mhurhangee/ep-ind-claims huggingface dataset:
An exterior building material comprising a colored coated metal sheet, wherein the colored coated metal sheet comprises: a metal sheet, and one or more coating films disposed thereon, the colored coated metal sheet has a mirror glossiness at 60 degrees of 60 to 100 and an L value in the Hunter's Lab color space of 70 or lower, an outermost-layer coating film among the coating films comprises a polyester and a particle containing a coloring pigment, a D 90 of the particle is 0.07 to 0.70 μm, and a D10 of the particle is 0.03 μm or more, and a content of the particle in the outermost-layer coating film is 10 to 60 mass%.
A hydraulic tensioner comprising: a tensioner body provided with a housing hole that is open at one end and at another end; a plunger that is slidably inserted in the housing hole; a biasing unit housed in a hydraulic chamber formed between the housing hole and the plunger to be extendable and retractable, the biasing unit biasing the plunger in a direction towards a tensioner slipper; an oil feeder that communicates with the hydraulic chamber and feeds an oil to the hydraulic chamber; a check valve unit disposed between the hydraulic chamber and the oil feeder; and a second hydraulic chamber that has a pressure lower than a pressure of the hydraulic chamber and into which the oil from the hydraulic chamber flows, the second hydraulic chamber being provided with a draining oil passage for draining the oil out of the hydraulic tensioner at the other end, wherein the hydraulic tensioner may be attached to an internal combustion engine installed in a saddled vehicle, the hydraulic tensioner comprises a flange member that closes the one end of the housing hole, the flange member is provided with a feeding oil passage including at least a part of the oil feeder and a branched oil passage branched downward from the feeding oil passage to be continuous with the hydraulic chamber, the feeding oil passage is inclined with respect to a horizontal plane when the saddled vehicle is on a ground, and an inlet (81C1) of the feeding oil passage in the flange member is disposed at a level lower than a level of an outlet (81C2) of the feeding oil passage in the flange member. a tensioner body provided with a housing hole that is open at one end and at another end; a plunger that is slidably inserted in the housing hole; a biasing unit housed in a hydraulic chamber formed between the housing hole and the plunger to be extendable and retractable, the biasing unit biasing the plunger in a direction towards a tensioner slipper; an oil feeder that communicates with the hydraulic chamber and feeds an oil to the hydraulic chamber; a check valve unit disposed between the hydraulic chamber and the oil feeder; and a second hydraulic chamber that has a pressure lower than a pressure of the hydraulic chamber and into which the oil from the hydraulic chamber flows, the second hydraulic chamber being provided with a draining oil passage for draining the oil out of the hydraulic tensioner at the other end, wherein the hydraulic tensioner may be attached to an internal combustion engine installed in a saddled vehicle, the hydraulic tensioner comprises a flange member that closes the one end of the housing hole, the flange member is provided with a feeding oil passage including at least a part of the oil feeder and a branched oil passage branched downward from the feeding oil passage to be continuous with the hydraulic chamber, the feeding oil passage is inclined with respect to a horizontal plane when the saddled vehicle is on a ground, and an inlet (81C1) of the feeding oil passage in the flange member is disposed at a level lower than a level of an outlet (81C2) of the feeding oil passage in the flange member.
An epitaxial substrate in which a group of group-III nitride layers are formed on a base substrate made of -oriented single crystal silicon such that a crystal plane of said group of group-III nitride layers is substantially in parallel with a substrate surface of said base substrate, said epitaxial substrate comprising: a superlattice layer group in which a plurality of superlattice layers are continuously laminated, said superlattice layer being formed of a first unit layer and a second unit layer made of group-III nitrides having different compositions being alternately and repeatedly laminated, wherein, in each superlattice layer, the first unit layers have the same thickness, and the second unit layers have the same thickness; and a crystal layer made of a group-III nitride, and formed above said superlattice layer group, wherein a second group-III nitride of said second unit layer has an in-plane lattice constant, under a strain-free state, greater than that of a first group-III nitride of said first unit layer, each of said second unit layers is formed so as to be in a coherent state relative to said first unit layer located immediately below, said first unit layer is made of AlN, and said second unit layer is made of a group-III nitride having a composition of Al x Ga 1-x N (0≤x≤0.25), said first unit layer has a thickness of 3-20 nm, and in said superlattice layer group, said superlattice layer formed at an upper position has an increased thickness of said second unit layer compared with other superlattice layers (3a, 3b) in the superlattice layer group. a superlattice layer group in which a plurality of superlattice layers are continuously laminated, said superlattice layer being formed of a first unit layer and a second unit layer made of group-III nitrides having different compositions being alternately and repeatedly laminated, wherein, in each superlattice layer, the first unit layers have the same thickness, and the second unit layers have the same thickness; and a crystal layer made of a group-III nitride, and formed above said superlattice layer group, wherein a second group-III nitride of said second unit layer has an in-plane lattice constant, under a strain-free state, greater than that of a first group-III nitride of said first unit layer, each of said second unit layers is formed so as to be in a coherent state relative to said first unit layer located immediately below, said first unit layer is made of AlN, and said second unit layer is made of a group-III nitride having a composition of Al x Ga 1-x N (0≤x≤0.25), said first unit layer has a thickness of 3-20 nm, and in said superlattice layer group, said superlattice layer formed at an upper position has an increased thickness of said second unit layer compared with other superlattice layers (3a, 3b) in the superlattice layer group.
A method, comprising: determining whether an engine fuel massflow and an engine charge massflow have values below threshold values; determining whether the engine fuel massflow and an engine charge massflow have rates of change below threshold values; determining whether a NOx reduction system monitor operation can be performed; determining whether a value of a ratio of the engine fuel massflow to the engine charge massflow is between a high and low threshold; and in response to all logical values for the determining operations being TRUE, calculating an average of a number of values of an expected NO x calculation over a period of time or execution cycles, and calculating an average of a number of values of a NO x sensor reading over the period of time or execution cycles; comparing the averaged values; and determining a fault value for a NO x reduction system NO x conversion capability in response to the comparing. determining whether an engine fuel massflow and an engine charge massflow have values below threshold values; determining whether the engine fuel massflow and an engine charge massflow have rates of change below threshold values; determining whether a NOx reduction system monitor operation can be performed; determining whether a value of a ratio of the engine fuel massflow to the engine charge massflow is between a high and low threshold; and in response to all logical values for the determining operations being TRUE, calculating an average of a number of values of an expected NO x calculation over a period of time or execution cycles, and calculating an average of a number of values of a NO x sensor reading over the period of time or execution cycles; comparing the averaged values; and determining a fault value for a NO x reduction system NO x conversion capability in response to the comparing.
A method of a rewrite engine of a network device, the method comprising: generalizing each protocol header layer of a header of a packet according to a generic format-that corresponds to a protocol of the protocol header layer, wherein each generalized protocol header layer includes: at least one valid field having valid data, at least one invalid field having invalid data, and a bit vector representing the generalized protocol layer with bits marked as a first value for the at least one invalid fields of the generalized protocol layer and bits marked as a second value for the at least one valid fields of the generalized protocol layer; and using at least one command from a set of generic commands that is stored in a memory of the network switch to modify at least one of the generalized protocol header layers. generalizing each protocol header layer of a header of a packet according to a generic format-that corresponds to a protocol of the protocol header layer, wherein each generalized protocol header layer includes: at least one valid field having valid data, at least one invalid field having invalid data, and a bit vector representing the generalized protocol layer with bits marked as a first value for the at least one invalid fields of the generalized protocol layer and bits marked as a second value for the at least one valid fields of the generalized protocol layer; and using at least one command from a set of generic commands that is stored in a memory of the network switch to modify at least one of the generalized protocol header layers. at least one valid field having valid data, at least one invalid field having invalid data, and a bit vector representing the generalized protocol layer with bits marked as a first value for the at least one invalid fields of the generalized protocol layer and bits marked as a second value for the at least one valid fields of the generalized protocol layer; and using at least one command from a set of generic commands that is stored in a memory of the network switch to modify at least one of the generalized protocol header layers.
A method in a wireless local area network, LAN, system, the method comprising: generating, by a transmitting apparatus, a short training field, STF, signal for a 80+80MHz band; and transmitting, by the transmitting apparatus, a physical protocol data unit, PPDU, including the STF signal to a receiving apparatus, wherein the STF signal for the 80+80MHz band is generated based on a first sequence, wherein the first sequence is defined as [HES HES1], wherein HES is a STF sequence for lower 80MHz band and defined as {M, 1, -M, 0, -M, 1, -M} ∗ (1 +j)/sqrt, wherein HES1 is a STF sequence for upper 80MHz band and defined as {-M, -1, M, 0, - M, 1, -M} ∗ (1+j) ∗ sqrt(1/2), wherein the sqrt() represents square root, and wherein M is a preset sequence having 15 elements and is defined as {-1, -1, -1, 1, 1, 1, - 1, 1, 1, 1, -1, 1, 1, -1, 1}. generating, by a transmitting apparatus, a short training field, STF, signal for a 80+80MHz band; and transmitting, by the transmitting apparatus, a physical protocol data unit, PPDU, including the STF signal to a receiving apparatus, wherein the STF signal for the 80+80MHz band is generated based on a first sequence, wherein the first sequence is defined as [HES HES1], wherein HES is a STF sequence for lower 80MHz band and defined as {M, 1, -M, 0, -M, 1, -M} ∗ (1 +j)/sqrt, wherein HES1 is a STF sequence for upper 80MHz band and defined as {-M, -1, M, 0, - M, 1, -M} ∗ (1+j) ∗ sqrt(1/2), wherein the sqrt() represents square root, and wherein M is a preset sequence having 15 elements and is defined as {-1, -1, -1, 1, 1, 1, - 1, 1, 1, 1, -1, 1, 1, -1, 1}.
A composition suitable for use as a pigment dispersant, comprising a graft copolymer having a macromonomer grafted onto a polymer backbone, wherein the macromonomer and backbone are formed from polymerized ethylenically unsaturated monomers, and wherein the graft copolymer has attached to either the backbone or macromonomer a pigment anchoring group selected from the group consisting of an aromatic ester, wherein said aromatic ester is prepared by contact of an epoxy functional group on either the backbone or macromonomer with a substituted or unsubstituted aromatic carboxylic acid, or an aromatic amine, wherein said aromatic amine group is prepared by contact of an epoxy functional group on either the backbone or macromonomer with a substituted or unsubstituted secondary aromatic amine, or by esterifying epoxy functional groups built into the backbone or the macromonomer with a precursor compound containing both a tertiary aromatic amine and a carboxylic acid functional group, or by copolymerizing 4-aminostyrene, 2-vinyl pyridine, or 4-vinyl pyridine into the graft copolymer, or a quaternary ammonium group, wherein said quaternary ammonium group is prepared by direct polymerization of ethylenically unsaturated monomers which contain pendant tertiary amine groups, and contacting said tertiary amine groups with an alkylation agent, and/or mixtures thereof. an aromatic ester, wherein said aromatic ester is prepared by contact of an epoxy functional group on either the backbone or macromonomer with a substituted or unsubstituted aromatic carboxylic acid, or an aromatic amine, wherein said aromatic amine group is prepared by contact of an epoxy functional group on either the backbone or macromonomer with a substituted or unsubstituted secondary aromatic amine, or by esterifying epoxy functional groups built into the backbone or the macromonomer with a precursor compound containing both a tertiary aromatic amine and a carboxylic acid functional group, or by copolymerizing 4-aminostyrene, 2-vinyl pyridine, or 4-vinyl pyridine into the graft copolymer, or a quaternary ammonium group, wherein said quaternary ammonium group is prepared by direct polymerization of ethylenically unsaturated monomers which contain pendant tertiary amine groups, and contacting said tertiary amine groups with an alkylation agent, and/or mixtures thereof.
A platform for performing processing of packets at the edge of a network and/or in a network (102,104), the platform comprising: a plurality of service cards of a forwarding plane, wherein each service card is configured to execute at least one particular network application and is dynamically reprogrammable; a programmable service path structure, that is configured to map a logical path for processing of the packets through one or more of the plurality of service cards according to characteristics of the packets, wherein the programmable service path structure is dynamically reprogrammable; a plurality of input/output, I/O, cards, each I/O card configured to route the packets from ingress to egress of the platform, wherein at least one of the service cards and I/O cards is configured to route packets to a next destination; a fabric including a plurality of input and output ports configured to physically route the packets from and to one or more of the plurality of service cards and one or more of the I/O cards according to the programmable service path structure; and a control plane, coupled to the forwarding plane, the control plane comprising at least one feature server used in conjunction with the forwarding plane for executing an application associated with at least one bandwidth management or a traffic management process, whereby the control plane is configured to control one or more portions of the programmable service path structure. a plurality of service cards of a forwarding plane, wherein each service card is configured to execute at least one particular network application and is dynamically reprogrammable; a programmable service path structure, that is configured to map a logical path for processing of the packets through one or more of the plurality of service cards according to characteristics of the packets, wherein the programmable service path structure is dynamically reprogrammable; a plurality of input/output, I/O, cards, each I/O card configured to route the packets from ingress to egress of the platform, wherein at least one of the service cards and I/O cards is configured to route packets to a next destination; a fabric including a plurality of input and output ports configured to physically route the packets from and to one or more of the plurality of service cards and one or more of the I/O cards according to the programmable service path structure; and a control plane, coupled to the forwarding plane, the control plane comprising at least one feature server used in conjunction with the forwarding plane for executing an application associated with at least one bandwidth management or a traffic management process, whereby the control plane is configured to control one or more portions of the programmable service path structure.
A reactor system, comprising: a reactor chamber; a reactor chamber gas inlet conduit configured to transport gas into the reactor chamber through a reactor chamber gas inlet; a flow control mechanism configured to regulate the flow of gas through the reactor chamber gas inlet conduit at a rate of equal to or less than about 1 milliliter per second; and a humidifier configured to humidify the gas transported through the reactor chamber gas inlet conduit, the humidifier positioned between the flow control mechanism and the reactor chamber gas inlet. a reactor chamber; a reactor chamber gas inlet conduit configured to transport gas into the reactor chamber through a reactor chamber gas inlet; a flow control mechanism configured to regulate the flow of gas through the reactor chamber gas inlet conduit at a rate of equal to or less than about 1 milliliter per second; and a humidifier configured to humidify the gas transported through the reactor chamber gas inlet conduit, the humidifier positioned between the flow control mechanism and the reactor chamber gas inlet.
A method of testing a body sample of a human with a tumor, comprising: amplifying tumor DNA of a body sample of the human with a set of amplification primers, wherein each primer comprises a sequence selected from SEQ ID NO: 1-14 to generate amplification products comprising at least one TERT promoter nucleotide 228 sequence, at least one TERT promoter nucleotide 250 sequence, at least one IDH1 codon 132 sequence, and at least one IDH2 codon 172 sequence; wherein primers comprising SEQ ID NO: 1 and 3 amplify wild-type TERT C228 when appropriate template is present; wherein primers comprising SEQ ID NO: 2 and 3 amplify mutant TERT C228T when appropriate template is present; wherein primers comprising SEQ ID NO: 4 and 6 amplify wild-type TERT C250 when appropriate template is present; wherein primers comprising SEQ ID NO: 5 and 6 amplify mutant TERT C250T when appropriate template is present; wherein primers comprising SEQ ID NO: 7 and 9 amplify wild-type IDH1 R132 when appropriate template is present; wherein primers comprising SEQ ID NO: 8 and 9 amplify mutant IDH1 R132H when appropriate template is present; wherein primers comprising SEQ ID NO: 11 and 13 amplify wild-type IDH2 R172 when appropriate template is present; wherein primers comprising SEQ ID NO: 12 and 13 amplify mutant IDH2 R172H when appropriate template is present; and detecting the amplification products. amplifying tumor DNA of a body sample of the human with a set of amplification primers, wherein each primer comprises a sequence selected from SEQ ID NO: 1-14 to generate amplification products comprising at least one TERT promoter nucleotide 228 sequence, at least one TERT promoter nucleotide 250 sequence, at least one IDH1 codon 132 sequence, and at least one IDH2 codon 172 sequence; wherein primers comprising SEQ ID NO: 1 and 3 amplify wild-type TERT C228 when appropriate template is present; wherein primers comprising SEQ ID NO: 2 and 3 amplify mutant TERT C228T when appropriate template is present; wherein primers comprising SEQ ID NO: 4 and 6 amplify wild-type TERT C250 when appropriate template is present; wherein primers comprising SEQ ID NO: 5 and 6 amplify mutant TERT C250T when appropriate template is present; wherein primers comprising SEQ ID NO: 7 and 9 amplify wild-type IDH1 R132 when appropriate template is present; wherein primers comprising SEQ ID NO: 8 and 9 amplify mutant IDH1 R132H when appropriate template is present; wherein primers comprising SEQ ID NO: 11 and 13 amplify wild-type IDH2 R172 when appropriate template is present; wherein primers comprising SEQ ID NO: 12 and 13 amplify mutant IDH2 R172H when appropriate template is present; and detecting the amplification products.
A method of allocating resources to a first wireless station, STA, for uplink, UL, transmissions, comprising: receiving, from the first STA, buffer status information indicating one or more access categories or traffic identifiers, TIDs, for which the first STA has queued uplink, UL, data and an amount of queued UL data associated with the one or more access categories or TIDs; determining a resource unit, RU, allocation scheme based at least in part on the buffer status information received from the first STA; allocating a first set of RUs to the first STA in accordance with the RU allocation scheme; and receiving at least some of the queued UL data from the first STA via the first set of RUs; wherein the buffer status information comprises a bitmap identifying the one or more access categories, one or more buffer state fields indicating an amount of queued UL data belonging to at least one of the identified access categories, and a quantization value; wherein information provided in the one or more buffer state fields is quantized based on the quantization value; and wherein the buffer status information further indicates a priority level of the queued UL data, wherein the priority level is based at least in part on quality of service, QoS, parameters, delay requirements, one or more access categories associated with the queued UL data, or one or more TIDs associated with the queued UL data. receiving, from the first STA, buffer status information indicating one or more access categories or traffic identifiers, TIDs, for which the first STA has queued uplink, UL, data and an amount of queued UL data associated with the one or more access categories or TIDs; determining a resource unit, RU, allocation scheme based at least in part on the buffer status information received from the first STA; allocating a first set of RUs to the first STA in accordance with the RU allocation scheme; and receiving at least some of the queued UL data from the first STA via the first set of RUs; wherein the buffer status information comprises a bitmap identifying the one or more access categories, one or more buffer state fields indicating an amount of queued UL data belonging to at least one of the identified access categories, and a quantization value; wherein information provided in the one or more buffer state fields is quantized based on the quantization value; and wherein the buffer status information further indicates a priority level of the queued UL data, wherein the priority level is based at least in part on quality of service, QoS, parameters, delay requirements, one or more access categories associated with the queued UL data, or one or more TIDs associated with the queued UL data.