mhurhangee/patent-ind-claim-en huggingface dataset:
A grain harvesting vehicle configured to harvest a grain, the grain harvesting vehicle comprising: a chaffer configured to separate grain from material other than grain (MOG); a grate positioned rearward of the chaffer , the grate comprising: a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture ; and a grain sensor having a sensing location positioned at a height below the grate , characterized in that the first ramp portion is hollow and begins at a point on the upper surface of the grate and increases in width and height in the direction of the length (L1) of the grate toward the rear side of the grate , that the grate further includes a second ramp portion extending below the grate panel from adjacent the second end of the aperture toward the first end of the aperture , and that the first ramp portion is mirrored relative to the second ramp portion such that the second ramp portion forms a lower cupped ramp on the lower surface of the grate .. a chaffer configured to separate grain from material other than grain (MOG); a grate positioned rearward of the chaffer , the grate comprising: a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture ; and a grain sensor having a sensing location positioned at a height below the grate , a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture ; and a grain sensor having a sensing location positioned at a height below the grate , characterized in that the first ramp portion is hollow and begins at a point on the upper surface of the grate and increases in width and height in the direction of the length (L1) of the grate toward the rear side of the grate , that the grate further includes a second ramp portion extending below the grate panel from adjacent the second end of the aperture toward the first end of the aperture , and that the first ramp portion is mirrored relative to the second ramp portion such that the second ramp portion forms a lower cupped ramp on the lower surface of the grate ..
A method comprising: receiving data from an inertial measurement unit, IMU, of a device for a sliding time window; receiving images from a camera of the device for the sliding time window; determining an IMU estimation of motion of the device based on the data from the IMU , wherein the estimation of motion of the device is in terms of changes in at least one of acceleration, velocity, position, or any combination of the acceleration, the velocity, the position; determining a camera estimation of motion of the device based on feature tracking in the images; determining , from the camera estimation of motion, a first indicator of the device being approximately stationary, and, from the IMU estimation of motion, a second indicator of the device being in movement; and in response to the first indicator of the device being approximately stationary and the second indicator of the device being in movement, determining one or more of a position or a velocity of the device for the sliding time window using data from one or more sensors of the device other than the IMU ; and determining an overall estimation of motion of the device for the sliding time window as supported by the data from the IMU and the one or more of the position or the velocity of the device ; wherein the data from the IMU is verified using the one or more of a position or a velocity of the device . receiving data from an inertial measurement unit, IMU, of a device for a sliding time window; receiving images from a camera of the device for the sliding time window; determining an IMU estimation of motion of the device based on the data from the IMU , wherein the estimation of motion of the device is in terms of changes in at least one of acceleration, velocity, position, or any combination of the acceleration, the velocity, the position; determining a camera estimation of motion of the device based on feature tracking in the images; determining , from the camera estimation of motion, a first indicator of the device being approximately stationary, and, from the IMU estimation of motion, a second indicator of the device being in movement; and in response to the first indicator of the device being approximately stationary and the second indicator of the device being in movement, determining one or more of a position or a velocity of the device for the sliding time window using data from one or more sensors of the device other than the IMU ; and determining an overall estimation of motion of the device for the sliding time window as supported by the data from the IMU and the one or more of the position or the velocity of the device ; wherein the data from the IMU is verified using the one or more of a position or a velocity of the device .
A method for establishing optimized data streams in a network, comprising: S1 notifying, by one or more Public Safety Answering Point, PSAP, elements, an Emergency Services Routing Proxy, ESRP, element about one or more calls with corresponding incidentlDs of one or more callers in one or more queues, S2 comparing, by the ESRP element, the one or more calls in the one or more queues with all active and queued calls monitored by the ESRP element, S3 identifying, by the ESRP element, if there are calls with a same incidentlD among the compared calls, characterized by S8 querying, by the ESRP element, all PSAP elements having identified compared calls with same incidentlD, to identify if a re-negotiation for optimization of stream conditions has been performed, if yes, S9 receiving, by the ESRP element, a list of Session Description Protocol-, SDP-, codecs that have been exchanged during the re-negotiation from the identified PSAP elements, S10 selecting, by the ESRP element, an SDP-codec having a first optimization level for establishing a data stream among the list of SDP-codecs; S11 evaluating, by the ESRP for the one or more PSAP elements, if the first optimization level for establishing a data stream is acceptable, S12 sending, by the one or more PSAP elements, a re-invite message to one or more caller devices in the one or more queues in case, the first optimization level was acceptable, S13 querying, by the ESRP, the one or more caller devices in the one or more queues if the SDP-codec having the first optimization level is supported, S14 instructing, by the ESRP, the one or more PSAP elements to exchange the SDP-codecs of the one or more calls in the one or more queues with the SDP-codec having the first optimization level, S15 establishing, by the one or more PSAP elements, a data stream with the SDP-codec having the first optimization level, wherein a negotiation of SDP codecs between the devices of the caller and callTaker is being performed before the re-negotiation.
A method of determining a level of endothelial disease in a subject, the method comprising: (a) examining circulating endothelial cells from the subject for the presence of one or more coagulation factors, and (b) correlating an amount of circulating endothelial cells exhibiting one or more coagulation factors with the level of endothelial disease in the subject, characterized in that the method further comprises enhancing a concentration of circulating endothelial cells from a sample obtained from the subject by one or more filtration methods. (a) examining circulating endothelial cells from the subject for the presence of one or more coagulation factors, and (b) correlating an amount of circulating endothelial cells exhibiting one or more coagulation factors with the level of endothelial disease in the subject,
An abiraterone acetate-containing composition, wherein the composition comprises abiraterone acetate and a self-microemulsion system, wherein the ratio of the weight percentages of abiraterone acetate to the self-microemulsion system is 4.3%-4.8% : 95.2%-95.7%; and the self-microemulsion system comprises an oil phase and an emulsion phase, and the ratio of the weight percentages of the oil phase and the emulsion phase is 30%-38% : 62%-70%; the oil phase comprises glycerol monolinoleate and medium chain triglyceride; the weight ratio of glycerol monolinoleate to medium chain triglyceride is 2.5-3.63:1; the emulsion phase comprises PEG-40 hydrogenated castor oil and 2-(2-ethoxyethoxy)ethanol; and the weight ratio of PEG-40 hydrogenated castor oil to 2-(2-ethoxyethoxy)ethanol in the emulsion phase is 1:2.25-2.5; and wherein the composition comprises the following components: abiraterone acetate: 4.3-4.8 wt.%; glycerol monolinoleate: 21.4-26.2 wt.%; medium chain triglycerides: 6.2-9.6 wt.%; PEG-40 hydrogenated castor oil: 17.7-19.7 wt.%; and 2-(2-ethoxyethoxy)ethanol: 42.8-47.8 wt.%. the self-microemulsion system comprises an oil phase and an emulsion phase, and the ratio of the weight percentages of the oil phase and the emulsion phase is 30%-38% : 62%-70%; the oil phase comprises glycerol monolinoleate and medium chain triglyceride; the weight ratio of glycerol monolinoleate to medium chain triglyceride is 2.5-3.63:1; the emulsion phase comprises PEG-40 hydrogenated castor oil and 2-(2-ethoxyethoxy)ethanol; and the weight ratio of PEG-40 hydrogenated castor oil to 2-(2-ethoxyethoxy)ethanol in the emulsion phase is 1:2.25-2.5; and wherein the composition comprises the following components: abiraterone acetate: 4.3-4.8 wt.%; glycerol monolinoleate: 21.4-26.2 wt.%; medium chain triglycerides: 6.2-9.6 wt.%; PEG-40 hydrogenated castor oil: 17.7-19.7 wt.%; and 2-(2-ethoxyethoxy)ethanol: 42.8-47.8 wt.%. abiraterone acetate: 4.3-4.8 wt.%; glycerol monolinoleate: 21.4-26.2 wt.%; medium chain triglycerides: 6.2-9.6 wt.%; PEG-40 hydrogenated castor oil: 17.7-19.7 wt.%; and 2-(2-ethoxyethoxy)ethanol: 42.8-47.8 wt.%.
An access node comprising: means for configuring a terminal device for interference measurement resources with a configuration comprising at least a first part indicating interference measurement resources that are allowed to overlap with resources for one or more reference symbols and a second part configuration indicating a type of the overlap, the type of overlap indicating at least the presence or absence of zero power resources and the presence or absence of non-zero power resources in the interference measurement resources, wherein the zero power resources and the non-zero power resources are interference measurement resources; and means for sending to the terminal device the first part and the second part. means for configuring a terminal device for interference measurement resources with a configuration comprising at least a first part indicating interference measurement resources that are allowed to overlap with resources for one or more reference symbols and a second part configuration indicating a type of the overlap, the type of overlap indicating at least the presence or absence of zero power resources and the presence or absence of non-zero power resources in the interference measurement resources, wherein the zero power resources and the non-zero power resources are interference measurement resources; and means for sending to the terminal device the first part and the second part.
Ring spinning machine comprising a plurality of spinning positions positioned next to one another on both sides of the machine longitudinal axis and each equipped with a multipart thread-break suction device in the delivery region of a drafting system arrangement , said device having a retaining sleeve connected to a suction duct of the ring spinning machine , which duct extends along the length of the machine, a suction pipe that can be secured in the retaining sleeve , and a suction nozzle , which is arranged on the suction pipe and can be interchangeably secured to the suction pipe by means of a locking device (24; 27), characterised in that , the suction nozzle has an inner tubular extension piece , which engages in the suction pipe when in the assembled state, and an outer tubular extension piece , which engages over the suction pipe when in the assembled state such as to produce a labyrinth seal, and the locking device is configured as a bayonet joint . the suction nozzle has an inner tubular extension piece , which engages in the suction pipe when in the assembled state, and an outer tubular extension piece , which engages over the suction pipe when in the assembled state such as to produce a labyrinth seal, and the locking device is configured as a bayonet joint .
A method for increasing the production of fermentable sugars in an ethanol fermentation process, comprising: chemically-pretreating corn fiber material derived from a predominantly corn kernel feedstock containing at least 80% corn kernels; and contacting the pretreated corn fiber with α-glucosidase (EC 3.2.1.20) to release fermentable sugars from the corn fiber; wherein the contacting with α-glucosidase releases fermentable sugars from the corn fiber material derived from a predominantly corn kernel feedstock that otherwise would not be available for fermentation, wherein the α-glucosidase is a GH31 enzyme and wherein the contacting with α-glucosidase is performed in the presence of one or more additional enzymes.
A rotary star screening plant, comprising at least one separation table for separating bulk goods into fine components passing through the separation table and into coarse components discharged at one end of the separation table , the separation table comprising a frame-shaped chassis and a plurality of parallel rotary shafts , each rotary shaft comprising a plurality of rotary stars spaced axially along the corresponding rotary shaft , each end of each rotary shaft being mounted on the chassis via a guide mechanism providing a pivot connection, the screening plant comprising a drive mechanism arranged along a longitudinal edge of the chassis and coupled to one end of each of the rotary shafts in order to drive the rotary shafts in a rotational movement (Ω), wherein each rotary shaft is subdivided at at least one of its ends into a first shaft portion coupled to the drive mechanism and a second shaft portion on which the rotary stars are mounted, the first shaft portion comprising a first coupling member and the second shaft portion comprising a second coupling member , the first and second coupling members being capable of occupying a coupling configuration in which the first and second coupling members are inter-engaged in such a way that the first shaft portion is rotatably coupled with the second shaft portion , each rotary shaft comprising a locking mechanism characterized in that each locking mechanism operates by radial clamping transversely to the axis of the rotary shaft and occupies a locking configuration in which the locking mechanism locks, under the effect of said radial clamping, the first and second coupling members in the coupling configuration.
A shiftable memory supporting an atomic operation comprising: a memory to store data, the memory having built-in shifting capability to shift a contiguous subset of the data from a first location to a second location within the memory , the contiguous subset of data having a size that is smaller than a total size of the memory ; wherein the memory having built-in shifting capability is to shift only data of the contiguous subset when the contiguous subset is shifted, characterized in that the shiftable memory comprises an atomic primitive defined on the memory to perform the atomic operation on the contiguous subset , the atomic primitive being configured to operate on the contiguous subset of data within the memory a memory to store data, the memory having built-in shifting capability to shift a contiguous subset of the data from a first location to a second location within the memory , the contiguous subset of data having a size that is smaller than a total size of the memory ; wherein the memory having built-in shifting capability is to shift only data of the contiguous subset when the contiguous subset is shifted, characterized in that the shiftable memory comprises an atomic primitive defined on the memory to perform the atomic operation on the contiguous subset , the atomic primitive being configured to operate on the contiguous subset of data within the memory
A computer-implemented method for providing second key elements of the examination region in an X-ray image, comprising: - receiving first input data, wherein the first input data is an optical image of an examination region, - applying a first trained function to the first input data, wherein first output data is generated, wherein the first output data comprises detected first key elements in the optical image, and a first collimation region is determined based on the first key elements, - receiving second input data, wherein the second input data is an X-ray image of an examination region, acquired using the first collimation region, - applying a second trained function to the second input data, wherein second output data is generated, wherein the second output data comprises detected second key elements in the X-ray image, - providing the second output data, wherein the second output data comprises second key elements of the examination region. - receiving first input data, wherein the first input data is an optical image of an examination region, - applying a first trained function to the first input data, wherein first output data is generated, wherein the first output data comprises detected first key elements in the optical image, and a first collimation region is determined based on the first key elements, - receiving second input data, wherein the second input data is an X-ray image of an examination region, acquired using the first collimation region, - applying a second trained function to the second input data, wherein second output data is generated, wherein the second output data comprises detected second key elements in the X-ray image, - providing the second output data, wherein the second output data comprises second key elements of the examination region.
A stent comprises a stent portion and a one-way sock valve coupled to the stent portion , the one-way sock valve comprising a collapsible sleeve such that the collapsible sleeve collapses against reverse pressure, such as pressure caused by the flow of fluids in a reverse direction to a normal flow direction through the collapsible sleeve , and the collapsible sleeve remains open for fluids and solids that pass through the collapsible sleeve in the normal flow direction, wherein the sleeve comprises a heel portion , such that the normal flow direction comprises a first direction oriented along a longitudinal axis of the stent portion within the collapsible sleeve of the one-way sock valve , and a second direction transversally oriented to the first direction, such that fluid and solids passing through the one-way sock valve exit from the collapsible sleeve through an opening transversally oriented to the first direction.
A user equipment, UE , comprising: a receiving unit configured to receive from a source base station a handover command which includes mobility control information of a target cell and whereby the handover command furthermore includes information about a first condition in the form of a measurement event; a storage unit configured to store the mobility control information; a handover unit configured to start executing a handover procedure when the first condition is met; the handover unit being further configured to send a Radio Resource Control, RRC, Reconfiguration Complete message to the target cell to complete the handover procedure; and a management unit configured to, when the RRC Reconfiguration Complete message has been successfully sent, release the stored mobility control information. a receiving unit configured to receive from a source base station a handover command which includes mobility control information of a target cell and whereby the handover command furthermore includes information about a first condition in the form of a measurement event; a storage unit configured to store the mobility control information; a handover unit configured to start executing a handover procedure when the first condition is met; the handover unit being further configured to send a Radio Resource Control, RRC, Reconfiguration Complete message to the target cell to complete the handover procedure; and a management unit configured to, when the RRC Reconfiguration Complete message has been successfully sent, release the stored mobility control information.
An apparatus comprising: a processor; and a memory that stores an instruction, the instruction including an opcode and an operand, wherein the operand specifies: an immediate value; or a register indicator of a register storing the immediate value, wherein the immediate value identifies a function call address that is selectable from a table that includes a plurality of function call addresses corresponding to a set of functions of the processor, the set of functions including frequently used functions of a particular application as determined by a compiler or by a linker, and wherein the processor is configured to dynamically update the table during execution of the application. a processor; and a memory that stores an instruction, the instruction including an opcode and an operand, wherein the operand specifies: an immediate value; or a register indicator of a register storing the immediate value, an immediate value; or a register indicator of a register storing the immediate value, wherein the immediate value identifies a function call address that is selectable from a table that includes a plurality of function call addresses corresponding to a set of functions of the processor, the set of functions including frequently used functions of a particular application as determined by a compiler or by a linker, and wherein the processor is configured to dynamically update the table during execution of the application.