mhurhangee/ep-ind-claims huggingface dataset:
A combine harvester, comprising: a threshing system having an inlet end that receives crop and an outlet end through which crop residue passes; a cleaning system having a set of cleaning system elements that receive crop from the threshing system and having a residue outlet end; a cleaning system fan that directs airflow along an airflow path, through the set of cleaning system elements, through the outlet end of the cleaning system and toward an outlet of the combine harvester; a chopper that has an inlet side and an outlet side and a set of rotatable knives that rotate along a rotation path; and a crop residue deflector configured for deployment, in a deployed position, in the airflow path of the cleaning system fan and at a position upstream, in the airflow path, of the outlet side of the chopper, characterized in that the crop residue deflector comprises an elongate member and a plurality of extending members having first and second ends, the first ends of the plurality of extending members being coupled to the elongate member and the second ends of the plurality of extending members being spaced from the first ends and spaced apart from one another and free of connection with one another, and that the second ends of the extending members are spaced so when the crop residue deflector is in the deployed position, the rotatable knives pass between the second ends of the extending members when the knives are rotating along the rotation path. a threshing system having an inlet end that receives crop and an outlet end through which crop residue passes; a cleaning system having a set of cleaning system elements that receive crop from the threshing system and having a residue outlet end; a cleaning system fan that directs airflow along an airflow path, through the set of cleaning system elements, through the outlet end of the cleaning system and toward an outlet of the combine harvester; a chopper that has an inlet side and an outlet side and a set of rotatable knives that rotate along a rotation path; and a crop residue deflector configured for deployment, in a deployed position, in the airflow path of the cleaning system fan and at a position upstream, in the airflow path, of the outlet side of the chopper, characterized in that the crop residue deflector comprises an elongate member and a plurality of extending members having first and second ends, the first ends of the plurality of extending members being coupled to the elongate member and the second ends of the plurality of extending members being spaced from the first ends and spaced apart from one another and free of connection with one another, and that the second ends of the extending members are spaced so when the crop residue deflector is in the deployed position, the rotatable knives pass between the second ends of the extending members when the knives are rotating along the rotation path.
An artificial microstructure employed in an artificial electromagnetic material, the artificial microstructure comprising a first segment, a second segment, and a third segment, the first segment being parallel to the second segment, and the third segment being connected between the first segment and the second segment, wherein the first segment, the second segment and the third segment form a -shaped structure, wherein the artificial microstructure comprises two -shaped structures (512, 522), the third segments of the two -shaped structures (512, 522) are perpendicularly connected, and a connection point is located in the center of the two third segments, characterised in that four -shaped structures (532, 542, 552, 562) are 90-degree rotationally symmetrical to the connection point, and wherein the four -shaped structures (532, 542, 552, 562) which are rotationally symmetric to the connection point are respectively located in a space formed within an angle between the two mutually orthogonal -shaped structures (512, 522).
A polyethylene polymer blend having a melt index (I 2) < 2 g/10 min, wherein I 2 is measured according to ASTM D1238 at 190°C and 2.16kg load, wherein the polyethylene polymer blend comprises: at least about 50% by wt. of at least one high density polyethylene resin (HDPE) having a density ≥ 0.950 g/cm 3, when measured according to ASTM D792; a melt index (I 2) < 4 g/10 min; a melt flow ratio (I 10 /I 2) ≤ 9, where I 10 is measured according to ASTM D1238 at 190°C and 10 kg load; and a molecular weight distribution of about 2.0 to about 5, wherein MWD is defined as Mw/Mn with Mw being a weight average molecular weight and Mn being a number average molecular weight; and 1% to 20% by wt. of at least one low density polyethylene resin (LDPE) having a density ≤ 0.930 g/cm 3, a melt index (I 2) of 0.1 to 10 g/min, and a MWD > 3. a density ≥ 0.950 g/cm 3, when measured according to ASTM D792; a melt index (I 2) < 4 g/10 min; a melt flow ratio (I 10 /I 2) ≤ 9, where I 10 is measured according to ASTM D1238 at 190°C and 10 kg load; and a molecular weight distribution of about 2.0 to about 5, wherein MWD is defined as Mw/Mn with Mw being a weight average molecular weight and Mn being a number average molecular weight; and
A method for manufacturing a light emitting device, comprising: a disposition step of disposing an LED element on an anisotropic conductive adhesive, which contains a polymerization component and a curing agent and which is disposed on a wiring board disposed on a stage; a primary heating step of increasing a temperature of the anisotropic conductive adhesive to cause a polymerization reaction of part of the polymerization component with the curing agent, while a pressing unit, a temperature thereof being kept at 20 °C or higher and 40 °C or lower, presses the LED element for a certain pressing time, to temporarily connect the LED element to the wiring board; and a secondary heating step of increasing temperatures of the wiring board, the anisotropic conductive adhesive, and the LED element, which are temporarily connected, to make final connection by the polymerization reaction of the polymerization component and curing of the anisotropic conductive adhesive, wherein the LED element has a fluorescent layer, the polymerization component contains an epoxy-modified silicone resin, a metal chelate compound is used as the curing agent, where the metal chelate compound is a latent curing agent in a state of being impregnated into porous particles, and in the primary heating step, the wiring board is pressed at a temperature of 160°C or higher and 210°C or lower for the certain pressing time. a disposition step of disposing an LED element on an anisotropic conductive adhesive, which contains a polymerization component and a curing agent and which is disposed on a wiring board disposed on a stage; a primary heating step of increasing a temperature of the anisotropic conductive adhesive to cause a polymerization reaction of part of the polymerization component with the curing agent, while a pressing unit, a temperature thereof being kept at 20 °C or higher and 40 °C or lower, presses the LED element for a certain pressing time, to temporarily connect the LED element to the wiring board; and a secondary heating step of increasing temperatures of the wiring board, the anisotropic conductive adhesive, and the LED element, which are temporarily connected, to make final connection by the polymerization reaction of the polymerization component and curing of the anisotropic conductive adhesive, wherein the LED element has a fluorescent layer, the polymerization component contains an epoxy-modified silicone resin, a metal chelate compound is used as the curing agent, where the metal chelate compound is a latent curing agent in a state of being impregnated into porous particles, and in the primary heating step, the wiring board is pressed at a temperature of 160°C or higher and 210°C or lower for the certain pressing time.
An apparatus for a vehicle having an electric propulsion motor, the apparatus being operable to: store first and second sounds, the first sound being a filtered version of the second sound; receive a signal corresponding to a speed of rotation of the motor; and generate an audible sound, wherein at least one characteristic of the audible sound is dependent on said signal, and wherein the audible sound is a blend of first and second sounds. store first and second sounds, the first sound being a filtered version of the second sound; receive a signal corresponding to a speed of rotation of the motor; and generate an audible sound, wherein at least one characteristic of the audible sound is dependent on said signal, and wherein the audible sound is a blend of first and second sounds.
A method for communicating data relating to the analysis of a pathology specimen to a user, the analysis being carried out in a computer system based on digital images of the specimen stored in a data storage and generating quantitative results, wherein: the specimen comprises a plurality of nuclei; the analysis results in allocation of a numerical value to each nucleus of the plurality of nuclei, the numerical values indicative of whether or not each cell nucleus is normal; and the quantitative results include a number of nuclei per numerical value, the method comprising: sending data containing the quantitative results of the analysis of a specimen, in response to a request from a user, the quantitative results being displayed to the user in the form of a graph such as a histogram or scattergram for selection; receiving a request for digital images of the specimen from said user, the request specifying a selected numerical value of the allocated numerical values of said quantitative results data for which images are required, retrieving digital images of the specimen associated with said selected numerical value; and sending retrieved digital images of the specimen from which the selected quantitative results data were generated. the specimen comprises a plurality of nuclei; the analysis results in allocation of a numerical value to each nucleus of the plurality of nuclei, the numerical values indicative of whether or not each cell nucleus is normal; and the quantitative results include a number of nuclei per numerical value, the method comprising: sending data containing the quantitative results of the analysis of a specimen, in response to a request from a user, the quantitative results being displayed to the user in the form of a graph such as a histogram or scattergram for selection; receiving a request for digital images of the specimen from said user, the request specifying a selected numerical value of the allocated numerical values of said quantitative results data for which images are required, retrieving digital images of the specimen associated with said selected numerical value; and sending retrieved digital images of the specimen from which the selected quantitative results data were generated. sending data containing the quantitative results of the analysis of a specimen, in response to a request from a user, the quantitative results being displayed to the user in the form of a graph such as a histogram or scattergram for selection; receiving a request for digital images of the specimen from said user, the request specifying a selected numerical value of the allocated numerical values of said quantitative results data for which images are required, retrieving digital images of the specimen associated with said selected numerical value; and sending retrieved digital images of the specimen from which the selected quantitative results data were generated.
A wafer, comprising: a plurality of optical devices separable by cleaving, each optical device including a light source including a waveguide, and each light source being configured to output light through the waveguide; and a plurality of optical wavelength monitors including a photodiode, each of the optical wavelength monitors being configured to output a signal that is representative of a wavelength of the light output by the light source of a respective one of said optical devices included on the wafer, characterised in that the plurality of optical devices and the plurality of optical wavelength monitors are arranged in columns and rows on the wafer such that the wafer is cleavable to leave at least a portion of each optical wavelength monitor on an adjacent one of said optical devices. a plurality of optical devices separable by cleaving, each optical device including a light source including a waveguide, and each light source being configured to output light through the waveguide; and a plurality of optical wavelength monitors including a photodiode, each of the optical wavelength monitors being configured to output a signal that is representative of a wavelength of the light output by the light source of a respective one of said optical devices included on the wafer, characterised in that the plurality of optical devices and the plurality of optical wavelength monitors are arranged in columns and rows on the wafer such that the wafer is cleavable to leave at least a portion of each optical wavelength monitor on an adjacent one of said optical devices.
A method, comprising: performing, by one or more computing devices: receiving, at a multi-tenant stream processing service from a particular client via a programmatic interface, an indication of a particular operation to be performed on data records of a particular data stream at a specified processing stage, and a particular output distribution descriptor for results of the particular operation; determining, based at least in part on the particular operation, an initial number of worker nodes (840A, 840B) to be configured for the specified processing stage in accordance with a partitioning policy; configuring a particular worker node of the initial number of worker nodes to (a) perform the particular operation on received data records of one or more partitions of the particular data stream, (b) store progress records indicating the portion of the one or more partitions that have been processed at the worker node, and (c) transfer results of the particular operations to one or more destinations in accordance with the particular output distribution descriptor; and in response to a determination that the particular worker node is in an unhealthy state, selecting a replacement worker node to replace the particular worker node, wherein the replacement worker node accesses a progress record stored by the particular worker node to identify at least one data record of the one or more partitions on which the particular operation is to be performed by the replacement worker node. receiving, at a multi-tenant stream processing service from a particular client via a programmatic interface, an indication of a particular operation to be performed on data records of a particular data stream at a specified processing stage, and a particular output distribution descriptor for results of the particular operation; determining, based at least in part on the particular operation, an initial number of worker nodes (840A, 840B) to be configured for the specified processing stage in accordance with a partitioning policy; configuring a particular worker node of the initial number of worker nodes to (a) perform the particular operation on received data records of one or more partitions of the particular data stream, (b) store progress records indicating the portion of the one or more partitions that have been processed at the worker node, and (c) transfer results of the particular operations to one or more destinations in accordance with the particular output distribution descriptor; and in response to a determination that the particular worker node is in an unhealthy state, selecting a replacement worker node to replace the particular worker node, wherein the replacement worker node accesses a progress record stored by the particular worker node to identify at least one data record of the one or more partitions on which the particular operation is to be performed by the replacement worker node.
A method for managing radio resources by a radio resource manager, RRM, in a wireless network comprising a plurality of nodes (102-1,... 102-n), the RRM, and at least one wireless transmit/receive unit, WTRU,, the method comprising: the RRM monitoring performance of wireless backhaul links (112-1,..., 112-n) associated with the nodes (102-1,... 102-n) of the wireless network; and the RRM interacting with at least one of the nodes to change a configuration on a particular one of the wireless backhaul links between two of the nodes if performance on the particular wireless backhaul link falls below an established threshold, whereby when the RRM recognizes that one of said at least one WTRUs is interfering with said particular wireless backhaul link, the RRM interacts with said at least one of the nodes to mitigate the impact of interference caused by the WTRU, whereby the RRM assigns and reassigns timeslots as a function of interference observed by the RRM in particular timeslots. the RRM monitoring performance of wireless backhaul links (112-1,..., 112-n) associated with the nodes (102-1,... 102-n) of the wireless network; and the RRM interacting with at least one of the nodes to change a configuration on a particular one of the wireless backhaul links between two of the nodes if performance on the particular wireless backhaul link falls below an established threshold, whereby when the RRM recognizes that one of said at least one WTRUs is interfering with said particular wireless backhaul link, the RRM interacts with said at least one of the nodes to mitigate the impact of interference caused by the WTRU, whereby the RRM assigns and reassigns timeslots as a function of interference observed by the RRM in particular timeslots.
A method of receiving a downlink control channel by a user equipment in a wireless communication system, the method comprising: receiving PDCCH by monitoring candidate Physical Downlink Control Channels, PDCCHs, configured with Control Channel Elements, CCEs, of which number is related to an aggregation level, wherein CCEs for candidate PDCCHs of a higher aggregation level include all CCEs for candidate PDCCHs of a lower aggregation level, the method characterized in that: the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level. receiving PDCCH by monitoring candidate Physical Downlink Control Channels, PDCCHs, configured with Control Channel Elements, CCEs, of which number is related to an aggregation level, wherein CCEs for candidate PDCCHs of a higher aggregation level include all CCEs for candidate PDCCHs of a lower aggregation level, the method characterized in that: the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level. the CCEs for the candidate PDCCHs of the lower aggregation level included in each of the candidate PDCCHs of the higher aggregation level are determined based on a matrix based on a size of the higher aggregation level and the number of the candidate PDCCHs of the higher aggregation level, a size of a row of the matrix is related to the size of the higher aggregation level and wherein a size of a column of the matrix is related to the number of the candidate PDCCHs of the higher aggregation level, and the CCEs are arranged on each element configuring the matrix with reference to indexes of the CCEs and wherein the CCEs arranged in the same column are included in candidate PDCCH of a same higher aggregation level.
A method for performing an early measurement executed by a User Equipment, UE, comprising: receiving a first message from a Base Station, BS, wherein the first message comprises early measurement configuration of at least one first carrier frequency; and performing an early measurement according to the early measurement configuration, when the UE supports a dual-connectivity, DC, configuration between a serving carrier of a serving cell of the BS, and the at least one first carrier frequency, further comprising: receiving an indication from the BS, wherein the indication indicates the UE to indicate in a Radio Resource Control, RRC, message whether early measurement results of carrier frequencies of a second Radio Access Technology, RAT, type are available, wherein the second RAT type is different from a first RAT type of the carrier frequencies of the serving cell of the UE. receiving a first message from a Base Station, BS, wherein the first message comprises early measurement configuration of at least one first carrier frequency; and performing an early measurement according to the early measurement configuration, when the UE supports a dual-connectivity, DC, configuration between a serving carrier of a serving cell of the BS, and the at least one first carrier frequency, further comprising: receiving an indication from the BS, wherein the indication indicates the UE to indicate in a Radio Resource Control, RRC, message whether early measurement results of carrier frequencies of a second Radio Access Technology, RAT, type are available, wherein the second RAT type is different from a first RAT type of the carrier frequencies of the serving cell of the UE.