mhurhangee/ep-ind-claims huggingface dataset:
A method of indicating a Channel State Information, CSI, feedback, comprising: a base station configuring a User Equipment, UE, with a CSI feedback scheme; and the base station transmitting the configured CSI feedback scheme to the UE in configuration signaling to indicate the CSI feedback scheme to be adopted by the UE in aperiodic CSI reporting, wherein the CSI feedback scheme configured for the UE by the base station comprises a joint feedback scheme and a second independent feedback scheme; and the joint feedback scheme is to put CSI of all the activated Downlink Component Carriers, DL CCs, of the UE over a Physical Uplink Shared Channel, PUSCH, scheduled by an Uplink Grant, UL grant, for feedback; and the second independent feedback scheme is to put CSI, of a DL CC having a system-level paired linking relationship with an Uplink Component Carriers, UL CC, scheduled by a UL grant, over a PUSCH scheduled by the UL grant for feedback, characterised in that: the CSI feedback scheme configured for the UE by the base station further comprises a first independent feedback scheme; and the first independent feedback scheme is to put CSI, of a DL CC over which a UL grant is transmitted from the base station, over a PUSCH scheduled by the UL grant for feedback. a base station configuring a User Equipment, UE, with a CSI feedback scheme; and the base station transmitting the configured CSI feedback scheme to the UE in configuration signaling to indicate the CSI feedback scheme to be adopted by the UE in aperiodic CSI reporting, wherein the CSI feedback scheme configured for the UE by the base station comprises a joint feedback scheme and a second independent feedback scheme; and the joint feedback scheme is to put CSI of all the activated Downlink Component Carriers, DL CCs, of the UE over a Physical Uplink Shared Channel, PUSCH, scheduled by an Uplink Grant, UL grant, for feedback; and the second independent feedback scheme is to put CSI, of a DL CC having a system-level paired linking relationship with an Uplink Component Carriers, UL CC, scheduled by a UL grant, over a PUSCH scheduled by the UL grant for feedback, characterised in that: the CSI feedback scheme configured for the UE by the base station further comprises a first independent feedback scheme; and the first independent feedback scheme is to put CSI, of a DL CC over which a UL grant is transmitted from the base station, over a PUSCH scheduled by the UL grant for feedback. the CSI feedback scheme configured for the UE by the base station further comprises a first independent feedback scheme; and the first independent feedback scheme is to put CSI, of a DL CC over which a UL grant is transmitted from the base station, over a PUSCH scheduled by the UL grant for feedback.
A method performed by a computing device for determining whether a velocity event is real or a false positive, each velocity event having a pair of IP addresses that share the velocity event, wherein the velocity event occurs when a resource is accessed from two different locations within a period of time that is too short for a person to have traveled between the locations, the method comprising: for each IP address of velocity events, generating a score for the IP address indicating whether the IP address is an originating address, wherein the originating address is associated with a location where the person is located, and wherein the score for an IP address is based on the number of velocity events that the IP address shares; and upon detecting a velocity event, determining whether the velocity event is real or a false positive based on the scores of the IP addresses of the velocity event. for each IP address of velocity events, generating a score for the IP address indicating whether the IP address is an originating address, wherein the originating address is associated with a location where the person is located, and wherein the score for an IP address is based on the number of velocity events that the IP address shares; and upon detecting a velocity event, determining whether the velocity event is real or a false positive based on the scores of the IP addresses of the velocity event.
A rice plant comprising a non-recombinant rice AHAS nucleic acid comprising a polynucleotide sequence selected from: (a) the polynucleotide sequence of SEQ ID NO:1, SEQ ID NO:3 or SEQ ID NO:5; (b) the polynucleotide sequence of SEQ ID NO:11; (c) polynucleotide sequences encoding a polypeptide comprising SEQ ID NO:2, SEQ ID NO:4, or SEQ ID NO:6; (d) a polynucleotide sequence encoding a polypeptide comprising SEQ ID NO:12; and (e) polynucleotide sequences complementary to the sequence of any of (a) through (d) above, wherein the AHAS nucleic acid polynucleotide sequence encodes a variant rice AHAS polypeptide comprising an alanine to threonine substitution at a position equivalent to position 96 of a wild-type rice AHAS polypeptide; wherein said alanine to threonine substitution at a position equivalent to position 96 of a wild-type rice AHAS polypeptide is the result of mutagenesis by seed treatment with a 0.001 M sodium azide aqueous solution at pH 3; and wherein expression of said variant rice AHAS polypeptide confers upon the rice plant increased tolerance to an imidazolinone herbicide as compared to that of a wild-type variety of the rice plant. (a) the polynucleotide sequence of SEQ ID NO:1, SEQ ID NO:3 or SEQ ID NO:5; (b) the polynucleotide sequence of SEQ ID NO:11; (c) polynucleotide sequences encoding a polypeptide comprising SEQ ID NO:2, SEQ ID NO:4, or SEQ ID NO:6; (d) a polynucleotide sequence encoding a polypeptide comprising SEQ ID NO:12; and (e) polynucleotide sequences complementary to the sequence of any of (a) through (d) above,
A communication method, for a receiver, comprising: receiving a received signal, from a transmitter which obtains a transmitted signal according to an original signal, the original signal being substantially equal to or identical to the transmitted signal, and the transmitted signal being changed into the received signal after passing through a channel; characterized in that obtaining information of the original signal according to the received signal, wherein the transmitted signal and the received signal are correlated using a structural causal model, and a plurality of causal variables and a causal structure of a causal graph of the structural causal model between the transmitted signal and the received signal are determined together, wherein the received signal is inferred into a plurality of combinations at least based on abductive reasoning, each of the plurality of combinations includes a candidate transmitted signal and a noise value, a preferred transmitted signal is selected from the plurality of candidate transmitted signals according to a signal-to-noise ratio, and the preferred transmitted signal is corresponding to the transmitted signal so as to convert the received signal into the original signal at least based on abductive reasoning. receiving a received signal, from a transmitter which obtains a transmitted signal according to an original signal, the original signal being substantially equal to or identical to the transmitted signal, and the transmitted signal being changed into the received signal after passing through a channel; characterized in that obtaining information of the original signal according to the received signal, wherein the transmitted signal and the received signal are correlated using a structural causal model, and a plurality of causal variables and a causal structure of a causal graph of the structural causal model between the transmitted signal and the received signal are determined together, wherein the received signal is inferred into a plurality of combinations at least based on abductive reasoning, each of the plurality of combinations includes a candidate transmitted signal and a noise value, a preferred transmitted signal is selected from the plurality of candidate transmitted signals according to a signal-to-noise ratio, and the preferred transmitted signal is corresponding to the transmitted signal so as to convert the received signal into the original signal at least based on abductive reasoning.
A computing device for generating a platform manifest, the computing device comprising: a platform description module to (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device, and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and a binding module to bind the platform manifest to the target computing device, wherein to bind the platform manifest comprises to burn a unique platform model number into the IFP fuse. a platform description module to (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device, and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and (i) read a platform model number from an in-field programmable, IFP, fuse and a platform description indicative of hardware components of a target computing device from one or more trusted I/O specific entries of an ACPI table of the computing device, and (ii) generate a platform manifest based on the platform description, wherein the platform manifest is indicative of one or more hardware components of the target computing device that are capable of trusted I/O; and a binding module to bind the platform manifest to the target computing device, wherein to bind the platform manifest comprises to burn a unique platform model number into the IFP fuse.
An impeller for a centrifugal compressor, the impeller comprising a web and blades secured to the web on a front face of the web, each having a blade root, a blade tip, a leading edge, and a trailing edge, the impeller being characterized in that a point of intersection between the trailing edge and the blade root is further forward by at least one half-thickness of the web than is the blade root at an intermediate diameter (D i) of the impeller, and a point of intersection between the trailing edge and the blade tip is also further forward than the blade tip at an intermediate diameter (D i) of the impeller.
A hot melt adhesive which is solid at room temperature wherein the room temperature is 23°C ± 3°C, said hot melt adhesive comprising the reaction product of: 5 to 25% by weight of an isocyanate component having an NCO content of from 20 to 50% by weight; 75 to 85% by weight of a polyester; and 1 to 10% by weight of a hydroxy-polymer having an OH number of from 40 to 50 wherein said hydroxy-polymer comprises the reaction product of a combination of monomers comprising at least one styrene monomer and at least one acrylate monomer, and optionally at least one hydroxyethylacrylate monomer different from said at least one acrylate monomer. 5 to 25% by weight of an isocyanate component having an NCO content of from 20 to 50% by weight; 75 to 85% by weight of a polyester; and 1 to 10% by weight of a hydroxy-polymer having an OH number of from 40 to 50 wherein said hydroxy-polymer comprises the reaction product of a combination of monomers comprising at least one styrene monomer and at least one acrylate monomer, and optionally at least one hydroxyethylacrylate monomer different from said at least one acrylate monomer.
Device for concentrating solar radiation in an absorber, comprising an inflatable concentrator cushion which has a translucent inlet window for coupling in solar radiation and a reflector film for concentrating the solar radiation in the absorber, which reflector film divides the concentrator cushion into at least two cavities (4, 5), and comprising a device for retaining the inflatable concentrator cushion, comprising a pivot means for pivoting the concentrator cushion in particular about the longitudinal axis thereof, the pivot means having at least one pivot element surrounding the concentrator cushion in the circumferential direction thereof, and comprising an anchoring means for anchoring the pivot means, characterised in that the anchoring means has a suspension means for suspending the pivot means.
A method for updating capabilities of a network node, the method comprising: a terminal receiving a capability; the terminal receiving a request to confirm a capability of the terminal, said request including a list of capabilities; the terminal comparing the list of capabilities to current capabilities of the terminal; the terminal identifying to a server the capability of the terminal; determining whether a threshold number of terminals includes the capability; the server responding to a positive determination by updating a network node with a network node capability; and the server transmitting a service based upon the identified capability to the terminal via the network node. a terminal receiving a capability; the terminal receiving a request to confirm a capability of the terminal, said request including a list of capabilities; the terminal comparing the list of capabilities to current capabilities of the terminal; the terminal identifying to a server the capability of the terminal; determining whether a threshold number of terminals includes the capability; the server responding to a positive determination by updating a network node with a network node capability; and the server transmitting a service based upon the identified capability to the terminal via the network node.
A method of manufacturing a thin film transistor array arrangement, comprising: forming a semiconductor layer on a substrate, depositing a first insulation layer and a first conductive layer on the semiconductor layer; forming an active layer, a gate insulation layer, and a gate electrode of a TFT and a first electrode, a first dielectric layer, and a second electrode of a capacitor by simultaneously patterning the semiconductor layer, the first insulation layer, and the first conductive layer via a first mask process using a first half-tone mask; depositing a second insulation layer on the substrate; exposing a part of a source and a drain region of the active layer of the TFT by forming contact holes in the second insulating layer via a second mask process; forming electrical contact with the source and drain regions of the active layer by sequentially depositing a second transparent conductive layer and a third conductive layer onto the second insulation layer and into the contact holes; forming a source electrode, a drain electrode, a pixel electrode of the TFT and a third electrode of the capacitor by simultaneously patterning the second transparent conductive layer. and the third conductive layer via a third mask process using a second half-tone mask; depositing a third insulation layer on the source electrode, the drain electrode, the pixel electrode, the third electrode and on exposed portions of the second insulation layer; and exposing the pixel electrode by patterning the third insulation layer via a fourth mask process. forming a semiconductor layer on a substrate, depositing a first insulation layer and a first conductive layer on the semiconductor layer; forming an active layer, a gate insulation layer, and a gate electrode of a TFT and a first electrode, a first dielectric layer, and a second electrode of a capacitor by simultaneously patterning the semiconductor layer, the first insulation layer, and the first conductive layer via a first mask process using a first half-tone mask; depositing a second insulation layer on the substrate; exposing a part of a source and a drain region of the active layer of the TFT by forming contact holes in the second insulating layer via a second mask process; forming electrical contact with the source and drain regions of the active layer by sequentially depositing a second transparent conductive layer and a third conductive layer onto the second insulation layer and into the contact holes; forming a source electrode, a drain electrode, a pixel electrode of the TFT and a third electrode of the capacitor by simultaneously patterning the second transparent conductive layer. and the third conductive layer via a third mask process using a second half-tone mask; depositing a third insulation layer on the source electrode, the drain electrode, the pixel electrode, the third electrode and on exposed portions of the second insulation layer; and exposing the pixel electrode by patterning the third insulation layer via a fourth mask process.
A plug for use in occluding a fallopian tube hysteroscopically, said plug comprising: an elongate body having an externally threaded section; at least one passage (6,17; 7,18; 8,19) extending through said body said externally threaded section having a thread comprising a plurality of turns; characterised in that: said at least one passage is in said externally threaded section and positioned between adjacent said turns of said thread. an elongate body having an externally threaded section; at least one passage (6,17; 7,18; 8,19) extending through said body said at least one passage is in said externally threaded section and positioned between adjacent said turns of said thread.
A gas burner, preferably a premix burner, comprising a support having a central gas inlet port for supply of gas into a gas supply chamber, said gas supply chamber being enclosed by a surface, said surface comprising a first burner membrane and an end cap substantially opposite to said gas inlet port, said end cap connected to the top of said first burner membrane, said first burner membrane connected at the bottom to said support through a base section, wherein the first burner membrane and the second burner membrane are two pieces, wherein said first burner membrane has the shape of a cylinder; wherein said end cap is formed by a second burner membrane and wherein the exterior surface of said first and second burner membrane being a perforated heat-resistant metal plate; characterised in that the second burner membrane is connected with the first burner membrane through a seam, said seam having interruptions for providing a further burner surface.
Coupling between parts that joins a first part having a first end formed by two angled surfaces (10, 11) and a second end formed by a curved surface, with a second substantially planar part having an edge parallel to the salient angle between the two angled surfaces of the first end of the first part, forming a coupling area comprising a first connecting portion, a second connecting portion and a third connecting portion characterised in that - the edge of the second part in the first portion is at a constant distance from the salient angle of the first part, - the second part in the third portion is supported on the curved surface of the second end of the first part - the second portion comprises a transition between the first portion and the third portion. - the edge of the second part in the first portion is at a constant distance from the salient angle of the first part, - the second part in the third portion is supported on the curved surface of the second end of the first part - the second portion comprises a transition between the first portion and the third portion.
A method of transmitting multi-bit scheduling requests, SRs, from a user equipment, UE, comprising: receiving, at the UE, a radio resource control, RRC, message from a first base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE (no) are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups includes a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating, at the UE, a plurality of multi-bit SRs including a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE (no) to at least one uplink CC of the plurality of uplink CCs; and transmitting, from the UE, at least one of the plurality of multi-bit SRs generated for a group of the plurality of uplink CC groups to a second base station. receiving, at the UE, a radio resource control, RRC, message from a first base station, wherein the RRC message indicates that uplink component carriers, CCs, of the UE (no) are to be assigned to a plurality of uplink CC groups, wherein the plurality of uplink CC groups includes a first uplink CC group and a second uplink CC group; assigning the uplink CCs to the plurality of uplink CC groups; generating, at the UE, a plurality of multi-bit SRs including a multi-bit SR for each group of the plurality of uplink CC groups, wherein the generating includes generating a first multi-bit SR for the first uplink CC group and a second multi-bit SR for the second uplink CC group, wherein a first number of bits of the first multi-bit SR is different from a second number of bits of the second multi-bit SR; mapping each logical channel of a plurality of logical channels at the UE (no) to at least one uplink CC of the plurality of uplink CCs; and transmitting, from the UE, at least one of the plurality of multi-bit SRs generated for a group of the plurality of uplink CC groups to a second base station.