mhurhangee/ep-ind-claims huggingface dataset:
A data bus and testing system, comprising: a microprocessor; a bus-hold transceiver; a plurality of output latches (20A-B); a first data bus that connects the microprocessor to the transceiver; and a second data bus that connects the transceiver to the plurality of output latches; characterized in that: the bus hold transceiver is configured to: transmit test data to the plurality of output latches on the second data bus; hold the transmitted test data on the second data bus using a bus-hold feature of the bus-hold transceiver; read back the test data from the second data bus during application of the bus-hold feature; relay the read back test data to the microprocessor over the first data bus; and wherein the microprocessor is configured to compare the read back test data to the transmitted test data and determine whether a fault condition exists on the second data bus based on the comparison. a microprocessor; a bus-hold transceiver; a plurality of output latches (20A-B); a first data bus that connects the microprocessor to the transceiver; and a second data bus that connects the transceiver to the plurality of output latches; characterized in that: the bus hold transceiver is configured to: transmit test data to the plurality of output latches on the second data bus; hold the transmitted test data on the second data bus using a bus-hold feature of the bus-hold transceiver; read back the test data from the second data bus during application of the bus-hold feature; relay the read back test data to the microprocessor over the first data bus; and wherein the microprocessor is configured to compare the read back test data to the transmitted test data and determine whether a fault condition exists on the second data bus based on the comparison. the bus hold transceiver is configured to: transmit test data to the plurality of output latches on the second data bus; hold the transmitted test data on the second data bus using a bus-hold feature of the bus-hold transceiver; read back the test data from the second data bus during application of the bus-hold feature; transmit test data to the plurality of output latches on the second data bus; hold the transmitted test data on the second data bus using a bus-hold feature of the bus-hold transceiver; read back the test data from the second data bus during application of the bus-hold feature; relay the read back test data to the microprocessor over the first data bus; and wherein the microprocessor is configured to compare the read back test data to the transmitted test data and determine whether a fault condition exists on the second data bus based on the comparison.
A data transmission method, comprising: Determining, by a first device (30, 50, 701), a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe, wherein the first subframe comprises M orthogonal frequency division multiplexing OFDM symbols, the second subframe comprises N OFDM symbols, M and N are positive integers; and Sending, by the first device (30, 50, 701), the first subframe and the second subframe to a second device (40, 60, 702), wherein the second subframe comprises the HARQ process number of the second subframe wherein M < N; wherein the second subframe is a Q th subframe sent after the first subframe, and Q is a positive integer, and wherein the determining, by a first device, a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe comprises: determining, by the first device (30, 50, 701), the HARQ process number of the first subframe according to a first formula x = y + i or a second formula x = y - i, wherein x is the HARQ process number of the first subframe, y is the HARQ process number of the second subframe, and i is a positive integer. Determining, by a first device (30, 50, 701), a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe, wherein the first subframe comprises M orthogonal frequency division multiplexing OFDM symbols, the second subframe comprises N OFDM symbols, M and N are positive integers; and Sending, by the first device (30, 50, 701), the first subframe and the second subframe to a second device (40, 60, 702), wherein the second subframe comprises the HARQ process number of the second subframe wherein M < N; wherein the second subframe is a Q th subframe sent after the first subframe, and Q is a positive integer, and wherein the determining, by a first device, a hybrid automatic repeat request HARQ process number of a first subframe according to an HARQ process number of a second subframe comprises: determining, by the first device (30, 50, 701), the HARQ process number of the first subframe according to a first formula x = y + i or a second formula x = y - i, wherein x is the HARQ process number of the first subframe, y is the HARQ process number of the second subframe, and i is a positive integer.
An agricultural implement, including: a support part, a rotor supported on and rotatable relative to the support part, the rotor including one or more blades, the rotor, in use, rotating about its longitudinal axis such that the forward-most blade of the rotor moves upwardly; and a filter part; characterised by a grinding formation supported on the support part, and in that the filter part is disposed between the rotor and the grinding formation, so that during operation the rotor causes soil to be fitted and passed through the filter part to land on the grinding formation. a support part, a rotor supported on and rotatable relative to the support part, the rotor including one or more blades, the rotor, in use, rotating about its longitudinal axis such that the forward-most blade of the rotor moves upwardly; and a filter part; characterised by a grinding formation supported on the support part, and in that the filter part is disposed between the rotor and the grinding formation, so that during operation the rotor causes soil to be fitted and passed through the filter part to land on the grinding formation.
A movable machine, comprising a safety system, a safety controller, a localization system, a distance sensor for an at least areal monitoring of a monitored zone, and a contour recognition unit, wherein a position of a safe location can be identified by means of the localization system, wherein the localization system determines a position of the movable machine on a surface or in space, wherein the position determination takes place locally by means of radio, by an ultra-wideband system, and a contour of the safe location can be identified by means of the distance sensor and the contour recognition unit, wherein the safe location can be uniquely identified by two mutually independent features, wherein the features are the position and the contour of the safe location, wherein the safe location is identified by a redundant, diverse system, wherein a change in the safety function of the safety system takes place by means of the safety controller on an identification of the position of the safe location and of the contour of the safe location, wherein the localization system determines a position of the movable machine on a surface or in space, wherein the localization system has a map or a map model, wherein the safe locations are entered in the map or the map model, wherein the position of the safe location respectively has at least one position identifier, wherein the contour of a safe location respectively has at least one contour identifier and the contour identifier and the position identifier of a safe location are linked via a correlation rule. a position of a safe location can be identified by means of the localization system, wherein the localization system determines a position of the movable machine on a surface or in space, wherein the position determination takes place locally by means of radio, by an ultra-wideband system, and a contour of the safe location can be identified by means of the distance sensor and the contour recognition unit, wherein the safe location can be uniquely identified by two mutually independent features, wherein the features are the position and the contour of the safe location, wherein the safe location is identified by a redundant, diverse system, wherein a change in the safety function of the safety system takes place by means of the safety controller on an identification of the position of the safe location and of the contour of the safe location, wherein the localization system determines a position of the movable machine on a surface or in space, wherein the localization system has a map or a map model, wherein the safe locations are entered in the map or the map model, wherein the position of the safe location respectively has at least one position identifier, wherein the contour of a safe location respectively has at least one contour identifier and the contour identifier and the position identifier of a safe location are linked via a correlation rule.
A dental implant comprising: an implant body having a top surface; a screw receiving bore extending downwards from the top surface for coupling an abutment to the implant; and three cutaway portions (32, 34, 36) longitudinally extending downwardly from the top surface, equidistant around said body and outwardly to the periphery. an implant body having a top surface; a screw receiving bore extending downwards from the top surface for coupling an abutment to the implant; and three cutaway portions (32, 34, 36) longitudinally extending downwardly from the top surface, equidistant around said body and outwardly to the periphery.
A system for evaluating a fluid transfer event, the system comprising: (a) a parenteral fluid delivery device configured to establish a fluid transfer connection with a patient; and (b) a patient associated identifier configured to be associated with the patient; wherein said parenteral fluid delivery device comprises a broadcasting element for capacitively coupling a fluid transfer signal to a fluid in the parenteral fluid delivery device and for conductively transmitting the fluid transfer signal from the parenteral fluid delivery device to said patient associated identifier using said patient's body as a signal conduction medium following establishment of a fluid transfer connection between said parenteral fluid delivery device and said patient; wherein said patient associated identifier comprises a receiver element configured to be capacitively coupled to the patient for receiving the fluid transfer signal from said parenteral fluid delivery device; the identifier configured to detect said transmitted fluid transfer signal to evaluate said fluid transfer event; and characterized in that the broadcasting element is configured to generate a highfrequency fluid transfer signal, with the frequency of the fluid transfer signal ranging between 1 and 10 MHz, or, preferably the frequency being higher than 100 MHz. (a) a parenteral fluid delivery device configured to establish a fluid transfer connection with a patient; and (b) a patient associated identifier configured to be associated with the patient; wherein said parenteral fluid delivery device comprises a broadcasting element for capacitively coupling a fluid transfer signal to a fluid in the parenteral fluid delivery device and for conductively transmitting the fluid transfer signal from the parenteral fluid delivery device to said patient associated identifier using said patient's body as a signal conduction medium following establishment of a fluid transfer connection between said parenteral fluid delivery device and said patient;
A reaction test strip (200, 300), comprising: a base film layer structure with water absorbency, comprising a detection layer (210, 220), wherein a material of the detection layer comprises cotton fiber or glass fiber; and a detection reagent, wherein the detection reagent is distributed in the detection layer, and is configured to change a color of the base film layer structure after reacting with a sample to be detected, wherein the detection layer comprises a first detection layer and a second detection layer, the base film layer structure comprises a multi-layer film structure, and the multi-layer film structure comprises the first detection layer and the second detection layer which are stacked with each other; the detection reagent comprises a first detection reagent and a second detection reagent, the first detection reagent is distributed in the first detection layer, the second detection reagent is distributed in the second detection layer, and a detection substance comprised in the first detection reagent is different from a detection substance comprised in the second detection reagent; the first detection layer and the second detection layer have water absorbency, and a saturated water absorption of the first detection layer is less than a saturated water absorption of the second detection layer; and a planar shape of the first detection layer is identical to a planar shape of the second detection layer, and a size of the planar shape of the first detection layer is greater than a size of the planar shape of the second detection layer. a base film layer structure with water absorbency, comprising a detection layer (210, 220), wherein a material of the detection layer comprises cotton fiber or glass fiber; and a detection reagent, wherein the detection reagent is distributed in the detection layer, and is configured to change a color of the base film layer structure after reacting with a sample to be detected, wherein the detection layer comprises a first detection layer and a second detection layer, the base film layer structure comprises a multi-layer film structure, and the multi-layer film structure comprises the first detection layer and the second detection layer which are stacked with each other; the detection reagent comprises a first detection reagent and a second detection reagent, the first detection reagent is distributed in the first detection layer, the second detection reagent is distributed in the second detection layer, and a detection substance comprised in the first detection reagent is different from a detection substance comprised in the second detection reagent; the first detection layer and the second detection layer have water absorbency, and a saturated water absorption of the first detection layer is less than a saturated water absorption of the second detection layer; and a planar shape of the first detection layer is identical to a planar shape of the second detection layer, and a size of the planar shape of the first detection layer is greater than a size of the planar shape of the second detection layer.
A rubber composition for pneumatic tires, having a viscosity at 0°C of 16 to 80 kPa·s and a viscosity at 95°C of 1 to 15 kPa·s, wherein the viscosity at 0 °C and at 95 °C is measured with a rheometer MCR 52 available from Anton Paar Japan K.K. with a measurement mode of steady flow shear viscosity at 0 °C and 95 °C, respectively, for 15 seconds using a measurement strain of 0 % to 10,000 % with a shear rate of 6 (1/s), with a preheating time of one minute after an insertion between plates heated at a set temperature using a circular plate as rotor shape and adjusting an 1 mm distance between plates using no extruded sealant.
A semi-persistent scheduling method for a multicast/broadcast service comprising: receiving, by a terminal device, semi-persistent configuration information for a multicast/broadcast service from a network device, wherein the semi-persistent configuration information comprises a first identifier and related information of a physical downlink shared channel, PDSCH, for multicast/broadcast service transmission; receiving, by the terminal device, activation information from the network device according to the first identifier, wherein the activation information is used to indicate activating the semi-persistent configuration information, and the first identifier is a second-type identifier, wherein the second-type identifier is used to identify a terminal device group of a multicast/broadcast service which a terminal device belongs to; receiving, by the terminal device, the PDSCH from the network device according to the activation information and the semi-persistent configuration information, wherein the PDSCH carries multicast/broadcast service data; wherein the activation information is further used to indicate that downlink control information obtained by scrambling using the second-type identifier is not required to be detected within a preset time period. receiving, by a terminal device, semi-persistent configuration information for a multicast/broadcast service from a network device, wherein the semi-persistent configuration information comprises a first identifier and related information of a physical downlink shared channel, PDSCH, for multicast/broadcast service transmission; receiving, by the terminal device, activation information from the network device according to the first identifier, wherein the activation information is used to indicate activating the semi-persistent configuration information, and the first identifier is a second-type identifier, wherein the second-type identifier is used to identify a terminal device group of a multicast/broadcast service which a terminal device belongs to; receiving, by the terminal device, the PDSCH from the network device according to the activation information and the semi-persistent configuration information, wherein the PDSCH carries multicast/broadcast service data; wherein the activation information is further used to indicate that downlink control information obtained by scrambling using the second-type identifier is not required to be detected within a preset time period.
A unipolar multiple-input multiple-output (MIMO) antenna, comprising a plurality of unipolar radio frequency antennas, wherein each of the unipolar RF antennas comprises a metal sheet and a feeder line, the metal sheet is enchased with a metal microstructure thereon, and the feeder line and the metal sheet are connected in a signal communicative manner; it is characterized in that each of the unipolar RF antennas is spaced from another unipolar RF antenna with a distance, and the distance is 2,4,6,8 or 10 millimeters.
A polymer dispersant for cellulose, the polymer dispersant that is used for dispersing cellulose and is a polymer compound having a block copolymer structure comprising a resin-affinitive segment A and a cellulose-adsorptive segment B, the polymer compound synthesized through a reversible chain transfer catalyzed polymerization (RTCP) method: being a living radical polymerization method not using any of a heavy metal, a nitroxide compound, and a sulfur-based compound; using an organic iodine compound as an initiation compound; and using a phosphorus compound, a nitrogen compound, an oxygen compound, or a carbon compound as a catalyst. the polymer dispersant that is used for dispersing cellulose and is a polymer compound having a block copolymer structure comprising a resin-affinitive segment A and a cellulose-adsorptive segment B, the polymer compound synthesized through a reversible chain transfer catalyzed polymerization (RTCP) method: being a living radical polymerization method not using any of a heavy metal, a nitroxide compound, and a sulfur-based compound; using an organic iodine compound as an initiation compound; and using a phosphorus compound, a nitrogen compound, an oxygen compound, or a carbon compound as a catalyst. being a living radical polymerization method not using any of a heavy metal, a nitroxide compound, and a sulfur-based compound; using an organic iodine compound as an initiation compound; and using a phosphorus compound, a nitrogen compound, an oxygen compound, or a carbon compound as a catalyst.
A back-pressure steam turbine, which contains a combined unit with a high-pressure section, a middle-pressure section and a low-pressure section, whereas behind the combined unit on the same shaft is arranged an additional low-pressure unit, whereby the inlet of steam to the additional low-pressure unit is interconnected with the outlet of steam from the middle-pressure section of the combined unit, characterized in that, the inlet of the additional low-pressure unit is pressure separated from the outlet of the low-pressure section of the combined unit by a dividing wall, formed by a stationary partition resembling a non-bladed guide wheel, through the centre of which the shaft of the turbine passes and which is along the shaft of the turbine sealed by a contactless labyrinth shaft seal, wherein the combined unit and the additional low-pressure unit together with the dividing wall are arranged on one common shaft and positioned inside one common turbine casing, wherein the low-pressure section and the additional low pressure unit are both one-stream.
An isolated protein comprising an amino acid sequence of SEQ ID NO:2 or a fragment thereof comprising the amino acid sequence TTSTE (SEQ ID NO:3), which comprises a deletion of one or more of the amino acid residues of the amino acid sequence TTSTE (SEQ ID NO: 3), and wherein the isolated protein or fragment thereof is capable of binding α2-3-linked N-glycolylneuraminic acid and α2-6-linked N-glycolylneuraminic acid.
A bioequivalence evaluation method of evaluating bioequivalence of a generic drug to the corresponding original drug by means of a computer, characterized in that, in the case of administration of said original drug and said generic drug, each coefficient of variation is obtained by dividing by the average value each standard deviation of at least one kind of data of in vivo movement indices numerically evaluating the properties of each drug with respect to in vivo movement thereof, and the calibration coefficient of variation is obtained by dividing said coefficient of variation by the coefficient of variation of said original drug (CVs), and then bioequivalence is evaluated by means of said calibration coefficient of variation, wherein a in vivo movement index is at least one kind selected from the group consisting of the maximum blood concentration (Cmax), the time-to-maximum blood concentration (Tmax), the half-life (T 1/2), the mean residence time, the blood concentration-area under the curve and the relative absorption rate.
Balance (10; 20; 30; 40), configured as a single unit with a weighing pan enclosed in a weighing compartment (12; 22) and with a balance housing (14; 23) adjoining the weighing compartment (12; 22), wherein the balance housing (14; 23) contains a weighing cell compartment enclosing a weighing cell, an electronics compartment containing electrical and electronic circuit elements, a thermoelectric heat pump module and a heat flow controller, characterized in that the balance (10; 20; 30; 40) comprises a means to determine a net heat flow (P net) inside the balance housing (14; 23) in the direction from the weighing cell compartment to the electronics compartment and to make said net heat flow (P net) available to the heat flow controller as a control input, further that the thermoelectric heat pump module is arranged inside the balance housing (14; 23) and is regulated by the heat flow controller based on said control input to generate an active heat flow (P A) of a magnitude and direction to hold the net heat flow (P net) at a level that essentially equals the rate of heat dissipation produced inside the weighing cell compartment, wherein the means to determine the net heat flow (P net) comprises a pair of temperature sensors (31,32; 31',32') operable to determine a temperature difference (ΔT I, T 1 -T 2) across an interior boundary layer (29; 37) between the weighing cell compartment and the electronics compartment and to send to the heat flow controller said temperature difference (ΔT I, T 1 -T 2), based on which the heat flow controller is operable to determine a net heat flow (P net) as a control input.