animated; receiving user input selecting an animation path for the virtual object; receiving user input placing the virtual object to be animated and the animation path in an environment including physical objects; prior to animating the virtual object, displaying the virtual object and the animation path to show the interaction of the virtual object with one or more physical objects in the environment; detecting a potential collision between the virtual object and one of the one or more physical objects if the animation were performed; and as a result, automatically providing one or more suggested remedial actions. a head mounted display, HMD for displaying a mixed reality environment; one or more processors; and one or more computer-readable media having stored thereon instructions that are executable by the one or more processors to configure the computer system to render potential collisions between virtual objects and physical objects if animations are implemented, including instructions that are executable to configure the computer system to perform at least the following: receiving user input selecting a virtual object to be animated; receiving user input selecting an animation path for the virtual object; receiving user input placing the virtual object to be animated and the animation path in an environment including physical objects; prior to animating the virtual object, displaying the virtual object and the animation path to show the interaction of the virtual object with one or more physical objects in the environment; detecting a potential collision between the virtual object and one of the one or more physical objects if the animation were performed; and as a result, automatically providing one or more suggested remedial actions. receiving user input selecting a virtual object to be animated; receiving user input selecting an animation path for the virtual object; receiving user input placing the virtual object to be animated and the animation path in an environment including physical objects; prior to animating the virtual object, displaying the virtual object and the animation path to show the interaction of the virtual object with one or more physical objects in the environment; detecting a potential collision between the virtual object and one of the one or more physical objects if the animation were performed; and as a result, automatically providing one or more suggested remedial actions.
A transport refrigeration system for controlling refrigeration in a transport unit, comprising: an eutectic device including an eutectic medium, and a cooling fluid circuit in thermal contact with the eutectic medium, the cooling fluid circuit configured to direct a cooling fluid to be in thermal contact with the eutectic medium, wherein the cooling fluid circuit is configured to direct the cooling fluid to flow through the eutectic device to allow the cooling fluid to have thermal contact with the eutectic medium without physically mixing with the eutectic medium, wherein the eutectic device is directly cooled via the cooling fluid circuit and is indirectly cooled via cooled air flowing from a transport refrigeration unit over the eutectic device; characterized in that the transport refrigeration system further comprises a refrigerant circuit connected to the transport refrigeration unit for directing a refrigerant from the TRU to the eutectic device for cooling the eutectic medium and an inside air of the transport unit; wherein the cooling fluid circuit is separate from the refrigerant circuit within the eutectic device, and wherein the eutectic device is directly cooled via the refrigerant circuit. an eutectic device including an eutectic medium, and a cooling fluid circuit in thermal contact with the eutectic medium, the cooling fluid circuit configured to direct a cooling fluid to be in thermal contact with the eutectic medium, wherein the cooling fluid circuit is configured to direct the cooling fluid to flow through the eutectic device to allow the cooling fluid to have thermal contact with the eutectic medium without physically mixing with the eutectic medium, wherein the eutectic device is directly cooled via the cooling fluid circuit and is indirectly cooled via cooled air flowing from a transport refrigeration unit over the eutectic device; characterized in that the transport refrigeration system further comprises a refrigerant circuit connected to the transport refrigeration unit for directing a refrigerant from the TRU to the eutectic device for cooling the eutectic medium and an inside air of the transport unit; wherein the cooling fluid circuit is separate from the refrigerant circuit within the eutectic device, and wherein the eutectic device is directly cooled via the refrigerant circuit.
A compound comprising a heteroleptic iridium complex having the formula: wherein X is selected from the group consisting of CRR', SiRR', C=O, N-R, B-R, O, S, SO, SO 2, and Se; wherein R 2, R x, R 5, and R 6 represent mono, di, tri, tetra substitutions or no substitution; wherein R, R', R 1, R 2, R x, R 4, R 5, and R 6 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two adjacent substituents are optionally joined together to form a ring; and wherein n is 1 or 2. wherein X is selected from the group consisting of CRR', SiRR', C=O, N-R, B-R, O, S, SO, SO 2, and Se; wherein R 2, R x, R 5, and R 6 represent mono, di, tri, tetra substitutions or no substitution; wherein R, R', R 1, R 2, R x, R 4, R 5, and R 6 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two adjacent substituents are optionally joined together to form a ring; and wherein n is 1 or 2.
A fetal prate detection method, comprising: identifying pulse packets in a Doppler ultrasound signal, each pulse packet comprising a pulse train of one or more pulses; classifying each of the identified pulse packets as a hiccup or non-hiccup based on at least one characteristic of the identified pulse packets; suppressing the pulse packets of the Doppler ultrasound signal that are classified as a hiccup; and calculating a fetal heart rate from the Doppler ultrasound signal with the pulse packets classified as hiccups suppressed, characterized in that the classification operation further includes determining a pulse count comprising a number of crossings of the time axis or a number of pulse peaks for each of the pulse packets identified in the Doppler ultrasound signal and classifying any pulse packet whose determined pulse count is at or below a threshold as a hiccup. identifying pulse packets in a Doppler ultrasound signal, each pulse packet comprising a pulse train of one or more pulses; classifying each of the identified pulse packets as a hiccup or non-hiccup based on at least one characteristic of the identified pulse packets; suppressing the pulse packets of the Doppler ultrasound signal that are classified as a hiccup; and calculating a fetal heart rate from the Doppler ultrasound signal with the pulse packets classified as hiccups suppressed, characterized in that the classification operation further includes determining a pulse count comprising a number of crossings of the time axis or a number of pulse peaks for each of the pulse packets identified in the Doppler ultrasound signal and classifying any pulse packet whose determined pulse count is at or below a threshold as a hiccup.
Device for determining at least one parameter of a medium flowing in a line along a main flow direction, composed of a gas-particle mixture, in particular the induction air for an internal combustion engine, having a measuring housing provided in the line, having at least one channel arranged in the measuring housing and having at least one measuring element which is located in the channel and around which the flowing medium flows, at least one element for deflecting particles and liquids present in the medium being arranged in the measuring housing, upstream of the measuring element in the channel, characterized in that at least one outlet opening for particles and liquid is provided between the at least one element and the measuring element, and the at least one element in the channel is formed by at least one bulge at least partly shielding the measuring element in the main flow direction, wherein liquid particles flowing into the channel in the main flow direction and other particles strike this bulge and are deflected in such a way that they move past the measuring element or, upstream of the measuring element, leave the channel through the outlet opening for particles and liquid.