mhurhangee/ep-ind-claims huggingface dataset:
A circuit interrupting assembly comprising: a base assembly; a plurality of circuit interrupting devices secured to the base assembly; a disconnect assembly associated with each of the circuit interrupting devices, the disconnecting assembly having a closed state wherein a conductor of the disconnect assembly couples the associated circuit interrupting device to a power distribution system, and an open state wherein the conductor uncouples the circuit interrupting device from the power distribution system; an actuation mechanism coupled to each of the disconnect assemblies for actuating the disconnect assemblies from the closed state to the open state and from the open state to the closed state; and a circuit interrupting device manual actuation assembly; and an interlock assembly coupled to each of the circuit interrupting devices, the interlock assembly preventing operation of the actuation mechanism when a circuit interrupting device of the plurality of the circuit interrupting devices is in a closed state, wherein the interlock assembly comprises a portion of the circuit interrupting device manual actuation assembly, characterized in that the circuit interrupting device manual actuation assembly includes a pair of links (324, 326) that couple to arms which are secured to a rotatable pin, said pin being formed with a relief that engages a collar secured to a first end of a rod of an actuator associated with a respective circuit interrupting device, wherein upon movement of said rod the contacts of said associated circuit interrupting device are separated. a base assembly; a plurality of circuit interrupting devices secured to the base assembly; a disconnect assembly associated with each of the circuit interrupting devices, the disconnecting assembly having a closed state wherein a conductor of the disconnect assembly couples the associated circuit interrupting device to a power distribution system, and an open state wherein the conductor uncouples the circuit interrupting device from the power distribution system; an actuation mechanism coupled to each of the disconnect assemblies for actuating the disconnect assemblies from the closed state to the open state and from the open state to the closed state; and a circuit interrupting device manual actuation assembly; and an interlock assembly coupled to each of the circuit interrupting devices, the interlock assembly preventing operation of the actuation mechanism when a circuit interrupting device of the plurality of the circuit interrupting devices is in a closed state, wherein the interlock assembly comprises a portion of the circuit interrupting device manual actuation assembly, characterized in that the circuit interrupting device manual actuation assembly includes a pair of links (324, 326) that couple to arms which are secured to a rotatable pin, said pin being formed with a relief that engages a collar secured to a first end of a rod of an actuator associated with a respective circuit interrupting device, wherein upon movement of said rod the contacts of said associated circuit interrupting device are separated.
An isolated binding protein that selectively binds human TGFβ1, wherein said binding protein is a homodimer of a polypeptide chain having the formula of, from N-terminus to C-terminus: VH domain-linker 1 -VL domain-linker2 -hinge -Fc region, wherein the VH domain comprises SEQ ID NO: 1 and the VL domain comprises SEQ ID NO: 6; the linker1 comprises SEQ ID NO: 3 or SEQ ID NO: 4; the linker2 comprises SEQ ID NO:20 or a variant thereof, wherein the variant differs from SEQ ID NO:20 by having up to two amino acid substitutions from glycine to serine or from serine to glycine; and the hinge comprises an amino acid sequence from a human IgG1 hinge region comprising the amino acid sequence of SEQ ID NO:21; and the Fc region is a human IgG1 or a human IgG4 Fc region. VH domain-linker 1 -VL domain-linker2 -hinge -Fc region, wherein the VH domain comprises SEQ ID NO: 1 and the VL domain comprises SEQ ID NO: 6; the linker1 comprises SEQ ID NO: 3 or SEQ ID NO: 4; the linker2 comprises SEQ ID NO:20 or a variant thereof, wherein the variant differs from SEQ ID NO:20 by having up to two amino acid substitutions from glycine to serine or from serine to glycine; and the hinge comprises an amino acid sequence from a human IgG1 hinge region comprising the amino acid sequence of SEQ ID NO:21; and the Fc region is a human IgG1 or a human IgG4 Fc region.
An iRNA agent comprising a first strand and a second strand, wherein at least one subunit having a formula is incorporated into at least one of said strands: wherein: X is N R 7 or NR 7; Y is CR 9 R 10; Z is absent; one of R 1, R 2, R 3, R 4, R 9, and R 10 is OR a and one of R 1, R 2, R 3, R 4, R 9, and R 10 is (CH 2) n OR b, or one of R 1, R 2, R 3, R 4, R 9, and R 10 is (CH 2) n OR a and one of R 1, R 2, R 3, R 4, R 9, and R 10 is OR b, wherein the remaining of R 1, R 2, R 3, R 4, R 9, and R 10 are H; each of R 5 and R 6 is, independently, H, or C 1 -C 6 alkyl optionally substituted with 1-3 R 13; R 7 is R d; or C 1 -C 20 alkyl substituted with NR c R d or NHC R d; R 13 is hydroxy, C 1 -C 4 alkoxy, or halo; R a is:; R b is; each of A and C is, independently, O or S; B is OH, O -, or R c is H or C 1 -C 6 alkyl; R d is a ligand chosen from a cholesterol radical; a carbohydrate radical; and cholesterol; and n is 1-4; wherein the subunit is placed at the 3' or 5' end of the first strand or the second strand. X is N R 7 or NR 7; Y is CR 9 R 10; Z is absent; one of R 1, R 2, R 3, R 4, R 9, and R 10 is OR a and one of R 1, R 2, R 3, R 4, R 9, and R 10 is (CH 2) n OR b, or one of R 1, R 2, R 3, R 4, R 9, and R 10 is (CH 2) n OR a and one of R 1, R 2, R 3, R 4, R 9, and R 10 is OR b, wherein the remaining of R 1, R 2, R 3, R 4, R 9, and R 10 are H; each of R 5 and R 6 is, independently, H, or C 1 -C 6 alkyl optionally substituted with 1-3 R 13; R 7 is R d; or C 1 -C 20 alkyl substituted with NR c R d or NHC R d; R 13 is hydroxy, C 1 -C 4 alkoxy, or halo; R a is:; R b is; each of A and C is, independently, O or S; B is OH, O -, or R c is H or C 1 -C 6 alkyl; R d is a ligand chosen from a cholesterol radical; a carbohydrate radical; and cholesterol; and n is 1-4; wherein the subunit is placed at the 3' or 5' end of the first strand or the second strand.
An audio system for processing a first audio signal and a second audio signal, said system having a frequency splitter dividing said first audio signal into a first spectral band signal and a second spectral band signal; a front/rear scaler to orient the apparent source of a sound relative to a listener, said scaler scaling said first spectral band signal by a first scaling factor proportional to the amplitude of said first audio signal to create a first signal portion and scaling said first spectral band signal by a second scaling factor proportional to the amplitude of said second audio signal to create a second signal portion; a first filter filtering said first signal portion to produce a filtered first signal portion; and a second filter filtering said second signal portion to produce a filtered second signal portion.
A method of transmitting at least one broadcasting signal frame having Physical Layer Pipe, PLP, data and preamble data, the method comprising: mapping bits of the PLP data into PLP data symbols and bits of the preamble data into preamble data symbols; building at least one data slice based on the PLP data symbols, the data slice being one of a first type of data slice and a second type of data slice, wherein the first type of data slice does not have a frame header and the second type of data slice has the frame header, wherein the frame header includes modulation and coding parameters of the PLP data; building a signal frame based on the preamble data symbols and the data slices; and modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein the preamble data symbols include Layer-1, L1, signaling information, wherein the L1 signaling information is time-interleaved to a L1 time-interleaving, TI, block within a L1 block in accordance with a time-interleaving depth, and a L1 header is included in front of the L1 TI block, and the L1 header and the L1 TI block are repeated in frequency within a least one of the preamble data symbols, wherein pilot positions in the preamble data symbols are excluded in the time-interleaving, wherein the L1 signaling information includes data slice ID information that identifies a data slice, and wherein the L1 signaling information includes the time interleaving depth, and wherein the time-interleaving depth corresponds to a number of OFDM symbols. mapping bits of the PLP data into PLP data symbols and bits of the preamble data into preamble data symbols; building at least one data slice based on the PLP data symbols, the data slice being one of a first type of data slice and a second type of data slice, wherein the first type of data slice does not have a frame header and the second type of data slice has the frame header, wherein the frame header includes modulation and coding parameters of the PLP data; building a signal frame based on the preamble data symbols and the data slices; and modulating the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method, wherein the preamble data symbols include Layer-1, L1, signaling information, wherein the L1 signaling information is time-interleaved to a L1 time-interleaving, TI, block within a L1 block in accordance with a time-interleaving depth, and a L1 header is included in front of the L1 TI block, and the L1 header and the L1 TI block are repeated in frequency within a least one of the preamble data symbols, wherein pilot positions in the preamble data symbols are excluded in the time-interleaving, wherein the L1 signaling information includes data slice ID information that identifies a data slice, and wherein the L1 signaling information includes the time interleaving depth, and wherein the time-interleaving depth corresponds to a number of OFDM symbols.
A method for determining the presence or expression level of a transcript resulting from exon skipping, the method comprising: a step of preparing a transcript from a sample derived from a subject; a step of preparing cDNA from the transcript; a step of concentrating target cDNA hybridized to a capture probe set; a step of subjecting the concentrated target cDNA to sequencing by massively parallel sequencing; and a step of determining the presence or expression level of a transcript resulting from exon skipping; wherein the transcript comprises exon A' on the 5' side and exon B' on the 3' side linked to each other at a potential junction point, the capture probe set comprises at least two different capture probes that hybridize to a region derived from either exon A' or B' of cDNA prepared from the transcript, and z ≥ x + y is met, wherein x represents the minimum nucleotide length from an end of each of the capture probes hybridized to the cDNA to the potential junction point, y represents the nucleotide length of the region of each of the capture probes hybridized to cDNA, and z represents the length of a read of massively parallel sequencing. a step of preparing a transcript from a sample derived from a subject; a step of preparing cDNA from the transcript; a step of concentrating target cDNA hybridized to a capture probe set; a step of subjecting the concentrated target cDNA to sequencing by massively parallel sequencing; and a step of determining the presence or expression level of a transcript resulting from exon skipping; wherein the transcript comprises exon A' on the 5' side and exon B' on the 3' side linked to each other at a potential junction point, the capture probe set comprises at least two different capture probes that hybridize to a region derived from either exon A' or B' of cDNA prepared from the transcript, and z ≥ x + y is met, wherein x represents the minimum nucleotide length from an end of each of the capture probes hybridized to the cDNA to the potential junction point, y represents the nucleotide length of the region of each of the capture probes hybridized to cDNA, and z represents the length of a read of massively parallel sequencing.
A method for determining a hybrid automatic repeat request, HARQ, identifier, comprising: determining, by a network device, a time domain resource sequence number of a current transmission, a number of HARQ processes, time domain resource configuration information, an HARQ identifier offset, and a number of transmission times of a current transport block, TB, wherein the time domain resource configuration information comprises a period of the time domain resource of a non-dynamic resource configuration; and determining, by the network device, an HARQ identifier based on the time domain resource sequence number of the current transmission, the number of HARQ processes, the period of the time domain resource, the HARQ identifier offset, and the number of transmission times of the current TB; wherein the HARQ identifier satisfies the following expression: HARQ Process ID = floor t _ temp − current _ n / T _ temp modulo B + Hoffset wherein HARQ Process ID represents the HARQ identifier; t represents the time domain resource sequence number of the current transmission, current_n represents the number of transmission times of the current TB, T represents the period of the time domain resource, B represents the number of HARQ processes, t_temp and T_temp are respectively parameters obtained by converting t and T based on a specific time unit, Hoffset represents a HARQ ID offset, (t_temp - current_n) is a first time domain resource sequence number; floor represents rounding down, and modulo represents modulo operation. determining, by a network device, a time domain resource sequence number of a current transmission, a number of HARQ processes, time domain resource configuration information, an HARQ identifier offset, and a number of transmission times of a current transport block, TB, wherein the time domain resource configuration information comprises a period of the time domain resource of a non-dynamic resource configuration; and determining, by the network device, an HARQ identifier based on the time domain resource sequence number of the current transmission, the number of HARQ processes, the period of the time domain resource, the HARQ identifier offset, and the number of transmission times of the current TB; wherein the HARQ identifier satisfies the following expression: HARQ Process ID = floor t _ temp − current _ n / T _ temp modulo B + Hoffset wherein HARQ Process ID represents the HARQ identifier; t represents the time domain resource sequence number of the current transmission, current_n represents the number of transmission times of the current TB, T represents the period of the time domain resource, B represents the number of HARQ processes, t_temp and T_temp are respectively parameters obtained by converting t and T based on a specific time unit, Hoffset represents a HARQ ID offset, (t_temp - current_n) is a first time domain resource sequence number; floor represents rounding down, and modulo represents modulo operation.
A blade mount for a lawn care vehicle, the blade mount comprising: a blade mount base disposed to operably engage a rotatable shaft of the lawn care vehicle at a center of the blade mount; a blade insertion slot proximate to a distal end of the blade mount base, the blade insertion slot being configured to enclose at least a portion of a blade responsive to insertion of the blade into the blade insertion slot; and a blade engagement assembly disposed proximate to the blade mount base to enable removal of a protruding member from the blade insertion slot responsive to operation of the blade engagement assembly, wherein the protruding member is biased to protrude into the blade insertion slot to secure the blade within the blade insertion slot when the blade engagement assembly is not operated to remove the protruding member from the blade insertion slot, characterized in that the blade engagement assembly comprises an unlocking tab configured to withdraw the protruding member from the blade insertion slot responsive to operation of the unlocking tab and wherein the unlocking tab is configured to move in a direction substantially perpendicular to a direction of withdrawal of the protruding member. a blade mount base disposed to operably engage a rotatable shaft of the lawn care vehicle at a center of the blade mount; a blade insertion slot proximate to a distal end of the blade mount base, the blade insertion slot being configured to enclose at least a portion of a blade responsive to insertion of the blade into the blade insertion slot; and a blade engagement assembly disposed proximate to the blade mount base to enable removal of a protruding member from the blade insertion slot responsive to operation of the blade engagement assembly, wherein the protruding member is biased to protrude into the blade insertion slot to secure the blade within the blade insertion slot when the blade engagement assembly is not operated to remove the protruding member from the blade insertion slot, characterized in that the blade engagement assembly comprises an unlocking tab configured to withdraw the protruding member from the blade insertion slot responsive to operation of the unlocking tab and wherein the unlocking tab is configured to move in a direction substantially perpendicular to a direction of withdrawal of the protruding member.
A method of controlling a power converter of a synchronous machine system, said method comprising: sampling phase-current values between said power converter and a synchronous machine; selecting a rotating reference frame; feeding the phase-current values into a Clarke transform unit to determine stationary reference frame values; calculating rotating reference frame values, of the selected rotating reference frame, in a Park transform unit; regulating a current vector to align with the reference frame, said selected reference frame having a direct-axis component and a quadrature-axis component; estimating rotor speed and position as a function of instantaneous power, said step of estimating directly deriving rotor angle as a function of instantaneous power to estimate said rotor position; adjusting said selected reference frame, based on estimated rotor position, to synchronize said selected reference frame with a magnetic axis of said rotor, thereby generating a synchronized floating frame; and applying said synchronized floating frame to control said power converter, wherein said step of estimating rotor speed and position is based on an instantaneous power factor angle: θ = Arctg Q / P, where Q is imaginary power and P is real power. sampling phase-current values between said power converter and a synchronous machine; selecting a rotating reference frame; feeding the phase-current values into a Clarke transform unit to determine stationary reference frame values; calculating rotating reference frame values, of the selected rotating reference frame, in a Park transform unit; regulating a current vector to align with the reference frame, said selected reference frame having a direct-axis component and a quadrature-axis component; estimating rotor speed and position as a function of instantaneous power, said step of estimating directly deriving rotor angle as a function of instantaneous power to estimate said rotor position; adjusting said selected reference frame, based on estimated rotor position, to synchronize said selected reference frame with a magnetic axis of said rotor, thereby generating a synchronized floating frame; and applying said synchronized floating frame to control said power converter, wherein said step of estimating rotor speed and position is based on an instantaneous power factor angle: θ = Arctg Q / P, where Q is imaginary power and P is real power.
A method for operating a policy control entity configured to control a policy in a cellular network applied to a first user entity for exchanging data packet sessions with the cellular network wherein the first user entity is identified by the cellular network through subscription data by which the first user entity is linked to a subscriber, the method comprising: - determining the policy for the data packet session exchanged through the cellular network with the first user entity, - determining, whether the policy comprises a tethering policy indicating how to handle a tethering mechanism, in which a second entity uses transmission capabilities of the first user entity to exchange data packets of a data packet session through the cellular network, wherein in the affirmative, the determining comprises transmitting a policy profile request to a user data repository, said request including an International Mobile Subscriber Identity, IMSI, and a Mobile Station Integrated Services Digital Network, MSISDN, associated with the user entity and receiving a policy profile response from the user data repository, the policy profile response indicating that the tethering policy applies, - instructing a session control entity configured to control the data packet sessions in which the first user entity is involved to enforce the tethering policy. - determining the policy for the data packet session exchanged through the cellular network with the first user entity, - determining, whether the policy comprises a tethering policy indicating how to handle a tethering mechanism, in which a second entity uses transmission capabilities of the first user entity to exchange data packets of a data packet session through the cellular network, wherein in the affirmative, the determining comprises transmitting a policy profile request to a user data repository, said request including an International Mobile Subscriber Identity, IMSI, and a Mobile Station Integrated Services Digital Network, MSISDN, associated with the user entity and receiving a policy profile response from the user data repository, the policy profile response indicating that the tethering policy applies, - instructing a session control entity configured to control the data packet sessions in which the first user entity is involved to enforce the tethering policy.
A non-aqueous ink composition comprising: (a) a polythiophene comprising a repeating unit complying with formula wherein R 1 and R 2 are each, independently, H, alkyl, fluoroalkyl, alkoxy, aryloxy, or -O-[Z-O] p -R e; wherein Z is an optionally halogenated hydrocarbylene group, p is equal to or greater than 1, and R e is H, alkyl, fluoroalkyl, or aryl; (b) a transition metal complex having at least one β-diketonate ligand; and (c) a liquid carrier comprising one or more organic solvents. (a) a polythiophene comprising a repeating unit complying with formula wherein R 1 and R 2 are each, independently, H, alkyl, fluoroalkyl, alkoxy, aryloxy, or -O-[Z-O] p -R e; wherein Z is an optionally halogenated hydrocarbylene group, p is equal to or greater than 1, and R e is H, alkyl, fluoroalkyl, or aryl; Z is an optionally halogenated hydrocarbylene group, p is equal to or greater than 1, and R e is H, alkyl, fluoroalkyl, or aryl; (b) a transition metal complex having at least one β-diketonate ligand; and (c) a liquid carrier comprising one or more organic solvents.